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AyuGramDesktop/Telegram/SourceFiles/ayu/libs/sqlite/sqlite_orm.h
ZavaruKitsu dc9f464f84 feat: progress AyuSync implementation 
fix: build errors
2023-07-03 03:26:46 +03:00

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#pragma once
#if defined(_MSC_VER)
__pragma(push_macro("min"))
#undef min
__pragma(push_macro("max"))
#undef max
#endif // defined(_MSC_VER)
#pragma once
// #include "cxx_universal.h"
/*
* This header makes central C++ functionality on which sqlite_orm depends universally available:
* - alternative operator representations
* - ::size_t, ::ptrdiff_t, ::nullptr_t
* - C++ core language feature macros
* - macros for dealing with compiler quirks
*/
#include <iso646.h> // alternative operator representations
#include <cstddef> // sqlite_orm is using size_t, ptrdiff_t, nullptr_t everywhere, pull it in early
// earlier clang versions didn't make nullptr_t available in the global namespace via stddef.h,
// though it should have according to C++ documentation (see https://en.cppreference.com/w/cpp/types/nullptr_t#Notes).
// actually it should be available when including stddef.h
using std::nullptr_t;
// #include "cxx_core_features.h"
/*
* This header detects core C++ language features on which sqlite_orm depends.
* May be updated/overwritten by cxx_compiler_quirks.h
*/
#ifdef __has_cpp_attribute
#define SQLITE_ORM_HAS_CPP_ATTRIBUTE(attr) __has_cpp_attribute(attr)
#else
#define SQLITE_ORM_HAS_CPP_ATTRIBUTE(attr) 0L
#endif
#ifdef __has_include
#define SQLITE_ORM_HAS_INCLUDE(file) __has_include(file)
#else
#define SQLITE_ORM_HAS_INCLUDE(file) 0L
#endif
#if __cpp_aggregate_nsdmi >= 201304L
#define SQLITE_ORM_AGGREGATE_NSDMI_SUPPORTED
#endif
#if __cpp_constexpr >= 201304L
#define SQLITE_ORM_RELAXED_CONSTEXPR_SUPPORTED
#endif
#if __cpp_noexcept_function_type >= 201510L
#define SQLITE_ORM_NOTHROW_ALIASES_SUPPORTED
#endif
#if __cpp_aggregate_bases >= 201603L
#define SQLITE_ORM_AGGREGATE_BASES_SUPPORTED
#endif
#if __cpp_fold_expressions >= 201603L
#define SQLITE_ORM_FOLD_EXPRESSIONS_SUPPORTED
#endif
#if __cpp_inline_variables >= 201606L
#define SQLITE_ORM_INLINE_VARIABLES_SUPPORTED
#endif
#if __cpp_if_constexpr >= 201606L
#define SQLITE_ORM_IF_CONSTEXPR_SUPPORTED
#endif
#if __cpp_inline_variables >= 201606L
#define SQLITE_ORM_INLINE_VARIABLES_SUPPORTED
#endif
#if __cpp_generic_lambdas >= 201707L
#define SQLITE_ORM_EXPLICIT_GENERIC_LAMBDA_SUPPORTED
#else
#endif
#if __cpp_consteval >= 201811L
#define SQLITE_ORM_CONSTEVAL_SUPPORTED
#endif
#if __cpp_aggregate_paren_init >= 201902L
#define SQLITE_ORM_AGGREGATE_PAREN_INIT_SUPPORTED
#endif
#if __cpp_concepts >= 201907L
#define SQLITE_ORM_CONCEPTS_SUPPORTED
#endif
// #include "cxx_compiler_quirks.h"
/*
* This header defines macros for circumventing compiler quirks on which sqlite_orm depends.
* May amend cxx_core_features.h
*/
#ifdef __clang__
#define SQLITE_ORM_DO_PRAGMA(...) _Pragma(#__VA_ARGS__)
#endif
#ifdef __clang__
#define SQLITE_ORM_CLANG_SUPPRESS(warnoption, ...) \
SQLITE_ORM_DO_PRAGMA(clang diagnostic push) \
SQLITE_ORM_DO_PRAGMA(clang diagnostic ignored warnoption) \
__VA_ARGS__ \
SQLITE_ORM_DO_PRAGMA(clang diagnostic pop)
#else
#define SQLITE_ORM_CLANG_SUPPRESS(warnoption, ...) __VA_ARGS__
#endif
// clang has the bad habit of diagnosing missing brace-init-lists when constructing aggregates with base classes.
// This is a false positive, since the C++ standard is quite clear that braces for nested or base objects may be omitted,
// see https://en.cppreference.com/w/cpp/language/aggregate_initialization:
// "The braces around the nested initializer lists may be elided (omitted),
// in which case as many initializer clauses as necessary are used to initialize every member or element of the corresponding subaggregate,
// and the subsequent initializer clauses are used to initialize the following members of the object."
// In this sense clang should only warn about missing field initializers.
// Because we know what we are doing, we suppress the diagnostic message
#define SQLITE_ORM_CLANG_SUPPRESS_MISSING_BRACES(...) SQLITE_ORM_CLANG_SUPPRESS("-Wmissing-braces", __VA_ARGS__)
#if defined(_MSC_VER) && (_MSC_VER < 1920)
#define SQLITE_ORM_BROKEN_VARIADIC_PACK_EXPANSION
#endif
// clang 10 chokes on concepts that don't depend on template parameters;
// when it tries to instantiate an expression in a requires expression, which results in an error,
// the compiler reports an error instead of dismissing the templated function.
#if defined(SQLITE_ORM_CONCEPTS_SUPPORTED) && (defined(__clang__) && (__clang_major__ == 10))
#define SQLITE_ORM_BROKEN_NONTEMPLATE_CONCEPTS
#endif
#ifdef SQLITE_ORM_INLINE_VARIABLES_SUPPORTED
#define SQLITE_ORM_INLINE_VAR inline
#else
#define SQLITE_ORM_INLINE_VAR
#endif
#if SQLITE_ORM_HAS_CPP_ATTRIBUTE(no_unique_address) >= 201803L
#define SQLITE_ORM_NOUNIQUEADDRESS [[no_unique_address]]
#else
#define SQLITE_ORM_NOUNIQUEADDRESS
#endif
#ifdef SQLITE_ORM_CONSTEVAL_SUPPORTED
#define SQLITE_ORM_CONSTEVAL consteval
#else
#define SQLITE_ORM_CONSTEVAL constexpr
#endif
#pragma once
#include <type_traits> // std::enable_if, std::is_same
// #include "functional/cxx_type_traits_polyfill.h"
#include <type_traits>
// #include "cxx_universal.h"
namespace sqlite_orm {
namespace internal {
namespace polyfill {
#if __cpp_lib_void_t >= 201411L
using std::void_t;
#else
template<class...>
using void_t = void;
#endif
#if __cpp_lib_bool_constant >= 201505L
using std::bool_constant;
#else
template<bool v>
using bool_constant = std::integral_constant<bool, v>;
#endif
#if __cpp_lib_logical_traits >= 201510L && __cpp_lib_type_trait_variable_templates >= 201510L
using std::conjunction;
using std::conjunction_v;
using std::disjunction;
using std::disjunction_v;
using std::negation;
using std::negation_v;
#else
template<typename...>
struct conjunction : std::true_type {};
template<typename B1>
struct conjunction<B1> : B1 {};
template<typename B1, typename... Bn>
struct conjunction<B1, Bn...> : std::conditional_t<bool(B1::value), conjunction<Bn...>, B1> {};
template<typename... Bs>
SQLITE_ORM_INLINE_VAR constexpr bool conjunction_v = conjunction<Bs...>::value;
template<typename...>
struct disjunction : std::false_type {};
template<typename B1>
struct disjunction<B1> : B1 {};
template<typename B1, typename... Bn>
struct disjunction<B1, Bn...> : std::conditional_t<bool(B1::value), B1, disjunction<Bn...>> {};
template<typename... Bs>
SQLITE_ORM_INLINE_VAR constexpr bool disjunction_v = disjunction<Bs...>::value;
template<typename B>
struct negation : bool_constant<!bool(B::value)> {};
template<typename B>
SQLITE_ORM_INLINE_VAR constexpr bool negation_v = negation<B>::value;
#endif
#if __cpp_lib_remove_cvref >= 201711L
using std::remove_cvref, std::remove_cvref_t;
#else
template<class T>
struct remove_cvref : std::remove_cv<std::remove_reference_t<T>> {};
template<class T>
using remove_cvref_t = typename remove_cvref<T>::type;
#endif
#if __cpp_lib_type_identity >= 201806L
using std::type_identity, std::type_identity_t;
#else
template<class T>
struct type_identity {
using type = T;
};
template<class T>
using type_identity_t = typename type_identity<T>::type;
#endif
#if 0 // __cpp_lib_detect >= 0L // library fundamentals TS v2, [meta.detect]
using std::nonesuch;
using std::detector;
using std::is_detected, std::is_detected_v;
using std::detected, std::detected_t;
using std::detected_or, std::detected_or_t;
#else
struct nonesuch {
~nonesuch() = delete;
nonesuch(const nonesuch&) = delete;
void operator=(const nonesuch&) = delete;
};
template<class Default, class AlwaysVoid, template<class...> class Op, class... Args>
struct detector {
using value_t = std::false_type;
using type = Default;
};
template<class Default, template<class...> class Op, class... Args>
struct detector<Default, polyfill::void_t<Op<Args...>>, Op, Args...> {
using value_t = std::true_type;
using type = Op<Args...>;
};
template<template<class...> class Op, class... Args>
using is_detected = typename detector<nonesuch, void, Op, Args...>::value_t;
template<template<class...> class Op, class... Args>
using detected = detector<nonesuch, void, Op, Args...>;
template<template<class...> class Op, class... Args>
using detected_t = typename detector<nonesuch, void, Op, Args...>::type;
template<class Default, template<class...> class Op, class... Args>
using detected_or = detector<Default, void, Op, Args...>;
template<class Default, template<class...> class Op, class... Args>
using detected_or_t = typename detected_or<Default, Op, Args...>::type;
template<template<class...> class Op, class... Args>
SQLITE_ORM_INLINE_VAR constexpr bool is_detected_v = is_detected<Op, Args...>::value;
#endif
#if 0 // proposed but not pursued
using std::is_specialization_of, std::is_specialization_of_t, std::is_specialization_of_v;
#else
// is_specialization_of: https://github.com/cplusplus/papers/issues/812
template<typename Type, template<typename...> class Primary>
SQLITE_ORM_INLINE_VAR constexpr bool is_specialization_of_v = false;
template<template<typename...> class Primary, class... Types>
SQLITE_ORM_INLINE_VAR constexpr bool is_specialization_of_v<Primary<Types...>, Primary> = true;
template<typename Type, template<typename...> class Primary>
struct is_specialization_of : bool_constant<is_specialization_of_v<Type, Primary>> {};
#endif
template<typename...>
SQLITE_ORM_INLINE_VAR constexpr bool always_false_v = false;
template<size_t I>
using index_constant = std::integral_constant<size_t, I>;
}
}
namespace polyfill = internal::polyfill;
}
namespace sqlite_orm {
// C++ generic traits used throughout the library
namespace internal {
template<class T, class... Types>
using is_any_of = polyfill::disjunction<std::is_same<T, Types>...>;
// enable_if for types
template<template<typename...> class Op, class... Args>
using match_if = std::enable_if_t<Op<Args...>::value>;
// enable_if for types
template<template<typename...> class Op, class... Args>
using match_if_not = std::enable_if_t<polyfill::negation_v<Op<Args...>>>;
// enable_if for types
template<class T, template<typename...> class Primary>
using match_specialization_of = std::enable_if_t<polyfill::is_specialization_of_v<T, Primary>>;
// enable_if for functions
template<template<typename...> class Op, class... Args>
using satisfies = std::enable_if_t<Op<Args...>::value, bool>;
// enable_if for functions
template<template<typename...> class Op, class... Args>
using satisfies_not = std::enable_if_t<polyfill::negation<Op<Args...>>::value, bool>;
// enable_if for functions
template<class T, template<typename...> class Primary>
using satisfies_is_specialization_of = std::enable_if_t<polyfill::is_specialization_of_v<T, Primary>, bool>;
}
// type name template aliases for syntactic sugar
namespace internal {
template<typename T>
using type_t = typename T::type;
template<typename T>
using field_type_t = typename T::field_type;
template<typename T>
using constraints_type_t = typename T::constraints_type;
template<typename T>
using object_type_t = typename T::object_type;
template<typename T>
using elements_type_t = typename T::elements_type;
template<typename T>
using target_type_t = typename T::target_type;
template<typename T>
using on_type_t = typename T::on_type;
}
}
#pragma once
#include "ayu/libs/sqlite/sqlite3.h"
#include <system_error> // std::error_code, std::system_error
#include <string> // std::string
#include <stdexcept>
#include <sstream> // std::ostringstream
#include <type_traits>
namespace sqlite_orm {
/** @short Enables classifying sqlite error codes.
@note We don't bother listing all possible values;
this also allows for compatibility with
'Construction rules for enum class values (P0138R2)'
*/
enum class sqlite_errc {};
enum class orm_error_code {
not_found = 1,
type_is_not_mapped_to_storage,
trying_to_dereference_null_iterator,
too_many_tables_specified,
incorrect_set_fields_specified,
column_not_found,
table_has_no_primary_key_column,
cannot_start_a_transaction_within_a_transaction,
no_active_transaction,
incorrect_journal_mode_string,
invalid_collate_argument_enum,
failed_to_init_a_backup,
unknown_member_value,
incorrect_order,
cannot_use_default_value,
arguments_count_does_not_match,
function_not_found,
index_is_out_of_bounds,
value_is_null,
no_tables_specified,
};
}
namespace std {
template<>
struct is_error_code_enum<::sqlite_orm::sqlite_errc> : true_type {};
template<>
struct is_error_code_enum<::sqlite_orm::orm_error_code> : true_type {};
}
namespace sqlite_orm {
class orm_error_category : public std::error_category {
public:
const char* name() const noexcept override final {
return "ORM error";
}
std::string message(int c) const override final {
switch(static_cast<orm_error_code>(c)) {
case orm_error_code::not_found:
return "Not found";
case orm_error_code::type_is_not_mapped_to_storage:
return "Type is not mapped to storage";
case orm_error_code::trying_to_dereference_null_iterator:
return "Trying to dereference null iterator";
case orm_error_code::too_many_tables_specified:
return "Too many tables specified";
case orm_error_code::incorrect_set_fields_specified:
return "Incorrect set fields specified";
case orm_error_code::column_not_found:
return "Column not found";
case orm_error_code::table_has_no_primary_key_column:
return "Table has no primary key column";
case orm_error_code::cannot_start_a_transaction_within_a_transaction:
return "Cannot start a transaction within a transaction";
case orm_error_code::no_active_transaction:
return "No active transaction";
case orm_error_code::invalid_collate_argument_enum:
return "Invalid collate_argument enum";
case orm_error_code::failed_to_init_a_backup:
return "Failed to init a backup";
case orm_error_code::unknown_member_value:
return "Unknown member value";
case orm_error_code::incorrect_order:
return "Incorrect order";
case orm_error_code::cannot_use_default_value:
return "The statement 'INSERT INTO * DEFAULT VALUES' can be used with only one row";
case orm_error_code::arguments_count_does_not_match:
return "Arguments count does not match";
case orm_error_code::function_not_found:
return "Function not found";
case orm_error_code::index_is_out_of_bounds:
return "Index is out of bounds";
case orm_error_code::value_is_null:
return "Value is null";
case orm_error_code::no_tables_specified:
return "No tables specified";
default:
return "unknown error";
}
}
};
class sqlite_error_category : public std::error_category {
public:
const char* name() const noexcept override final {
return "SQLite error";
}
std::string message(int c) const override final {
return sqlite3_errstr(c);
}
};
inline const orm_error_category& get_orm_error_category() {
static orm_error_category res;
return res;
}
inline const sqlite_error_category& get_sqlite_error_category() {
static sqlite_error_category res;
return res;
}
inline std::error_code make_error_code(sqlite_errc ev) noexcept {
return {static_cast<int>(ev), get_sqlite_error_category()};
}
inline std::error_code make_error_code(orm_error_code ev) noexcept {
return {static_cast<int>(ev), get_orm_error_category()};
}
template<typename... T>
std::string get_error_message(sqlite3* db, T&&... args) {
std::ostringstream stream;
using unpack = int[];
static_cast<void>(unpack{0, (static_cast<void>(static_cast<void>(stream << args)), 0)...});
stream << sqlite3_errmsg(db);
return stream.str();
}
template<typename... T>
[[noreturn]] void throw_error(sqlite3* db, T&&... args) {
throw std::system_error{sqlite_errc(sqlite3_errcode(db)), get_error_message(db, std::forward<T>(args)...)};
}
inline std::system_error sqlite_to_system_error(int ev) {
return {sqlite_errc(ev)};
}
inline std::system_error sqlite_to_system_error(sqlite3* db) {
return {sqlite_errc(sqlite3_errcode(db)), sqlite3_errmsg(db)};
}
[[noreturn]] inline void throw_translated_sqlite_error(int ev) {
throw sqlite_to_system_error(ev);
}
[[noreturn]] inline void throw_translated_sqlite_error(sqlite3* db) {
throw sqlite_to_system_error(db);
}
[[noreturn]] inline void throw_translated_sqlite_error(sqlite3_stmt* stmt) {
throw sqlite_to_system_error(sqlite3_db_handle(stmt));
}
}
#pragma once
#include <string> // std::string
#include <memory> // std::shared_ptr, std::unique_ptr
#include <vector> // std::vector
// #include "functional/cxx_optional.h"
// #include "cxx_core_features.h"
#if SQLITE_ORM_HAS_INCLUDE(<optional>)
#include <optional>
#endif
#if __cpp_lib_optional >= 201606L
#define SQLITE_ORM_OPTIONAL_SUPPORTED
#endif
// #include "functional/cxx_type_traits_polyfill.h"
// #include "type_traits.h"
// #include "is_std_ptr.h"
#include <type_traits>
#include <memory>
namespace sqlite_orm {
/**
* Specialization for optional type (std::shared_ptr / std::unique_ptr).
*/
template<typename T>
struct is_std_ptr : std::false_type {};
template<typename T>
struct is_std_ptr<std::shared_ptr<T>> : std::true_type {
using element_type = typename std::shared_ptr<T>::element_type;
static std::shared_ptr<T> make(std::remove_cv_t<T>&& v) {
return std::make_shared<T>(std::move(v));
}
};
template<typename T>
struct is_std_ptr<std::unique_ptr<T>> : std::true_type {
using element_type = typename std::unique_ptr<T>::element_type;
static auto make(std::remove_cv_t<T>&& v) {
return std::make_unique<T>(std::move(v));
}
};
}
namespace sqlite_orm {
/**
* This class transforms a C++ type to a sqlite type name (int -> INTEGER, ...)
*/
template<class T, typename Enable = void>
struct type_printer {};
struct integer_printer {
const std::string& print() const {
static const std::string res = "INTEGER";
return res;
}
};
struct text_printer {
const std::string& print() const {
static const std::string res = "TEXT";
return res;
}
};
struct real_printer {
const std::string& print() const {
static const std::string res = "REAL";
return res;
}
};
struct blob_printer {
const std::string& print() const {
static const std::string res = "BLOB";
return res;
}
};
// Note: char, unsigned/signed char are used for storing integer values, not char values.
template<class T>
struct type_printer<T,
std::enable_if_t<polyfill::conjunction_v<polyfill::negation<internal::is_any_of<T,
wchar_t,
#ifdef __cpp_char8_t
char8_t,
#endif
char16_t,
char32_t>>,
std::is_integral<T>>>> : integer_printer {
};
template<class T>
struct type_printer<T, std::enable_if_t<std::is_floating_point<T>::value>> : real_printer {};
template<class T>
struct type_printer<T,
std::enable_if_t<polyfill::disjunction_v<std::is_same<T, const char*>,
std::is_base_of<std::string, T>,
std::is_base_of<std::wstring, T>>>> : text_printer {};
template<class T>
struct type_printer<T, std::enable_if_t<is_std_ptr<T>::value>> : type_printer<typename T::element_type> {};
#ifdef SQLITE_ORM_OPTIONAL_SUPPORTED
template<class T>
struct type_printer<T, std::enable_if_t<polyfill::is_specialization_of_v<T, std::optional>>>
: type_printer<typename T::value_type> {};
#endif
template<>
struct type_printer<std::vector<char>, void> : blob_printer {};
}
#pragma once
namespace sqlite_orm {
namespace internal {
enum class collate_argument {
binary,
nocase,
rtrim,
};
}
}
#pragma once
#include <system_error> // std::system_error
#include <ostream> // std::ostream
#include <string> // std::string
#include <tuple> // std::tuple, std::make_tuple
#include <type_traits> // std::is_base_of, std::false_type, std::true_type
// #include "functional/cxx_universal.h"
// #include "functional/cxx_type_traits_polyfill.h"
// #include "functional/mpl.h"
/*
* Symbols for 'template metaprogramming' (compile-time template programming),
* inspired by the MPL of Aleksey Gurtovoy and David Abrahams.
*
* Currently, the focus is on facilitating advanced type filtering,
* such as filtering columns by constraints having various traits.
* Hence it contains only a very small subset of a full MPL.
*
* Two key concepts are critical to understanding:
* 1. A 'metafunction' is a class template that represents a function invocable at compile-time.
* 2. A 'metafunction class' is a certain form of metafunction representation that enables higher-order metaprogramming.
* More precisely, it's a class with a nested metafunction called "fn"
* Correspondingly, a metafunction class invocation is defined as invocation of its nested "fn" metafunction.
* 3. A 'metafunction operation' is an alias template that represents a function whose instantiation already yields a type.
*
* Conventions:
* - "Fn" is the name for a metafunction template template parameter.
* - "FnCls" is the name for a metafunction class template parameter.
* - "_fn" is a suffix for a type that accepts metafunctions and turns them into metafunction classes.
* - "higher order" denotes a metafunction that operates on another metafunction (i.e. takes it as an argument).
*/
#include <type_traits> // std::false_type, std::true_type
// #include "cxx_universal.h"
// #include "cxx_type_traits_polyfill.h"
namespace sqlite_orm {
namespace internal {
namespace mpl {
template<template<class...> class Fn>
struct indirectly_test_metafunction;
/*
* Determines whether a class template has a nested metafunction `fn`.
*
* Implementation note: the technique of specialiazing on the inline variable must come first because
* of older compilers having problems with the detection of dependent templates [SQLITE_ORM_BROKEN_VARIADIC_PACK_EXPANSION].
*/
template<class T, class SFINAE = void>
SQLITE_ORM_INLINE_VAR constexpr bool is_metafunction_class_v = false;
template<class FnCls>
SQLITE_ORM_INLINE_VAR constexpr bool
is_metafunction_class_v<FnCls, polyfill::void_t<indirectly_test_metafunction<FnCls::template fn>>> =
true;
template<class T>
struct is_metafunction_class : polyfill::bool_constant<is_metafunction_class_v<T>> {};
/*
* Invoke metafunction.
*/
template<template<class...> class Fn, class... Args>
using invoke_fn_t = typename Fn<Args...>::type;
#ifdef SQLITE_ORM_BROKEN_VARIADIC_PACK_EXPANSION
template<template<class...> class Op, class... Args>
struct wrap_op {
using type = Op<Args...>;
};
/*
* Invoke metafunction operation.
*
* Note: legacy compilers need an extra layer of indirection, otherwise type replacement may fail
* if alias template `Op` has a dependent expression in it.
*/
template<template<class...> class Op, class... Args>
using invoke_op_t = typename wrap_op<Op, Args...>::type;
#else
/*
* Invoke metafunction operation.
*/
template<template<class...> class Op, class... Args>
using invoke_op_t = Op<Args...>;
#endif
/*
* Invoke metafunction class by invoking its nested metafunction.
*/
template<class FnCls, class... Args>
using invoke_t = typename FnCls::template fn<Args...>::type;
/*
* Instantiate metafunction class' nested metafunction.
*/
template<class FnCls, class... Args>
using instantiate = typename FnCls::template fn<Args...>;
/*
* Wrap given type such that `typename T::type` is valid.
*/
template<class T, class SFINAE = void>
struct type_wrap : polyfill::type_identity<T> {};
template<class T>
struct type_wrap<T, polyfill::void_t<typename T::type>> : T {};
/*
* Turn metafunction into a metafunction class.
*
* Invocation of the nested metafunction `fn` is SFINAE-friendly (detection idiom).
* This is necessary because `fn` is a proxy to the originally quoted metafunction,
* and the instantiation of the metafunction might be an invalid expression.
*/
template<template<class...> class Fn>
struct quote_fn {
template<class InvocableTest, template<class...> class, class...>
struct invoke_fn;
template<template<class...> class F, class... Args>
struct invoke_fn<polyfill::void_t<F<Args...>>, F, Args...> {
using type = type_wrap<F<Args...>>;
};
template<class... Args>
using fn = typename invoke_fn<void, Fn, Args...>::type;
};
/*
* Indirection wrapper for higher-order metafunctions,
* specialized on the argument indexes where metafunctions appear.
*/
template<size_t...>
struct higherorder;
template<>
struct higherorder<0u> {
/*
* Turn higher-order metafunction into a metafunction class.
*/
template<template<template<class...> class Fn, class... Args2> class HigherFn>
struct quote_fn {
template<class QuotedFn, class... Args2>
struct fn : HigherFn<QuotedFn::template fn, Args2...> {};
};
};
/*
* Metafunction class that extracts the nested metafunction of its metafunction class argument,
* quotes the extracted metafunction and passes it on to the next metafunction class
* (kind of the inverse of quoting).
*/
template<class FnCls>
struct pass_extracted_fn_to {
template<class... Args>
struct fn : FnCls::template fn<Args...> {};
// extract, quote, pass on
template<template<class...> class Fn, class... Args>
struct fn<Fn<Args...>> : FnCls::template fn<quote_fn<Fn>> {};
};
/*
* Metafunction class that invokes the specified metafunction operation,
* and passes its result on to the next metafunction class.
*/
template<template<class...> class Op, class FnCls>
struct pass_result_to {
// call Op, pass on its result
template<class... Args>
struct fn : FnCls::template fn<Op<Args...>> {};
};
/*
* Bind arguments at the front of a metafunction class.
* Metafunction class equivalent to std::bind_front().
*/
template<class FnCls, class... Bound>
struct bind_front {
template<class... Args>
struct fn : FnCls::template fn<Bound..., Args...> {};
};
/*
* Bind arguments at the back of a metafunction class.
* Metafunction class equivalent to std::bind_back()
*/
template<class FnCls, class... Bound>
struct bind_back {
template<class... Args>
struct fn : FnCls::template fn<Args..., Bound...> {};
};
/*
* Metafunction class equivalent to polyfill::always_false.
* It ignores arguments passed to the metafunction,
* and always returns the given type.
*/
template<class T>
struct always {
template<class...>
struct fn : type_wrap<T> {};
};
/*
* Unary metafunction class equivalent to std::type_identity.
*/
struct identity {
template<class T>
struct fn : type_wrap<T> {};
};
/*
* Metafunction class equivalent to std::negation.
*/
template<class FnCls>
struct not_ {
template<class... Args>
struct fn : polyfill::negation<invoke_t<FnCls, Args...>> {};
};
/*
* Metafunction class equivalent to std::conjunction
*/
template<class... TraitFnCls>
struct conjunction {
template<class... Args>
struct fn : polyfill::conjunction<typename TraitFnCls::template fn<Args...>...> {};
};
/*
* Metafunction class equivalent to std::disjunction.
*/
template<class... TraitFnCls>
struct disjunction {
template<class... Args>
struct fn : polyfill::disjunction<typename TraitFnCls::template fn<Args...>...> {};
};
#ifndef SQLITE_ORM_BROKEN_VARIADIC_PACK_EXPANSION
/*
* Metafunction equivalent to std::conjunction.
*/
template<template<class...> class... TraitFn>
using conjunction_fn = conjunction<quote_fn<TraitFn>...>;
/*
* Metafunction equivalent to std::disjunction.
*/
template<template<class...> class... TraitFn>
using disjunction_fn = disjunction<quote_fn<TraitFn>...>;
#else
template<template<class...> class... TraitFn>
struct conjunction_fn : conjunction<quote_fn<TraitFn>...> {};
template<template<class...> class... TraitFn>
struct disjunction_fn : disjunction<quote_fn<TraitFn>...> {};
#endif
/*
* Convenience template alias for binding arguments at the front of a metafunction.
*/
template<template<class...> class Fn, class... Bound>
using bind_front_fn = bind_front<quote_fn<Fn>, Bound...>;
/*
* Convenience template alias for binding arguments at the back of a metafunction.
*/
template<template<class...> class Fn, class... Bound>
using bind_back_fn = bind_back<quote_fn<Fn>, Bound...>;
/*
* Convenience template alias for binding a metafunction at the front of a higher-order metafunction.
*/
template<template<template<class...> class Fn, class... Args2> class HigherFn,
template<class...>
class BoundFn,
class... Bound>
using bind_front_higherorder_fn =
bind_front<higherorder<0>::quote_fn<HigherFn>, quote_fn<BoundFn>, Bound...>;
}
}
namespace mpl = internal::mpl;
// convenience metafunction classes
namespace internal {
/*
* Trait metafunction class that checks if a type has the specified trait.
*/
template<template<class...> class TraitFn>
using check_if = mpl::quote_fn<TraitFn>;
/*
* Trait metafunction class that checks if a type doesn't have the specified trait.
*/
template<template<class...> class TraitFn>
using check_if_not = mpl::not_<mpl::quote_fn<TraitFn>>;
/*
* Trait metafunction class that checks if a type is the same as the specified type.
*/
template<class Type>
using check_if_is_type = mpl::bind_front_fn<std::is_same, Type>;
/*
* Trait metafunction class that checks if a type's template matches the specified template
* (similar to `is_specialization_of`).
*/
template<template<class...> class Template>
using check_if_is_template =
mpl::pass_extracted_fn_to<mpl::bind_front_fn<std::is_same, mpl::quote_fn<Template>>>;
}
}
// #include "tuple_helper/same_or_void.h"
namespace sqlite_orm {
namespace internal {
/**
* Accepts any number of arguments and evaluates `type` alias as T if all arguments are the same or void otherwise
*/
template<class... Args>
struct same_or_void {
using type = void;
};
template<class A>
struct same_or_void<A> {
using type = A;
};
template<class A>
struct same_or_void<A, A> {
using type = A;
};
template<class A, class... Args>
struct same_or_void<A, A, Args...> : same_or_void<A, Args...> {};
}
}
// #include "tuple_helper/tuple_traits.h"
#include <type_traits> // std::is_same
#include <tuple>
// #include "../functional/cxx_type_traits_polyfill.h"
// #include "../functional/mpl.h"
namespace sqlite_orm {
namespace internal {
/*
* Higher-order trait metafunction that checks whether a tuple contains a type with given trait.
*/
template<template<class...> class TraitFn, class Tuple>
struct tuple_has {};
template<template<class...> class TraitFn, class... Types>
struct tuple_has<TraitFn, std::tuple<Types...>> : polyfill::disjunction<TraitFn<Types>...> {};
/*
* Trait metafunction class that checks whether a tuple contains a type with given trait.
*/
template<template<class...> class TraitFn>
using check_if_tuple_has = mpl::bind_front_higherorder_fn<tuple_has, TraitFn>;
/*
* Trait metafunction class that checks whether a tuple doesn't contain a type with given trait.
*/
template<template<class...> class TraitFn>
using check_if_tuple_has_not = mpl::not_<check_if_tuple_has<TraitFn>>;
/*
* Metafunction class that checks whether a tuple contains given type.
*/
template<class T>
using check_if_tuple_has_type = mpl::bind_front_higherorder_fn<tuple_has, check_if_is_type<T>::template fn>;
/*
* Metafunction class that checks whether a tuple contains a given template.
*
* Note: we are using 2 small tricks:
* 1. A template template parameter can be treated like a metafunction, so we can just "quote" a 'primary'
* template into the MPL system (e.g. `std::vector`).
* 2. This metafunction class does the opposite of the trait function `is_specialization`:
* `is_specialization` tries to instantiate the primary template template parameter using the
* template parameters of a template type, then compares both instantiated types.
* Here instead, `pass_extracted_fn_to` extracts the template template parameter from a template type,
* then compares the resulting template template parameters.
*/
template<template<class...> class Primary>
using check_if_tuple_has_template =
mpl::bind_front_higherorder_fn<tuple_has, check_if_is_template<Primary>::template fn>;
}
}
// #include "tuple_helper/tuple_filter.h"
#include <type_traits> // std::integral_constant, std::index_sequence, std::conditional, std::declval
#include <tuple> // std::tuple
// #include "../functional/cxx_universal.h"
// #include "../functional/index_sequence_util.h"
#include <utility> // std::index_sequence, std::make_index_sequence
// #include "../functional/cxx_universal.h"
namespace sqlite_orm {
namespace internal {
/**
* Get the first value of an index_sequence.
*/
template<size_t I, size_t... Idx>
SQLITE_ORM_CONSTEVAL size_t first_index_sequence_value(std::index_sequence<I, Idx...>) {
return I;
}
template<class... Seq>
struct flatten_idxseq {
using type = std::index_sequence<>;
};
template<size_t... Ix>
struct flatten_idxseq<std::index_sequence<Ix...>> {
using type = std::index_sequence<Ix...>;
};
template<size_t... As, size_t... Bs, class... Seq>
struct flatten_idxseq<std::index_sequence<As...>, std::index_sequence<Bs...>, Seq...>
: flatten_idxseq<std::index_sequence<As..., Bs...>, Seq...> {};
template<class... Seq>
using flatten_idxseq_t = typename flatten_idxseq<Seq...>::type;
}
}
namespace sqlite_orm {
namespace internal {
template<typename... input_t>
using tuple_cat_t = decltype(std::tuple_cat(std::declval<input_t>()...));
template<class... Tpl>
struct conc_tuple {
using type = tuple_cat_t<Tpl...>;
};
template<class Tpl, class Seq>
struct tuple_from_index_sequence;
template<class Tpl, size_t... Idx>
struct tuple_from_index_sequence<Tpl, std::index_sequence<Idx...>> {
using type = std::tuple<std::tuple_element_t<Idx, Tpl>...>;
};
template<class Tpl, class Seq>
using tuple_from_index_sequence_t = typename tuple_from_index_sequence<Tpl, Seq>::type;
template<class Tpl, template<class...> class Pred, template<class...> class Proj, class Seq>
struct filter_tuple_sequence;
#ifndef SQLITE_ORM_BROKEN_VARIADIC_PACK_EXPANSION
template<class Tpl, template<class...> class Pred, template<class...> class Proj, size_t... Idx>
struct filter_tuple_sequence<Tpl, Pred, Proj, std::index_sequence<Idx...>>
: flatten_idxseq<std::conditional_t<Pred<Proj<std::tuple_element_t<Idx, Tpl>>>::value,
std::index_sequence<Idx>,
std::index_sequence<>>...> {};
#else
template<size_t Idx, class T, template<class...> class Pred, class SFINAE = void>
struct tuple_seq_single {
using type = std::index_sequence<>;
};
template<size_t Idx, class T, template<class...> class Pred>
struct tuple_seq_single<Idx, T, Pred, std::enable_if_t<Pred<T>::value>> {
using type = std::index_sequence<Idx>;
};
template<class Tpl, template<class...> class Pred, template<class...> class Proj, size_t... Idx>
struct filter_tuple_sequence<Tpl, Pred, Proj, std::index_sequence<Idx...>>
: flatten_idxseq<typename tuple_seq_single<Idx, Proj<std::tuple_element_t<Idx, Tpl>>, Pred>::type...> {};
#endif
template<class Tpl,
template<class...>
class Pred,
template<class...> class Proj = polyfill::type_identity_t,
class Seq = std::make_index_sequence<std::tuple_size<Tpl>::value>>
using filter_tuple_sequence_t = typename filter_tuple_sequence<Tpl, Pred, Proj, Seq>::type;
template<class Tpl,
template<class...>
class Pred,
template<class...> class FilterProj = polyfill::type_identity_t,
class Seq = std::make_index_sequence<std::tuple_size<Tpl>::value>>
using filter_tuple_t = tuple_from_index_sequence_t<Tpl, filter_tuple_sequence_t<Tpl, Pred, FilterProj, Seq>>;
template<class Tpl,
template<class...>
class Pred,
template<class...> class FilterProj = polyfill::type_identity_t>
struct count_tuple : std::integral_constant<int, filter_tuple_sequence_t<Tpl, Pred, FilterProj>::size()> {};
/*
* Count a tuple, picking only those elements specified in the index sequence.
*
* Implementation note: must be distinct from `count_tuple` because legacy compilers have problems
* with a default Sequence in function template parameters [SQLITE_ORM_BROKEN_VARIADIC_PACK_EXPANSION].
*/
template<class Tpl,
template<class...>
class Pred,
class Seq,
template<class...> class FilterProj = polyfill::type_identity_t>
struct count_filtered_tuple
: std::integral_constant<size_t, filter_tuple_sequence_t<Tpl, Pred, FilterProj, Seq>::size()> {};
}
}
// #include "type_traits.h"
// #include "collate_argument.h"
// #include "error_code.h"
// #include "table_type_of.h"
namespace sqlite_orm {
namespace internal {
template<class T, class F>
struct column_pointer;
template<class C>
struct indexed_column_t;
/**
* Trait class used to define table mapped type by setter/getter/member
* T - member pointer
* `type` is a type which is mapped.
* E.g.
* - `table_type_of<decltype(&User::id)>::type` is `User`
* - `table_type_of<decltype(&User::getName)>::type` is `User`
* - `table_type_of<decltype(&User::setName)>::type` is `User`
*/
template<class T>
struct table_type_of;
template<class O, class F>
struct table_type_of<F O::*> {
using type = O;
};
template<class T, class F>
struct table_type_of<column_pointer<T, F>> {
using type = T;
};
template<class C>
struct table_type_of<indexed_column_t<C>> {
using type = typename table_type_of<C>::type;
};
template<class T>
using table_type_of_t = typename table_type_of<T>::type;
}
}
// #include "type_printer.h"
namespace sqlite_orm {
namespace internal {
/**
* AUTOINCREMENT constraint class.
*/
struct autoincrement_t {};
enum class conflict_clause_t {
rollback,
abort,
fail,
ignore,
replace,
};
struct primary_key_base {
enum class order_by {
unspecified,
ascending,
descending,
};
struct {
order_by asc_option = order_by::unspecified;
conflict_clause_t conflict_clause = conflict_clause_t::rollback;
bool conflict_clause_is_on = false;
} options;
};
template<class T>
struct primary_key_with_autoincrement {
using primary_key_type = T;
primary_key_type primary_key;
primary_key_with_autoincrement(primary_key_type primary_key_) : primary_key(primary_key_) {}
};
/**
* PRIMARY KEY constraint class.
* Cs is parameter pack which contains columns (member pointers and/or function pointers). Can be empty when
* used within `make_column` function.
*/
template<class... Cs>
struct primary_key_t : primary_key_base {
using self = primary_key_t<Cs...>;
using order_by = primary_key_base::order_by;
using columns_tuple = std::tuple<Cs...>;
columns_tuple columns;
primary_key_t(decltype(columns) columns) : columns(std::move(columns)) {}
self asc() const {
auto res = *this;
res.options.asc_option = order_by::ascending;
return res;
}
self desc() const {
auto res = *this;
res.options.asc_option = order_by::descending;
return res;
}
primary_key_with_autoincrement<self> autoincrement() const {
return {*this};
}
self on_conflict_rollback() const {
auto res = *this;
res.options.conflict_clause_is_on = true;
res.options.conflict_clause = conflict_clause_t::rollback;
return res;
}
self on_conflict_abort() const {
auto res = *this;
res.options.conflict_clause_is_on = true;
res.options.conflict_clause = conflict_clause_t::abort;
return res;
}
self on_conflict_fail() const {
auto res = *this;
res.options.conflict_clause_is_on = true;
res.options.conflict_clause = conflict_clause_t::fail;
return res;
}
self on_conflict_ignore() const {
auto res = *this;
res.options.conflict_clause_is_on = true;
res.options.conflict_clause = conflict_clause_t::ignore;
return res;
}
self on_conflict_replace() const {
auto res = *this;
res.options.conflict_clause_is_on = true;
res.options.conflict_clause = conflict_clause_t::replace;
return res;
}
};
struct unique_base {
operator std::string() const {
return "UNIQUE";
}
};
/**
* UNIQUE constraint class.
*/
template<class... Args>
struct unique_t : unique_base {
using columns_tuple = std::tuple<Args...>;
columns_tuple columns;
unique_t(columns_tuple columns_) : columns(std::move(columns_)) {}
};
/**
* DEFAULT constraint class.
* T is a value type.
*/
template<class T>
struct default_t {
using value_type = T;
value_type value;
operator std::string() const {
return "DEFAULT";
}
};
#if SQLITE_VERSION_NUMBER >= 3006019
/**
* FOREIGN KEY constraint class.
* Cs are columns which has foreign key
* Rs are column which C references to
* Available in SQLite 3.6.19 or higher
*/
template<class A, class B>
struct foreign_key_t;
enum class foreign_key_action {
none, // not specified
no_action,
restrict_,
set_null,
set_default,
cascade,
};
inline std::ostream& operator<<(std::ostream& os, foreign_key_action action) {
switch(action) {
case foreign_key_action::no_action:
os << "NO ACTION";
break;
case foreign_key_action::restrict_:
os << "RESTRICT";
break;
case foreign_key_action::set_null:
os << "SET NULL";
break;
case foreign_key_action::set_default:
os << "SET DEFAULT";
break;
case foreign_key_action::cascade:
os << "CASCADE";
break;
case foreign_key_action::none:
break;
}
return os;
}
struct on_update_delete_base {
const bool update; // true if update and false if delete
operator std::string() const {
if(this->update) {
return "ON UPDATE";
} else {
return "ON DELETE";
}
}
};
/**
* F - foreign key class
*/
template<class F>
struct on_update_delete_t : on_update_delete_base {
using foreign_key_type = F;
const foreign_key_type& fk;
on_update_delete_t(decltype(fk) fk_, decltype(update) update_, foreign_key_action action_) :
on_update_delete_base{update_}, fk(fk_), _action(action_) {}
foreign_key_action _action = foreign_key_action::none;
foreign_key_type no_action() const {
auto res = this->fk;
if(update) {
res.on_update._action = foreign_key_action::no_action;
} else {
res.on_delete._action = foreign_key_action::no_action;
}
return res;
}
foreign_key_type restrict_() const {
auto res = this->fk;
if(update) {
res.on_update._action = foreign_key_action::restrict_;
} else {
res.on_delete._action = foreign_key_action::restrict_;
}
return res;
}
foreign_key_type set_null() const {
auto res = this->fk;
if(update) {
res.on_update._action = foreign_key_action::set_null;
} else {
res.on_delete._action = foreign_key_action::set_null;
}
return res;
}
foreign_key_type set_default() const {
auto res = this->fk;
if(update) {
res.on_update._action = foreign_key_action::set_default;
} else {
res.on_delete._action = foreign_key_action::set_default;
}
return res;
}
foreign_key_type cascade() const {
auto res = this->fk;
if(update) {
res.on_update._action = foreign_key_action::cascade;
} else {
res.on_delete._action = foreign_key_action::cascade;
}
return res;
}
operator bool() const {
return this->_action != foreign_key_action::none;
}
};
template<class F>
bool operator==(const on_update_delete_t<F>& lhs, const on_update_delete_t<F>& rhs) {
return lhs._action == rhs._action;
}
template<class... Cs, class... Rs>
struct foreign_key_t<std::tuple<Cs...>, std::tuple<Rs...>> {
using columns_type = std::tuple<Cs...>;
using references_type = std::tuple<Rs...>;
using self = foreign_key_t<columns_type, references_type>;
/**
* Holds obect type of all referenced columns.
*/
using target_type = typename same_or_void<table_type_of_t<Rs>...>::type;
/**
* Holds obect type of all source columns.
*/
using source_type = typename same_or_void<table_type_of_t<Cs>...>::type;
columns_type columns;
references_type references;
on_update_delete_t<self> on_update;
on_update_delete_t<self> on_delete;
static_assert(std::tuple_size<columns_type>::value == std::tuple_size<references_type>::value,
"Columns size must be equal to references tuple");
static_assert(!std::is_same<target_type, void>::value, "All references must have the same type");
foreign_key_t(columns_type columns_, references_type references_) :
columns(std::move(columns_)), references(std::move(references_)),
on_update(*this, true, foreign_key_action::none), on_delete(*this, false, foreign_key_action::none) {}
foreign_key_t(const self& other) :
columns(other.columns), references(other.references), on_update(*this, true, other.on_update._action),
on_delete(*this, false, other.on_delete._action) {}
self& operator=(const self& other) {
this->columns = other.columns;
this->references = other.references;
this->on_update = {*this, true, other.on_update._action};
this->on_delete = {*this, false, other.on_delete._action};
return *this;
}
};
template<class A, class B>
bool operator==(const foreign_key_t<A, B>& lhs, const foreign_key_t<A, B>& rhs) {
return lhs.columns == rhs.columns && lhs.references == rhs.references && lhs.on_update == rhs.on_update &&
lhs.on_delete == rhs.on_delete;
}
/**
* Cs can be a class member pointer, a getter function member pointer or setter
* func member pointer
* Available in SQLite 3.6.19 or higher
*/
template<class... Cs>
struct foreign_key_intermediate_t {
using tuple_type = std::tuple<Cs...>;
tuple_type columns;
template<class... Rs>
foreign_key_t<std::tuple<Cs...>, std::tuple<Rs...>> references(Rs... refs) {
return {std::move(this->columns), std::make_tuple(std::forward<Rs>(refs)...)};
}
};
#endif
struct collate_constraint_t {
collate_argument argument = collate_argument::binary;
#ifndef SQLITE_ORM_AGGREGATE_NSDMI_SUPPORTED
collate_constraint_t(collate_argument argument) : argument{argument} {}
#endif
operator std::string() const {
return "COLLATE " + this->string_from_collate_argument(this->argument);
}
static std::string string_from_collate_argument(collate_argument argument) {
switch(argument) {
case collate_argument::binary:
return "BINARY";
case collate_argument::nocase:
return "NOCASE";
case collate_argument::rtrim:
return "RTRIM";
}
throw std::system_error{orm_error_code::invalid_collate_argument_enum};
}
};
template<class T>
struct check_t {
using expression_type = T;
expression_type expression;
};
struct basic_generated_always {
enum class storage_type {
not_specified,
virtual_,
stored,
};
bool full = true;
storage_type storage = storage_type::not_specified;
#ifndef SQLITE_ORM_AGGREGATE_NSDMI_SUPPORTED
basic_generated_always(bool full, storage_type storage) : full{full}, storage{storage} {}
#endif
};
template<class T>
struct generated_always_t : basic_generated_always {
using expression_type = T;
expression_type expression;
generated_always_t(expression_type expression_, bool full, storage_type storage) :
basic_generated_always{full, storage}, expression(std::move(expression_)) {}
generated_always_t<T> virtual_() {
return {std::move(this->expression), this->full, storage_type::virtual_};
}
generated_always_t<T> stored() {
return {std::move(this->expression), this->full, storage_type::stored};
}
};
}
namespace internal {
template<class T>
SQLITE_ORM_INLINE_VAR constexpr bool is_foreign_key_v = polyfill::is_specialization_of_v<T, foreign_key_t>;
template<class T>
using is_foreign_key = polyfill::bool_constant<is_foreign_key_v<T>>;
template<class T>
struct is_primary_key : std::false_type {};
template<class... Cs>
struct is_primary_key<primary_key_t<Cs...>> : std::true_type {};
template<class T>
struct is_primary_key<primary_key_with_autoincrement<T>> : std::true_type {};
template<class T>
SQLITE_ORM_INLINE_VAR constexpr bool is_primary_key_v = is_primary_key<T>::value;
template<class T>
using is_generated_always = polyfill::is_specialization_of<T, generated_always_t>;
template<class T>
SQLITE_ORM_INLINE_VAR constexpr bool is_generated_always_v = is_generated_always<T>::value;
template<class T>
using is_autoincrement = std::is_same<T, autoincrement_t>;
template<class T>
SQLITE_ORM_INLINE_VAR constexpr bool is_autoincrement_v = is_autoincrement<T>::value;
/**
* PRIMARY KEY INSERTABLE traits.
*/
template<typename T>
struct is_primary_key_insertable
: polyfill::disjunction<
mpl::instantiate<mpl::disjunction<check_if_tuple_has<is_autoincrement>,
check_if_tuple_has_template<default_t>,
check_if_tuple_has_template<primary_key_with_autoincrement>>,
constraints_type_t<T>>,
std::is_base_of<integer_printer, type_printer<field_type_t<T>>>> {
static_assert(tuple_has<is_primary_key, constraints_type_t<T>>::value, "an unexpected type was passed");
};
template<class T>
using is_constraint =
mpl::instantiate<mpl::disjunction<check_if<is_autoincrement>,
check_if<is_primary_key>,
check_if<is_foreign_key>,
check_if_is_template<unique_t>,
check_if_is_template<default_t>,
check_if_is_template<check_t>,
check_if_is_template<primary_key_with_autoincrement>,
check_if_is_type<collate_constraint_t>,
#if SQLITE_VERSION_NUMBER >= 3031000
check_if<is_generated_always>,
#endif
// dummy tail because of SQLITE_VERSION_NUMBER checks above
mpl::always<std::false_type>>,
T>;
}
#if SQLITE_VERSION_NUMBER >= 3031000
template<class T>
internal::generated_always_t<T> generated_always_as(T expression) {
return {std::move(expression), true, internal::basic_generated_always::storage_type::not_specified};
}
template<class T>
internal::generated_always_t<T> as(T expression) {
return {std::move(expression), false, internal::basic_generated_always::storage_type::not_specified};
}
#endif
#if SQLITE_VERSION_NUMBER >= 3006019
/**
* FOREIGN KEY constraint construction function that takes member pointer as argument
* Available in SQLite 3.6.19 or higher
*/
template<class... Cs>
internal::foreign_key_intermediate_t<Cs...> foreign_key(Cs... columns) {
return {std::make_tuple(std::forward<Cs>(columns)...)};
}
#endif
/**
* UNIQUE constraint builder function.
*/
template<class... Args>
internal::unique_t<Args...> unique(Args... args) {
return {std::make_tuple(std::forward<Args>(args)...)};
}
inline internal::unique_t<> unique() {
return {{}};
}
/**
* AUTOINCREMENT keyword. [Deprecation notice] Use `primary_key().autoincrement()` instead of using this function.
* This function will be removed in 1.9
*/
[[deprecated("Use primary_key().autoincrement()` instead")]] inline internal::autoincrement_t autoincrement() {
return {};
}
template<class... Cs>
internal::primary_key_t<Cs...> primary_key(Cs... cs) {
return {std::make_tuple(std::forward<Cs>(cs)...)};
}
inline internal::primary_key_t<> primary_key() {
return {{}};
}
template<class T>
internal::default_t<T> default_value(T t) {
return {std::move(t)};
}
inline internal::collate_constraint_t collate_nocase() {
return {internal::collate_argument::nocase};
}
inline internal::collate_constraint_t collate_binary() {
return {internal::collate_argument::binary};
}
inline internal::collate_constraint_t collate_rtrim() {
return {internal::collate_argument::rtrim};
}
template<class T>
internal::check_t<T> check(T t) {
return {std::move(t)};
}
}
#pragma once
#include <type_traits> // std::false_type, std::true_type, std::enable_if
#include <memory> // std::shared_ptr, std::unique_ptr
// #include "functional/cxx_optional.h"
// #include "functional/cxx_type_traits_polyfill.h"
namespace sqlite_orm {
/**
* This is class that tells `sqlite_orm` that type is nullable. Nullable types
* are mapped to sqlite database as `NULL` and not-nullable are mapped as `NOT NULL`.
* Default nullability status for all types is `NOT NULL`. So if you want to map
* custom type as `NULL` (for example: boost::optional) you have to create a specialiation
* of type_is_nullable for your type and derive from `std::true_type`.
*/
template<class T, class SFINAE = void>
struct type_is_nullable : std::false_type {
bool operator()(const T&) const {
return true;
}
};
/**
* This is a specialization for std::shared_ptr, std::unique_ptr, std::optional, which are nullable in sqlite_orm.
*/
template<class T>
struct type_is_nullable<T,
std::enable_if_t<polyfill::disjunction_v<
#ifdef SQLITE_ORM_OPTIONAL_SUPPORTED
polyfill::is_specialization_of<T, std::optional>,
#endif
polyfill::is_specialization_of<T, std::unique_ptr>,
polyfill::is_specialization_of<T, std::shared_ptr>>>> : std::true_type {
bool operator()(const T& t) const {
return static_cast<bool>(t);
}
};
}
#pragma once
#include <type_traits> // std::false_type, std::true_type
#include <utility> // std::move
// #include "functional/cxx_optional.h"
// #include "tags.h"
namespace sqlite_orm {
namespace internal {
struct negatable_t {};
/**
* Inherit from this class if target class can be chained with other conditions with '&&' and '||' operators
*/
struct condition_t {};
}
}
// #include "serialize_result_type.h"
// #include "functional/cxx_string_view.h"
// #include "cxx_core_features.h"
#if SQLITE_ORM_HAS_INCLUDE(<string_view>)
#include <string_view>
#endif
#if __cpp_lib_string_view >= 201606L
#define SQLITE_ORM_STRING_VIEW_SUPPORTED
#endif
#ifndef SQLITE_ORM_STRING_VIEW_SUPPORTED
#include <string> // std::string
#endif
namespace sqlite_orm {
namespace internal {
#ifdef SQLITE_ORM_STRING_VIEW_SUPPORTED
using serialize_result_type = std::string_view;
using serialize_arg_type = std::string_view;
#else
using serialize_result_type = std::string;
using serialize_arg_type = const std::string&;
#endif
}
}
namespace sqlite_orm {
namespace internal {
/**
* Inherit this class to support arithmetic types overloading
*/
struct arithmetic_t {};
template<class L, class R, class... Ds>
struct binary_operator : Ds... {
using left_type = L;
using right_type = R;
left_type lhs;
right_type rhs;
binary_operator(left_type lhs_, right_type rhs_) : lhs(std::move(lhs_)), rhs(std::move(rhs_)) {}
};
struct conc_string {
serialize_result_type serialize() const {
return "||";
}
};
/**
* Result of concatenation || operator
*/
template<class L, class R>
using conc_t = binary_operator<L, R, conc_string>;
struct add_string {
serialize_result_type serialize() const {
return "+";
}
};
/**
* Result of addition + operator
*/
template<class L, class R>
using add_t = binary_operator<L, R, add_string, arithmetic_t, negatable_t>;
struct sub_string {
serialize_result_type serialize() const {
return "-";
}
};
/**
* Result of substitute - operator
*/
template<class L, class R>
using sub_t = binary_operator<L, R, sub_string, arithmetic_t, negatable_t>;
struct mul_string {
serialize_result_type serialize() const {
return "*";
}
};
/**
* Result of multiply * operator
*/
template<class L, class R>
using mul_t = binary_operator<L, R, mul_string, arithmetic_t, negatable_t>;
struct div_string {
serialize_result_type serialize() const {
return "/";
}
};
/**
* Result of divide / operator
*/
template<class L, class R>
using div_t = binary_operator<L, R, div_string, arithmetic_t, negatable_t>;
struct mod_operator_string {
serialize_result_type serialize() const {
return "%";
}
};
/**
* Result of mod % operator
*/
template<class L, class R>
using mod_t = binary_operator<L, R, mod_operator_string, arithmetic_t, negatable_t>;
struct bitwise_shift_left_string {
serialize_result_type serialize() const {
return "<<";
}
};
/**
* Result of bitwise shift left << operator
*/
template<class L, class R>
using bitwise_shift_left_t = binary_operator<L, R, bitwise_shift_left_string, arithmetic_t, negatable_t>;
struct bitwise_shift_right_string {
serialize_result_type serialize() const {
return ">>";
}
};
/**
* Result of bitwise shift right >> operator
*/
template<class L, class R>
using bitwise_shift_right_t = binary_operator<L, R, bitwise_shift_right_string, arithmetic_t, negatable_t>;
struct bitwise_and_string {
serialize_result_type serialize() const {
return "&";
}
};
/**
* Result of bitwise and & operator
*/
template<class L, class R>
using bitwise_and_t = binary_operator<L, R, bitwise_and_string, arithmetic_t, negatable_t>;
struct bitwise_or_string {
serialize_result_type serialize() const {
return "|";
}
};
/**
* Result of bitwise or | operator
*/
template<class L, class R>
using bitwise_or_t = binary_operator<L, R, bitwise_or_string, arithmetic_t, negatable_t>;
struct bitwise_not_string {
serialize_result_type serialize() const {
return "~";
}
};
/**
* Result of bitwise not ~ operator
*/
template<class T>
struct bitwise_not_t : bitwise_not_string, arithmetic_t, negatable_t {
using argument_type = T;
argument_type argument;
bitwise_not_t(argument_type argument_) : argument(std::move(argument_)) {}
};
struct assign_string {
serialize_result_type serialize() const {
return "=";
}
};
/**
* Result of assign = operator
*/
template<class L, class R>
using assign_t = binary_operator<L, R, assign_string>;
/**
* Assign operator traits. Common case
*/
template<class T>
struct is_assign_t : public std::false_type {};
/**
* Assign operator traits. Specialized case
*/
template<class L, class R>
struct is_assign_t<assign_t<L, R>> : public std::true_type {};
template<class L, class... Args>
struct in_t;
}
/**
* Public interface for || concatenation operator. Example: `select(conc(&User::name, "@gmail.com"));` => SELECT
* name || '@gmail.com' FROM users
*/
template<class L, class R>
internal::conc_t<L, R> conc(L l, R r) {
return {std::move(l), std::move(r)};
}
/**
* Public interface for + operator. Example: `select(add(&User::age, 100));` => SELECT age + 100 FROM users
*/
template<class L, class R>
internal::add_t<L, R> add(L l, R r) {
return {std::move(l), std::move(r)};
}
/**
* Public interface for - operator. Example: `select(sub(&User::age, 1));` => SELECT age - 1 FROM users
*/
template<class L, class R>
internal::sub_t<L, R> sub(L l, R r) {
return {std::move(l), std::move(r)};
}
/**
* Public interface for * operator. Example: `select(mul(&User::salary, 2));` => SELECT salary * 2 FROM users
*/
template<class L, class R>
internal::mul_t<L, R> mul(L l, R r) {
return {std::move(l), std::move(r)};
}
/**
* Public interface for / operator. Example: `select(div(&User::salary, 3));` => SELECT salary / 3 FROM users
* @note Please notice that ::div function already exists in pure C standard library inside <cstdlib> header.
* If you use `using namespace sqlite_orm` directive you an specify which `div` you call explicitly using `::div` or `sqlite_orm::div` statements.
*/
template<class L, class R>
internal::div_t<L, R> div(L l, R r) {
return {std::move(l), std::move(r)};
}
/**
* Public interface for % operator. Example: `select(mod(&User::age, 5));` => SELECT age % 5 FROM users
*/
template<class L, class R>
internal::mod_t<L, R> mod(L l, R r) {
return {std::move(l), std::move(r)};
}
template<class L, class R>
internal::bitwise_shift_left_t<L, R> bitwise_shift_left(L l, R r) {
return {std::move(l), std::move(r)};
}
template<class L, class R>
internal::bitwise_shift_right_t<L, R> bitwise_shift_right(L l, R r) {
return {std::move(l), std::move(r)};
}
template<class L, class R>
internal::bitwise_and_t<L, R> bitwise_and(L l, R r) {
return {std::move(l), std::move(r)};
}
template<class L, class R>
internal::bitwise_or_t<L, R> bitwise_or(L l, R r) {
return {std::move(l), std::move(r)};
}
template<class T>
internal::bitwise_not_t<T> bitwise_not(T t) {
return {std::move(t)};
}
template<class L, class R>
internal::assign_t<L, R> assign(L l, R r) {
return {std::move(l), std::move(r)};
}
}
#pragma once
#include <tuple> // std::tuple
#include <string> // std::string
#include <memory> // std::unique_ptr
#include <type_traits> // std::is_same, std::is_member_object_pointer
// #include "functional/cxx_universal.h"
// #include "functional/cxx_type_traits_polyfill.h"
// #include "tuple_helper/tuple_traits.h"
// #include "tuple_helper/tuple_filter.h"
// #include "type_traits.h"
// #include "member_traits/member_traits.h"
#include <type_traits> // std::enable_if, std::is_function, std::true_type, std::false_type
// #include "../functional/cxx_universal.h"
// #include "../functional/cxx_type_traits_polyfill.h"
namespace sqlite_orm {
namespace internal {
// SFINAE friendly trait to get a member object pointer's field type
template<class T>
struct object_field_type {};
template<class T>
using object_field_type_t = typename object_field_type<T>::type;
template<class F, class O>
struct object_field_type<F O::*> : std::enable_if<!std::is_function<F>::value, F> {};
// SFINAE friendly trait to get a member function pointer's field type (i.e. unqualified return type)
template<class T>
struct getter_field_type {};
template<class T>
using getter_field_type_t = typename getter_field_type<T>::type;
template<class T, class O>
struct getter_field_type<T O::*> : getter_field_type<T> {};
template<class F>
struct getter_field_type<F(void) const> : polyfill::remove_cvref<F> {};
template<class F>
struct getter_field_type<F(void)> : polyfill::remove_cvref<F> {};
#ifdef SQLITE_ORM_NOTHROW_ALIASES_SUPPORTED
template<class F>
struct getter_field_type<F(void) const noexcept> : polyfill::remove_cvref<F> {};
template<class F>
struct getter_field_type<F(void) noexcept> : polyfill::remove_cvref<F> {};
#endif
// SFINAE friendly trait to get a member function pointer's field type (i.e. unqualified parameter type)
template<class T>
struct setter_field_type {};
template<class T>
using setter_field_type_t = typename setter_field_type<T>::type;
template<class T, class O>
struct setter_field_type<T O::*> : setter_field_type<T> {};
template<class F>
struct setter_field_type<void(F)> : polyfill::remove_cvref<F> {};
#ifdef SQLITE_ORM_NOTHROW_ALIASES_SUPPORTED
template<class F>
struct setter_field_type<void(F) noexcept> : polyfill::remove_cvref<F> {};
#endif
template<class T, class SFINAE = void>
struct is_getter : std::false_type {};
template<class T>
struct is_getter<T, polyfill::void_t<getter_field_type_t<T>>> : std::true_type {};
template<class T>
SQLITE_ORM_INLINE_VAR constexpr bool is_getter_v = is_getter<T>::value;
template<class T, class SFINAE = void>
struct is_setter : std::false_type {};
template<class T>
struct is_setter<T, polyfill::void_t<setter_field_type_t<T>>> : std::true_type {};
template<class T>
SQLITE_ORM_INLINE_VAR constexpr bool is_setter_v = is_setter<T>::value;
template<class T>
struct member_field_type : object_field_type<T>, getter_field_type<T>, setter_field_type<T> {};
template<class T>
using member_field_type_t = typename member_field_type<T>::type;
template<class T>
struct member_object_type {};
template<class F, class O>
struct member_object_type<F O::*> : polyfill::type_identity<O> {};
template<class T>
using member_object_type_t = typename member_object_type<T>::type;
}
}
// #include "type_is_nullable.h"
// #include "constraints.h"
namespace sqlite_orm {
namespace internal {
struct column_identifier {
/**
* Column name.
*/
std::string name;
};
struct empty_setter {};
/*
* Encapsulates object member pointers that are used as column fields,
* and whose object is mapped to storage.
*
* G is a member object pointer or member function pointer
* S is a member function pointer or `empty_setter`
*/
template<class G, class S>
struct column_field {
using member_pointer_t = G;
using setter_type = S;
using object_type = member_object_type_t<G>;
using field_type = member_field_type_t<G>;
/**
* Member pointer used to read a field value.
* If it is a object member pointer it is also used to write a field value.
*/
const member_pointer_t member_pointer;
/**
* Setter member function to write a field value
*/
SQLITE_ORM_NOUNIQUEADDRESS
const setter_type setter;
/**
* Simplified interface for `NOT NULL` constraint
*/
constexpr bool is_not_null() const {
return !type_is_nullable<field_type>::value;
}
};
/*
* Encapsulates a tuple of column constraints.
*
* Op... is a constraints pack, e.g. primary_key_t, unique_t etc
*/
template<class... Op>
struct column_constraints {
using constraints_type = std::tuple<Op...>;
SQLITE_ORM_NOUNIQUEADDRESS
constraints_type constraints;
/**
* Checks whether contraints are of trait `Trait`
*/
template<template<class...> class Trait>
constexpr bool is() const {
return tuple_has<Trait, constraints_type>::value;
}
constexpr bool is_generated() const {
#if SQLITE_VERSION_NUMBER >= 3031000
return is<is_generated_always>();
#else
return false;
#endif
}
/**
* Simplified interface for `DEFAULT` constraint
* @return string representation of default value if it exists otherwise nullptr
*/
std::unique_ptr<std::string> default_value() const;
};
/**
* Column definition.
*
* It is a composition of orthogonal information stored in different base classes.
*/
template<class G, class S, class... Op>
struct column_t : column_identifier, column_field<G, S>, column_constraints<Op...> {
#ifndef SQLITE_ORM_AGGREGATE_BASES_SUPPORTED
column_t(std::string name, G memberPointer, S setter, std::tuple<Op...> op) :
column_identifier{std::move(name)}, column_field<G, S>{memberPointer, setter},
column_constraints<Op...>{std::move(op)} {}
#endif
};
template<class T>
SQLITE_ORM_INLINE_VAR constexpr bool is_column_v = polyfill::is_specialization_of_v<T, column_t>;
template<class T>
using is_column = polyfill::bool_constant<is_column_v<T>>;
template<class Elements, class F>
using col_index_sequence_with_field_type =
filter_tuple_sequence_t<Elements,
check_if_is_type<F>::template fn,
field_type_t,
filter_tuple_sequence_t<Elements, is_column>>;
template<class Elements, template<class...> class TraitFn>
using col_index_sequence_with = filter_tuple_sequence_t<Elements,
check_if_tuple_has<TraitFn>::template fn,
constraints_type_t,
filter_tuple_sequence_t<Elements, is_column>>;
template<class Elements, template<class...> class TraitFn>
using col_index_sequence_excluding = filter_tuple_sequence_t<Elements,
check_if_tuple_has_not<TraitFn>::template fn,
constraints_type_t,
filter_tuple_sequence_t<Elements, is_column>>;
}
/**
* Column builder function. You should use it to create columns instead of constructor
*/
template<class M, class... Op, internal::satisfies<std::is_member_object_pointer, M> = true>
internal::column_t<M, internal::empty_setter, Op...> make_column(std::string name, M m, Op... constraints) {
static_assert(polyfill::conjunction_v<internal::is_constraint<Op>...>, "Incorrect constraints pack");
SQLITE_ORM_CLANG_SUPPRESS_MISSING_BRACES(return {std::move(name), m, {}, std::make_tuple(constraints...)});
}
/**
* Column builder function with setter and getter. You should use it to create columns instead of constructor
*/
template<class G,
class S,
class... Op,
internal::satisfies<internal::is_getter, G> = true,
internal::satisfies<internal::is_setter, S> = true>
internal::column_t<G, S, Op...> make_column(std::string name, S setter, G getter, Op... constraints) {
static_assert(std::is_same<internal::setter_field_type_t<S>, internal::getter_field_type_t<G>>::value,
"Getter and setter must get and set same data type");
static_assert(polyfill::conjunction_v<internal::is_constraint<Op>...>, "Incorrect constraints pack");
SQLITE_ORM_CLANG_SUPPRESS_MISSING_BRACES(
return {std::move(name), getter, setter, std::make_tuple(constraints...)});
}
/**
* Column builder function with getter and setter (reverse order). You should use it to create columns instead of
* constructor
*/
template<class G,
class S,
class... Op,
internal::satisfies<internal::is_getter, G> = true,
internal::satisfies<internal::is_setter, S> = true>
internal::column_t<G, S, Op...> make_column(std::string name, G getter, S setter, Op... constraints) {
static_assert(std::is_same<internal::setter_field_type_t<S>, internal::getter_field_type_t<G>>::value,
"Getter and setter must get and set same data type");
static_assert(polyfill::conjunction_v<internal::is_constraint<Op>...>, "Incorrect constraints pack");
SQLITE_ORM_CLANG_SUPPRESS_MISSING_BRACES(
return {std::move(name), getter, setter, std::make_tuple(constraints...)});
}
}
#pragma once
#include <locale> // std::wstring_convert
#include <string> // std::string
#include <sstream> // std::stringstream
#include <vector> // std::vector
#include <memory> // std::shared_ptr, std::unique_ptr
#ifndef SQLITE_ORM_OMITS_CODECVT
#include <codecvt> // std::codecvt_utf8_utf16
#endif // SQLITE_ORM_OMITS_CODECVT
// #include "functional/cxx_optional.h"
// #include "functional/cxx_universal.h"
// #include "functional/cxx_type_traits_polyfill.h"
// #include "is_std_ptr.h"
namespace sqlite_orm {
/**
* Is used to print members mapped to objects in storage_t::dump member function.
* Other developers can create own specialization to map custom types
*/
template<class T, typename SFINAE = void>
struct field_printer;
namespace internal {
template<class T, class SFINAE = void>
SQLITE_ORM_INLINE_VAR constexpr bool is_printable_v = false;
template<class T>
SQLITE_ORM_INLINE_VAR constexpr bool is_printable_v<T, polyfill::void_t<decltype(field_printer<T>{})>> = true
// Also see implementation note for `is_bindable_v`
;
template<class T>
using is_printable = polyfill::bool_constant<is_printable_v<T>>;
}
template<class T>
struct field_printer<T, std::enable_if_t<std::is_arithmetic<T>::value>> {
std::string operator()(const T& t) const {
std::stringstream ss;
ss << t;
return ss.str();
}
};
/**
* Upgrade to integer is required when using unsigned char(uint8_t)
*/
template<>
struct field_printer<unsigned char, void> {
std::string operator()(const unsigned char& t) const {
std::stringstream ss;
ss << +t;
return ss.str();
}
};
/**
* Upgrade to integer is required when using signed char(int8_t)
*/
template<>
struct field_printer<signed char, void> {
std::string operator()(const signed char& t) const {
std::stringstream ss;
ss << +t;
return ss.str();
}
};
/**
* char is neither signed char nor unsigned char so it has its own specialization
*/
template<>
struct field_printer<char, void> {
std::string operator()(const char& t) const {
std::stringstream ss;
ss << +t;
return ss.str();
}
};
template<class T>
struct field_printer<T, std::enable_if_t<std::is_base_of<std::string, T>::value>> {
std::string operator()(std::string string) const {
return string;
}
};
template<>
struct field_printer<std::vector<char>, void> {
std::string operator()(const std::vector<char>& t) const {
std::stringstream ss;
ss << std::hex;
for(auto c: t) {
ss << c;
}
return ss.str();
}
};
#ifndef SQLITE_ORM_OMITS_CODECVT
/**
* Specialization for std::wstring (UTF-16 assumed).
*/
template<class T>
struct field_printer<T, std::enable_if_t<std::is_base_of<std::wstring, T>::value>> {
std::string operator()(const std::wstring& wideString) const {
std::wstring_convert<std::codecvt_utf8_utf16<wchar_t>> converter;
return converter.to_bytes(wideString);
}
};
#endif // SQLITE_ORM_OMITS_CODECVT
template<>
struct field_printer<nullptr_t, void> {
std::string operator()(const nullptr_t&) const {
return "null";
}
};
#ifdef SQLITE_ORM_OPTIONAL_SUPPORTED
template<>
struct field_printer<std::nullopt_t, void> {
std::string operator()(const std::nullopt_t&) const {
return "null";
}
};
#endif // SQLITE_ORM_OPTIONAL_SUPPORTED
template<class T>
struct field_printer<
T,
std::enable_if_t<polyfill::conjunction_v<is_std_ptr<T>,
internal::is_printable<std::remove_cv_t<typename T::element_type>>>>> {
using unqualified_type = std::remove_cv_t<typename T::element_type>;
std::string operator()(const T& t) const {
if(t) {
return field_printer<unqualified_type>()(*t);
} else {
return field_printer<nullptr_t>{}(nullptr);
}
}
};
#ifdef SQLITE_ORM_OPTIONAL_SUPPORTED
template<class T>
struct field_printer<
T,
std::enable_if_t<polyfill::conjunction_v<polyfill::is_specialization_of<T, std::optional>,
internal::is_printable<std::remove_cv_t<typename T::value_type>>>>> {
using unqualified_type = std::remove_cv_t<typename T::value_type>;
std::string operator()(const T& t) const {
if(t.has_value()) {
return field_printer<unqualified_type>()(*t);
} else {
return field_printer<std::nullopt_t>{}(std::nullopt);
}
}
};
#endif // SQLITE_ORM_OPTIONAL_SUPPORTED
}
#pragma once
#include <string> // std::string
#include <type_traits> // std::enable_if, std::is_same, std::remove_const
#include <vector> // std::vector
#include <tuple> // std::tuple
#include <sstream> // std::stringstream
// #include "functional/cxx_universal.h"
// #include "functional/cxx_type_traits_polyfill.h"
// #include "is_base_of_template.h"
#include <type_traits> // std::true_type, std::false_type, std::declval
namespace sqlite_orm {
namespace internal {
/*
* This is because of bug in MSVC, for more information, please visit
* https://stackoverflow.com/questions/34672441/stdis-base-of-for-template-classes/34672753#34672753
*/
#ifdef SQLITE_ORM_BROKEN_VARIADIC_PACK_EXPANSION
template<template<typename...> class Base>
struct is_base_of_template_impl {
template<typename... Ts>
static constexpr std::true_type test(const Base<Ts...>&);
static constexpr std::false_type test(...);
};
template<typename T, template<typename...> class C>
using is_base_of_template = decltype(is_base_of_template_impl<C>::test(std::declval<T>()));
#else
template<template<typename...> class C, typename... Ts>
std::true_type is_base_of_template_impl(const C<Ts...>&);
template<template<typename...> class C>
std::false_type is_base_of_template_impl(...);
template<typename T, template<typename...> class C>
using is_base_of_template = decltype(is_base_of_template_impl<C>(std::declval<T>()));
#endif
template<typename T, template<typename...> class C>
SQLITE_ORM_INLINE_VAR constexpr bool is_base_of_template_v = is_base_of_template<T, C>::value;
}
}
// #include "type_traits.h"
// #include "collate_argument.h"
// #include "constraints.h"
// #include "optional_container.h"
namespace sqlite_orm {
namespace internal {
/**
* This is a cute class which allows storing something or nothing
* depending on template argument. Useful for optional class members
*/
template<class T>
struct optional_container {
using type = T;
type field;
template<class L>
void apply(const L& l) const {
l(this->field);
}
};
template<>
struct optional_container<void> {
using type = void;
template<class L>
void apply(const L&) const {
//..
}
};
}
}
// #include "serializer_context.h"
namespace sqlite_orm {
namespace internal {
struct serializer_context_base {
bool replace_bindable_with_question = false;
bool skip_table_name = true;
bool use_parentheses = true;
};
template<class DBOs>
struct serializer_context : serializer_context_base {
using db_objects_type = DBOs;
const db_objects_type& db_objects;
serializer_context(const db_objects_type& dbObjects) : db_objects{dbObjects} {}
};
template<class S>
struct serializer_context_builder {
using storage_type = S;
using db_objects_type = typename storage_type::db_objects_type;
serializer_context_builder(const storage_type& storage_) : storage{storage_} {}
serializer_context<db_objects_type> operator()() const {
return {obtain_db_objects(this->storage)};
}
const storage_type& storage;
};
}
}
// #include "tags.h"
// #include "alias_traits.h"
#include <type_traits> // std::remove_const, std::is_base_of, std::is_same
// #include "functional/cxx_universal.h"
// #include "functional/cxx_type_traits_polyfill.h"
// #include "type_traits.h"
namespace sqlite_orm {
/** @short Base class for a custom table alias, column alias or expression alias.
*/
struct alias_tag {};
namespace internal {
template<class A>
SQLITE_ORM_INLINE_VAR constexpr bool is_alias_v = std::is_base_of<alias_tag, A>::value;
template<class A>
using is_alias = polyfill::bool_constant<is_alias_v<A>>;
/** @short Alias of a column in a record set, see `orm_column_alias`.
*/
template<class A>
SQLITE_ORM_INLINE_VAR constexpr bool is_column_alias_v =
polyfill::conjunction_v<is_alias<A>, polyfill::negation<polyfill::is_detected<type_t, A>>>;
template<class A>
using is_column_alias = is_alias<A>;
/** @short Alias of any type of record set, see `orm_recordset_alias`.
*/
template<class A>
SQLITE_ORM_INLINE_VAR constexpr bool is_recordset_alias_v =
polyfill::conjunction_v<is_alias<A>, polyfill::is_detected<type_t, A>>;
template<class A>
using is_recordset_alias = polyfill::bool_constant<is_recordset_alias_v<A>>;
/** @short Alias of a concrete table, see `orm_table_alias`.
*/
template<class A>
SQLITE_ORM_INLINE_VAR constexpr bool is_table_alias_v = polyfill::conjunction_v<
is_recordset_alias<A>,
polyfill::negation<std::is_same<polyfill::detected_t<type_t, A>, std::remove_const_t<A>>>>;
template<class A>
using is_table_alias = polyfill::bool_constant<is_table_alias_v<A>>;
}
}
// #include "expression.h"
#include <tuple>
#include <utility> // std::move, std::forward
// #include "functional/cxx_optional.h"
// #include "functional/cxx_universal.h"
// #include "operators.h"
namespace sqlite_orm {
namespace internal {
template<class L, class R>
struct and_condition_t;
template<class L, class R>
struct or_condition_t;
/**
* Is not an operator but a result of c(...) function. Has operator= overloaded which returns assign_t
*/
template<class T>
struct expression_t : condition_t {
T value;
expression_t(T value_) : value(std::move(value_)) {}
template<class R>
assign_t<T, R> operator=(R r) const {
return {this->value, std::move(r)};
}
assign_t<T, nullptr_t> operator=(nullptr_t) const {
return {this->value, nullptr};
}
#ifdef SQLITE_ORM_OPTIONAL_SUPPORTED
assign_t<T, std::nullopt_t> operator=(std::nullopt_t) const {
return {this->value, std::nullopt};
}
#endif
template<class... Args>
in_t<T, Args...> in(Args... args) const {
return {this->value, std::make_tuple(std::forward<Args>(args)...), false};
}
template<class... Args>
in_t<T, Args...> not_in(Args... args) const {
return {this->value, std::make_tuple(std::forward<Args>(args)...), true};
}
template<class R>
and_condition_t<T, R> and_(R right) const {
return {this->value, std::move(right)};
}
template<class R>
or_condition_t<T, R> or_(R right) const {
return {this->value, std::move(right)};
}
};
template<class T>
T get_from_expression(T value) {
return std::move(value);
}
template<class T>
T get_from_expression(expression_t<T> expression) {
return std::move(expression.value);
}
}
/**
* Public interface for syntax sugar for columns. Example: `where(c(&User::id) == 5)` or
* `storage.update(set(c(&User::name) = "Dua Lipa"));
*/
template<class T>
internal::expression_t<T> c(T value) {
return {std::move(value)};
}
}
// #include "type_printer.h"
// #include "literal.h"
namespace sqlite_orm {
namespace internal {
/*
* Protect an otherwise bindable element so that it is always serialized as a literal value.
*/
template<class T>
struct literal_holder {
using type = T;
type value;
};
}
}
namespace sqlite_orm {
namespace internal {
struct limit_string {
operator std::string() const {
return "LIMIT";
}
};
/**
* Stores LIMIT/OFFSET info
*/
template<class T, bool has_offset, bool offset_is_implicit, class O>
struct limit_t : limit_string {
T lim;
optional_container<O> off;
limit_t() = default;
limit_t(decltype(lim) lim_) : lim(std::move(lim_)) {}
limit_t(decltype(lim) lim_, decltype(off) off_) : lim(std::move(lim_)), off(std::move(off_)) {}
};
template<class T>
struct is_limit : std::false_type {};
template<class T, bool has_offset, bool offset_is_implicit, class O>
struct is_limit<limit_t<T, has_offset, offset_is_implicit, O>> : std::true_type {};
/**
* Stores OFFSET only info
*/
template<class T>
struct offset_t {
T off;
};
template<class T>
using is_offset = polyfill::is_specialization_of<T, offset_t>;
/**
* Collated something
*/
template<class T>
struct collate_t : public condition_t {
T expr;
collate_argument argument;
collate_t(T expr_, collate_argument argument_) : expr(std::move(expr_)), argument(argument_) {}
operator std::string() const {
return collate_constraint_t{this->argument};
}
};
struct named_collate_base {
std::string name;
operator std::string() const {
return "COLLATE " + this->name;
}
};
/**
* Collated something with custom collate function
*/
template<class T>
struct named_collate : named_collate_base {
T expr;
named_collate(T expr_, std::string name_) : named_collate_base{std::move(name_)}, expr(std::move(expr_)) {}
};
struct negated_condition_string {
operator std::string() const {
return "NOT";
}
};
/**
* Result of not operator
*/
template<class C>
struct negated_condition_t : condition_t, negated_condition_string {
C c;
negated_condition_t(C c_) : c(std::move(c_)) {}
};
/**
* Base class for binary conditions
* L is left argument type
* R is right argument type
* S is 'string' class (a class which has cast to `std::string` operator)
* Res is result type
*/
template<class L, class R, class S, class Res>
struct binary_condition : condition_t, S {
using left_type = L;
using right_type = R;
using result_type = Res;
left_type l;
right_type r;
binary_condition() = default;
binary_condition(left_type l_, right_type r_) : l(std::move(l_)), r(std::move(r_)) {}
};
template<class T>
SQLITE_ORM_INLINE_VAR constexpr bool is_binary_condition_v = is_base_of_template_v<T, binary_condition>;
template<class T>
using is_binary_condition = polyfill::bool_constant<is_binary_condition_v<T>>;
struct and_condition_string {
operator std::string() const {
return "AND";
}
};
/**
* Result of and operator
*/
template<class L, class R>
struct and_condition_t : binary_condition<L, R, and_condition_string, bool> {
using super = binary_condition<L, R, and_condition_string, bool>;
using super::super;
};
template<class L, class R>
and_condition_t<L, R> make_and_condition(L left, R right) {
return {std::move(left), std::move(right)};
}
struct or_condition_string {
operator std::string() const {
return "OR";
}
};
/**
* Result of or operator
*/
template<class L, class R>
struct or_condition_t : binary_condition<L, R, or_condition_string, bool> {
using super = binary_condition<L, R, or_condition_string, bool>;
using super::super;
};
template<class L, class R>
or_condition_t<L, R> make_or_condition(L left, R right) {
return {std::move(left), std::move(right)};
}
struct is_equal_string {
operator std::string() const {
return "=";
}
};
/**
* = and == operators object
*/
template<class L, class R>
struct is_equal_t : binary_condition<L, R, is_equal_string, bool>, negatable_t {
using self = is_equal_t<L, R>;
using binary_condition<L, R, is_equal_string, bool>::binary_condition;
collate_t<self> collate_binary() const {
return {*this, collate_argument::binary};
}
collate_t<self> collate_nocase() const {
return {*this, collate_argument::nocase};
}
collate_t<self> collate_rtrim() const {
return {*this, collate_argument::rtrim};
}
named_collate<self> collate(std::string name) const {
return {*this, std::move(name)};
}
template<class C>
named_collate<self> collate() const {
std::stringstream ss;
ss << C::name() << std::flush;
return {*this, ss.str()};
}
};
struct is_not_equal_string {
operator std::string() const {
return "!=";
}
};
/**
* != operator object
*/
template<class L, class R>
struct is_not_equal_t : binary_condition<L, R, is_not_equal_string, bool>, negatable_t {
using self = is_not_equal_t<L, R>;
using binary_condition<L, R, is_not_equal_string, bool>::binary_condition;
collate_t<self> collate_binary() const {
return {*this, collate_argument::binary};
}
collate_t<self> collate_nocase() const {
return {*this, collate_argument::nocase};
}
collate_t<self> collate_rtrim() const {
return {*this, collate_argument::rtrim};
}
};
struct greater_than_string {
operator std::string() const {
return ">";
}
};
/**
* > operator object.
*/
template<class L, class R>
struct greater_than_t : binary_condition<L, R, greater_than_string, bool>, negatable_t {
using self = greater_than_t<L, R>;
using binary_condition<L, R, greater_than_string, bool>::binary_condition;
collate_t<self> collate_binary() const {
return {*this, collate_argument::binary};
}
collate_t<self> collate_nocase() const {
return {*this, collate_argument::nocase};
}
collate_t<self> collate_rtrim() const {
return {*this, collate_argument::rtrim};
}
};
struct greater_or_equal_string {
operator std::string() const {
return ">=";
}
};
/**
* >= operator object.
*/
template<class L, class R>
struct greater_or_equal_t : binary_condition<L, R, greater_or_equal_string, bool>, negatable_t {
using self = greater_or_equal_t<L, R>;
using binary_condition<L, R, greater_or_equal_string, bool>::binary_condition;
collate_t<self> collate_binary() const {
return {*this, collate_argument::binary};
}
collate_t<self> collate_nocase() const {
return {*this, collate_argument::nocase};
}
collate_t<self> collate_rtrim() const {
return {*this, collate_argument::rtrim};
}
};
struct lesser_than_string {
operator std::string() const {
return "<";
}
};
/**
* < operator object.
*/
template<class L, class R>
struct lesser_than_t : binary_condition<L, R, lesser_than_string, bool>, negatable_t {
using self = lesser_than_t<L, R>;
using binary_condition<L, R, lesser_than_string, bool>::binary_condition;
collate_t<self> collate_binary() const {
return {*this, collate_argument::binary};
}
collate_t<self> collate_nocase() const {
return {*this, collate_argument::nocase};
}
collate_t<self> collate_rtrim() const {
return {*this, collate_argument::rtrim};
}
};
struct lesser_or_equal_string {
operator std::string() const {
return "<=";
}
};
/**
* <= operator object.
*/
template<class L, class R>
struct lesser_or_equal_t : binary_condition<L, R, lesser_or_equal_string, bool>, negatable_t {
using self = lesser_or_equal_t<L, R>;
using binary_condition<L, R, lesser_or_equal_string, bool>::binary_condition;
collate_t<self> collate_binary() const {
return {*this, collate_argument::binary};
}
collate_t<self> collate_nocase() const {
return {*this, collate_argument::nocase};
}
collate_t<self> collate_rtrim() const {
return {*this, collate_argument::rtrim};
}
};
struct in_base {
bool negative = false; // used in not_in
#ifndef SQLITE_ORM_AGGREGATE_NSDMI_SUPPORTED
in_base(bool negative) : negative{negative} {}
#endif
};
/**
* IN operator object.
*/
template<class L, class A>
struct dynamic_in_t : condition_t, in_base, negatable_t {
using self = dynamic_in_t<L, A>;
L left; // left expression
A argument; // in arg
dynamic_in_t(L left_, A argument_, bool negative_) :
in_base{negative_}, left(std::move(left_)), argument(std::move(argument_)) {}
};
template<class L, class... Args>
struct in_t : condition_t, in_base, negatable_t {
L left;
std::tuple<Args...> argument;
in_t(L left_, decltype(argument) argument_, bool negative_) :
in_base{negative_}, left(std::move(left_)), argument(std::move(argument_)) {}
};
struct is_null_string {
operator std::string() const {
return "IS NULL";
}
};
/**
* IS NULL operator object.
*/
template<class T>
struct is_null_t : is_null_string, negatable_t {
using self = is_null_t<T>;
T t;
is_null_t(T t_) : t(std::move(t_)) {}
};
struct is_not_null_string {
operator std::string() const {
return "IS NOT NULL";
}
};
/**
* IS NOT NULL operator object.
*/
template<class T>
struct is_not_null_t : is_not_null_string, negatable_t {
using self = is_not_null_t<T>;
T t;
is_not_null_t(T t_) : t(std::move(t_)) {}
};
struct order_by_base {
int asc_desc = 0; // 1: asc, -1: desc
std::string _collate_argument;
#ifndef SQLITE_ORM_AGGREGATE_NSDMI_SUPPORTED
order_by_base() = default;
order_by_base(decltype(asc_desc) asc_desc_, decltype(_collate_argument) _collate_argument_) :
asc_desc(asc_desc_), _collate_argument(std::move(_collate_argument_)) {}
#endif
};
struct order_by_string {
operator std::string() const {
return "ORDER BY";
}
};
/**
* ORDER BY argument holder.
*/
template<class O>
struct order_by_t : order_by_base, order_by_string {
using expression_type = O;
using self = order_by_t<expression_type>;
expression_type expression;
order_by_t(expression_type expression_) : order_by_base(), expression(std::move(expression_)) {}
self asc() const {
auto res = *this;
res.asc_desc = 1;
return res;
}
self desc() const {
auto res = *this;
res.asc_desc = -1;
return res;
}
self collate_binary() const {
auto res = *this;
res._collate_argument = collate_constraint_t::string_from_collate_argument(collate_argument::binary);
return res;
}
self collate_nocase() const {
auto res = *this;
res._collate_argument = collate_constraint_t::string_from_collate_argument(collate_argument::nocase);
return res;
}
self collate_rtrim() const {
auto res = *this;
res._collate_argument = collate_constraint_t::string_from_collate_argument(collate_argument::rtrim);
return res;
}
self collate(std::string name) const {
auto res = *this;
res._collate_argument = std::move(name);
return res;
}
template<class C>
self collate() const {
std::stringstream ss;
ss << C::name() << std::flush;
return this->collate(ss.str());
}
};
/**
* ORDER BY pack holder.
*/
template<class... Args>
struct multi_order_by_t : order_by_string {
using args_type = std::tuple<Args...>;
args_type args;
multi_order_by_t(args_type args_) : args{std::move(args_)} {}
};
struct dynamic_order_by_entry_t : order_by_base {
std::string name;
dynamic_order_by_entry_t(decltype(name) name_, int asc_desc_, std::string collate_argument_) :
order_by_base{asc_desc_, std::move(collate_argument_)}, name(std::move(name_)) {}
};
/**
* C - serializer context class
*/
template<class C>
struct dynamic_order_by_t : order_by_string {
using context_t = C;
using entry_t = dynamic_order_by_entry_t;
using const_iterator = typename std::vector<entry_t>::const_iterator;
dynamic_order_by_t(const context_t& context_) : context(context_) {}
template<class O>
void push_back(order_by_t<O> order_by) {
auto newContext = this->context;
newContext.skip_table_name = true;
auto columnName = serialize(order_by.expression, newContext);
this->entries.emplace_back(std::move(columnName),
order_by.asc_desc,
std::move(order_by._collate_argument));
}
const_iterator begin() const {
return this->entries.begin();
}
const_iterator end() const {
return this->entries.end();
}
void clear() {
this->entries.clear();
}
protected:
std::vector<entry_t> entries;
context_t context;
};
template<class T>
SQLITE_ORM_INLINE_VAR constexpr bool is_order_by_v =
polyfill::disjunction_v<polyfill::is_specialization_of<T, order_by_t>,
polyfill::is_specialization_of<T, multi_order_by_t>,
polyfill::is_specialization_of<T, dynamic_order_by_t>>;
template<class T>
using is_order_by = polyfill::bool_constant<is_order_by_v<T>>;
struct between_string {
operator std::string() const {
return "BETWEEN";
}
};
/**
* BETWEEN operator object.
*/
template<class A, class T>
struct between_t : condition_t, between_string {
using expression_type = A;
using lower_type = T;
using upper_type = T;
expression_type expr;
lower_type b1;
upper_type b2;
between_t(expression_type expr_, lower_type b1_, upper_type b2_) :
expr(std::move(expr_)), b1(std::move(b1_)), b2(std::move(b2_)) {}
};
struct like_string {
operator std::string() const {
return "LIKE";
}
};
/**
* LIKE operator object.
*/
template<class A, class T, class E>
struct like_t : condition_t, like_string, negatable_t {
using self = like_t<A, T, E>;
using arg_t = A;
using pattern_t = T;
using escape_t = E;
arg_t arg;
pattern_t pattern;
optional_container<escape_t> arg3; // not escape cause escape exists as a function here
like_t(arg_t arg_, pattern_t pattern_, optional_container<escape_t> escape_) :
arg(std::move(arg_)), pattern(std::move(pattern_)), arg3(std::move(escape_)) {}
template<class C>
like_t<A, T, C> escape(C c) const {
optional_container<C> newArg3{std::move(c)};
return {std::move(this->arg), std::move(this->pattern), std::move(newArg3)};
}
};
struct glob_string {
operator std::string() const {
return "GLOB";
}
};
template<class A, class T>
struct glob_t : condition_t, glob_string, internal::negatable_t {
using self = glob_t<A, T>;
using arg_t = A;
using pattern_t = T;
arg_t arg;
pattern_t pattern;
glob_t(arg_t arg_, pattern_t pattern_) : arg(std::move(arg_)), pattern(std::move(pattern_)) {}
};
struct cross_join_string {
operator std::string() const {
return "CROSS JOIN";
}
};
/**
* CROSS JOIN holder.
* T is joined type which represents any mapped table.
*/
template<class T>
struct cross_join_t : cross_join_string {
using type = T;
};
struct natural_join_string {
operator std::string() const {
return "NATURAL JOIN";
}
};
/**
* NATURAL JOIN holder.
* T is joined type which represents any mapped table.
*/
template<class T>
struct natural_join_t : natural_join_string {
using type = T;
};
struct left_join_string {
operator std::string() const {
return "LEFT JOIN";
}
};
/**
* LEFT JOIN holder.
* T is joined type which represents any mapped table.
* O is on(...) argument type.
*/
template<class T, class O>
struct left_join_t : left_join_string {
using type = T;
using on_type = O;
on_type constraint;
left_join_t(on_type constraint_) : constraint(std::move(constraint_)) {}
};
struct join_string {
operator std::string() const {
return "JOIN";
}
};
/**
* Simple JOIN holder.
* T is joined type which represents any mapped table.
* O is on(...) argument type.
*/
template<class T, class O>
struct join_t : join_string {
using type = T;
using on_type = O;
on_type constraint;
join_t(on_type constraint_) : constraint(std::move(constraint_)) {}
};
struct left_outer_join_string {
operator std::string() const {
return "LEFT OUTER JOIN";
}
};
/**
* LEFT OUTER JOIN holder.
* T is joined type which represents any mapped table.
* O is on(...) argument type.
*/
template<class T, class O>
struct left_outer_join_t : left_outer_join_string {
using type = T;
using on_type = O;
on_type constraint;
left_outer_join_t(on_type constraint_) : constraint(std::move(constraint_)) {}
};
struct on_string {
operator std::string() const {
return "ON";
}
};
/**
* on(...) argument holder used for JOIN, LEFT JOIN, LEFT OUTER JOIN and INNER JOIN
* T is on type argument.
*/
template<class T>
struct on_t : on_string {
using arg_type = T;
arg_type arg;
on_t(arg_type arg_) : arg(std::move(arg_)) {}
};
/**
* USING argument holder.
*/
template<class T, class M>
struct using_t {
column_pointer<T, M> column;
operator std::string() const {
return "USING";
}
};
struct inner_join_string {
operator std::string() const {
return "INNER JOIN";
}
};
/**
* INNER JOIN holder.
* T is joined type which represents any mapped table.
* O is on(...) argument type.
*/
template<class T, class O>
struct inner_join_t : inner_join_string {
using type = T;
using on_type = O;
on_type constraint;
inner_join_t(on_type constraint_) : constraint(std::move(constraint_)) {}
};
struct cast_string {
operator std::string() const {
return "CAST";
}
};
/**
* CAST holder.
* T is a type to cast to
* E is an expression type
* Example: cast<std::string>(&User::id)
*/
template<class T, class E>
struct cast_t : cast_string {
using to_type = T;
using expression_type = E;
expression_type expression;
cast_t(expression_type expression_) : expression(std::move(expression_)) {}
};
template<class... Args>
struct from_t {
using tuple_type = std::tuple<Args...>;
};
template<class T>
using is_from = polyfill::is_specialization_of<T, from_t>;
template<class T>
using is_constrained_join = polyfill::is_detected<on_type_t, T>;
}
/**
* Explicit FROM function. Usage:
* `storage.select(&User::id, from<User>());`
*/
template<class... Tables>
internal::from_t<Tables...> from() {
static_assert(sizeof...(Tables) > 0, "");
return {};
}
template<class T, internal::satisfies<std::is_base_of, internal::negatable_t, T> = true>
internal::negated_condition_t<T> operator!(T arg) {
return {std::move(arg)};
}
// Deliberately put operators for `expression_t` into the internal namespace
// to facilitate ADL (Argument Dependent Lookup)
namespace internal {
/**
* Cute operators for columns
*/
template<class T, class R>
lesser_than_t<T, R> operator<(expression_t<T> expr, R r) {
return {std::move(expr.value), std::move(r)};
}
template<class L, class T>
lesser_than_t<L, T> operator<(L l, expression_t<T> expr) {
return {std::move(l), std::move(expr.value)};
}
template<class T, class R>
lesser_or_equal_t<T, R> operator<=(expression_t<T> expr, R r) {
return {std::move(expr.value), std::move(r)};
}
template<class L, class T>
lesser_or_equal_t<L, T> operator<=(L l, expression_t<T> expr) {
return {std::move(l), std::move(expr.value)};
}
template<class T, class R>
greater_than_t<T, R> operator>(expression_t<T> expr, R r) {
return {std::move(expr.value), std::move(r)};
}
template<class L, class T>
greater_than_t<L, T> operator>(L l, expression_t<T> expr) {
return {std::move(l), std::move(expr.value)};
}
template<class T, class R>
greater_or_equal_t<T, R> operator>=(expression_t<T> expr, R r) {
return {std::move(expr.value), std::move(r)};
}
template<class L, class T>
greater_or_equal_t<L, T> operator>=(L l, expression_t<T> expr) {
return {std::move(l), std::move(expr.value)};
}
template<class T, class R>
is_equal_t<T, R> operator==(expression_t<T> expr, R r) {
return {std::move(expr.value), std::move(r)};
}
template<class L, class T>
is_equal_t<L, T> operator==(L l, expression_t<T> expr) {
return {std::move(l), std::move(expr.value)};
}
template<class T, class R>
is_not_equal_t<T, R> operator!=(expression_t<T> expr, R r) {
return {std::move(expr.value), std::move(r)};
}
template<class L, class T>
is_not_equal_t<L, T> operator!=(L l, expression_t<T> expr) {
return {std::move(l), std::move(expr.value)};
}
template<class T, class R>
conc_t<T, R> operator||(expression_t<T> expr, R r) {
return {std::move(expr.value), std::move(r)};
}
template<class L, class T>
conc_t<L, T> operator||(L l, expression_t<T> expr) {
return {std::move(l), std::move(expr.value)};
}
template<class L, class R>
conc_t<L, R> operator||(expression_t<L> l, expression_t<R> r) {
return {std::move(l.value), std::move(r.value)};
}
template<class R, class E, satisfies<std::is_base_of, conc_string, E> = true>
conc_t<E, R> operator||(E expr, R r) {
return {std::move(expr), std::move(r)};
}
template<class L, class E, satisfies<std::is_base_of, conc_string, E> = true>
conc_t<L, E> operator||(L l, E expr) {
return {std::move(l), std::move(expr)};
}
template<class T, class R>
add_t<T, R> operator+(expression_t<T> expr, R r) {
return {std::move(expr.value), std::move(r)};
}
template<class L, class T>
add_t<L, T> operator+(L l, expression_t<T> expr) {
return {std::move(l), std::move(expr.value)};
}
template<class L, class R>
add_t<L, R> operator+(expression_t<L> l, expression_t<R> r) {
return {std::move(l.value), std::move(r.value)};
}
template<class T, class R>
sub_t<T, R> operator-(expression_t<T> expr, R r) {
return {std::move(expr.value), std::move(r)};
}
template<class L, class T>
sub_t<L, T> operator-(L l, expression_t<T> expr) {
return {std::move(l), std::move(expr.value)};
}
template<class L, class R>
sub_t<L, R> operator-(expression_t<L> l, expression_t<R> r) {
return {std::move(l.value), std::move(r.value)};
}
template<class T, class R>
mul_t<T, R> operator*(expression_t<T> expr, R r) {
return {std::move(expr.value), std::move(r)};
}
template<class L, class T>
mul_t<L, T> operator*(L l, expression_t<T> expr) {
return {std::move(l), std::move(expr.value)};
}
template<class L, class R>
mul_t<L, R> operator*(expression_t<L> l, expression_t<R> r) {
return {std::move(l.value), std::move(r.value)};
}
template<class T, class R>
div_t<T, R> operator/(expression_t<T> expr, R r) {
return {std::move(expr.value), std::move(r)};
}
template<class L, class T>
div_t<L, T> operator/(L l, expression_t<T> expr) {
return {std::move(l), std::move(expr.value)};
}
template<class L, class R>
div_t<L, R> operator/(expression_t<L> l, expression_t<R> r) {
return {std::move(l.value), std::move(r.value)};
}
template<class T, class R>
mod_t<T, R> operator%(expression_t<T> expr, R r) {
return {std::move(expr.value), std::move(r)};
}
template<class L, class T>
mod_t<L, T> operator%(L l, expression_t<T> expr) {
return {std::move(l), std::move(expr.value)};
}
template<class L, class R>
mod_t<L, R> operator%(expression_t<L> l, expression_t<R> r) {
return {std::move(l.value), std::move(r.value)};
}
}
template<class F, class O>
internal::using_t<O, F O::*> using_(F O::*p) {
return {p};
}
template<class T, class M>
internal::using_t<T, M> using_(internal::column_pointer<T, M> cp) {
return {std::move(cp)};
}
template<class T>
internal::on_t<T> on(T t) {
return {std::move(t)};
}
template<class T>
internal::cross_join_t<T> cross_join() {
return {};
}
template<class T>
internal::natural_join_t<T> natural_join() {
return {};
}
template<class T, class O>
internal::left_join_t<T, O> left_join(O o) {
return {std::move(o)};
}
template<class T, class O>
internal::join_t<T, O> join(O o) {
return {std::move(o)};
}
template<class T, class O>
internal::left_outer_join_t<T, O> left_outer_join(O o) {
return {std::move(o)};
}
template<class T, class O>
internal::inner_join_t<T, O> inner_join(O o) {
return {std::move(o)};
}
template<class T>
internal::offset_t<T> offset(T off) {
return {std::move(off)};
}
template<class T>
internal::limit_t<T, false, false, void> limit(T lim) {
return {std::move(lim)};
}
template<class T, class O, internal::satisfies_not<internal::is_offset, T> = true>
internal::limit_t<T, true, true, O> limit(O off, T lim) {
return {std::move(lim), {std::move(off)}};
}
template<class T, class O>
internal::limit_t<T, true, false, O> limit(T lim, internal::offset_t<O> offt) {
return {std::move(lim), {std::move(offt.off)}};
}
template<class L,
class R,
std::enable_if_t<polyfill::disjunction_v<std::is_base_of<internal::condition_t, L>,
std::is_base_of<internal::condition_t, R>>,
bool> = true>
auto operator&&(L l, R r) {
using internal::get_from_expression;
return internal::make_and_condition(std::move(get_from_expression(l)), std::move(get_from_expression(r)));
}
template<class L, class R>
auto and_(L l, R r) {
using internal::get_from_expression;
return internal::make_and_condition(std::move(get_from_expression(l)), std::move(get_from_expression(r)));
}
template<class L,
class R,
std::enable_if_t<polyfill::disjunction_v<std::is_base_of<internal::condition_t, L>,
std::is_base_of<internal::condition_t, R>>,
bool> = true>
auto operator||(L l, R r) {
using internal::get_from_expression;
return internal::make_or_condition(std::move(get_from_expression(l)), std::move(get_from_expression(r)));
}
template<class L, class R>
auto or_(L l, R r) {
using internal::get_from_expression;
return internal::make_or_condition(std::move(get_from_expression(l)), std::move(get_from_expression(r)));
}
template<class T>
internal::is_not_null_t<T> is_not_null(T t) {
return {std::move(t)};
}
template<class T>
internal::is_null_t<T> is_null(T t) {
return {std::move(t)};
}
template<class L, class E>
internal::dynamic_in_t<L, std::vector<E>> in(L l, std::vector<E> values) {
return {std::move(l), std::move(values), false};
}
template<class L, class E>
internal::dynamic_in_t<L, std::vector<E>> in(L l, std::initializer_list<E> values) {
return {std::move(l), std::move(values), false};
}
template<class L, class A>
internal::dynamic_in_t<L, A> in(L l, A arg) {
return {std::move(l), std::move(arg), false};
}
template<class L, class E>
internal::dynamic_in_t<L, std::vector<E>> not_in(L l, std::vector<E> values) {
return {std::move(l), std::move(values), true};
}
template<class L, class E>
internal::dynamic_in_t<L, std::vector<E>> not_in(L l, std::initializer_list<E> values) {
return {std::move(l), std::move(values), true};
}
template<class L, class A>
internal::dynamic_in_t<L, A> not_in(L l, A arg) {
return {std::move(l), std::move(arg), true};
}
template<class L, class R>
internal::is_equal_t<L, R> is_equal(L l, R r) {
return {std::move(l), std::move(r)};
}
template<class L, class R>
internal::is_equal_t<L, R> eq(L l, R r) {
return {std::move(l), std::move(r)};
}
template<class L, class R>
internal::is_not_equal_t<L, R> is_not_equal(L l, R r) {
return {std::move(l), std::move(r)};
}
template<class L, class R>
internal::is_not_equal_t<L, R> ne(L l, R r) {
return {std::move(l), std::move(r)};
}
template<class L, class R>
internal::greater_than_t<L, R> greater_than(L l, R r) {
return {std::move(l), std::move(r)};
}
template<class L, class R>
internal::greater_than_t<L, R> gt(L l, R r) {
return {std::move(l), std::move(r)};
}
template<class L, class R>
internal::greater_or_equal_t<L, R> greater_or_equal(L l, R r) {
return {std::move(l), std::move(r)};
}
template<class L, class R>
internal::greater_or_equal_t<L, R> ge(L l, R r) {
return {std::move(l), std::move(r)};
}
template<class L, class R>
internal::lesser_than_t<L, R> lesser_than(L l, R r) {
return {std::move(l), std::move(r)};
}
template<class L, class R>
internal::lesser_than_t<L, R> lt(L l, R r) {
return {std::move(l), std::move(r)};
}
template<class L, class R>
internal::lesser_or_equal_t<L, R> lesser_or_equal(L l, R r) {
return {std::move(l), std::move(r)};
}
template<class L, class R>
internal::lesser_or_equal_t<L, R> le(L l, R r) {
return {std::move(l), std::move(r)};
}
/**
* ORDER BY column, column alias or expression
*
* Examples:
* storage.select(&User::name, order_by(&User::id))
* storage.select(as<colalias_a>(&User::name), order_by(get<colalias_a>()))
*/
template<class O, internal::satisfies_not<std::is_base_of, integer_printer, type_printer<O>> = true>
internal::order_by_t<O> order_by(O o) {
return {std::move(o)};
}
/**
* ORDER BY positional ordinal
*
* Examples:
* storage.select(&User::name, order_by(1))
*/
template<class O, internal::satisfies<std::is_base_of, integer_printer, type_printer<O>> = true>
internal::order_by_t<internal::literal_holder<O>> order_by(O o) {
return {{std::move(o)}};
}
/**
* ORDER BY column1, column2
* Example: storage.get_all<Singer>(multi_order_by(order_by(&Singer::name).asc(), order_by(&Singer::gender).desc())
*/
template<class... Args>
internal::multi_order_by_t<Args...> multi_order_by(Args&&... args) {
return {std::make_tuple(std::forward<Args>(args)...)};
}
/**
* ORDER BY column1, column2
* Difference from `multi_order_by` is that `dynamic_order_by` can be changed at runtime using `push_back` member
* function Example:
* auto orderBy = dynamic_order_by(storage);
* if(someCondition) {
* orderBy.push_back(&User::id);
* } else {
* orderBy.push_back(&User::name);
* orderBy.push_back(&User::birthDate);
* }
*/
template<class S>
internal::dynamic_order_by_t<internal::serializer_context<typename S::db_objects_type>>
dynamic_order_by(const S& storage) {
internal::serializer_context_builder<S> builder(storage);
return builder();
}
/**
* X BETWEEN Y AND Z
* Example: storage.select(between(&User::id, 10, 20))
*/
template<class A, class T>
internal::between_t<A, T> between(A expr, T b1, T b2) {
return {std::move(expr), std::move(b1), std::move(b2)};
}
/**
* X LIKE Y
* Example: storage.select(like(&User::name, "T%"))
*/
template<class A, class T>
internal::like_t<A, T, void> like(A a, T t) {
return {std::move(a), std::move(t), {}};
}
/**
* X GLOB Y
* Example: storage.select(glob(&User::name, "*S"))
*/
template<class A, class T>
internal::glob_t<A, T> glob(A a, T t) {
return {std::move(a), std::move(t)};
}
/**
* X LIKE Y ESCAPE Z
* Example: storage.select(like(&User::name, "T%", "%"))
*/
template<class A, class T, class E>
internal::like_t<A, T, E> like(A a, T t, E e) {
return {std::move(a), std::move(t), {std::move(e)}};
}
/**
* CAST(X AS type).
* Example: cast<std::string>(&User::id)
*/
template<class T, class E>
internal::cast_t<T, E> cast(E e) {
return {std::move(e)};
}
}
#pragma once
#include <type_traits> // std::enable_if, std::is_base_of, std::is_member_pointer, std::remove_const
#include <utility> // std::index_sequence, std::make_index_sequence
#include <string> // std::string
#include <sstream> // std::stringstream
#include <algorithm> // std::copy_n
// #include "functional/cxx_universal.h"
// ::size_t
// #include "functional/cxx_type_traits_polyfill.h"
// #include "type_traits.h"
// #include "alias_traits.h"
namespace sqlite_orm {
namespace internal {
/**
* This is a common built-in class used for character based table aliases.
* For convenience there exist public type aliases `alias_a`, `alias_b`, ...
* The easiest way to create a table alias is using `"z"_alias.for_<Object>()`.
*/
template<class T, char A, char... X>
struct recordset_alias : alias_tag {
using type = T;
static std::string get() {
return {A, X...};
}
};
/**
* Column expression with table alias attached like 'C.ID'. This is not a column alias
*/
template<class T, class C>
struct alias_column_t {
using alias_type = T;
using column_type = C;
column_type column;
};
/*
* Encapsulates extracting the alias identifier of a non-alias.
*/
template<class T, class SFINAE = void>
struct alias_extractor {
static std::string extract() {
return {};
}
static std::string as_alias() {
return {};
}
};
/*
* Encapsulates extracting the alias identifier of an alias.
*
* `extract()` always returns the alias identifier.
* `as_alias()` is used in contexts where a table is aliased.
*/
template<class A>
struct alias_extractor<A, match_if<is_alias, A>> {
static std::string extract() {
std::stringstream ss;
ss << A::get();
return ss.str();
}
// for column and regular table aliases -> alias identifier
template<class T = A, satisfies_not<std::is_same, polyfill::detected_t<type_t, T>, A> = true>
static std::string as_alias() {
return alias_extractor::extract();
}
};
/**
* Used to store alias for expression
*/
template<class T, class E>
struct as_t {
using alias_type = T;
using expression_type = E;
expression_type expression;
};
/**
* This is a common built-in class used for custom single-character column aliases.
* For convenience there exist type aliases `colalias_a`, `colalias_b`, ...
* The easiest way to create a column alias is using `"xyz"_col`.
*/
template<char A, char... X>
struct column_alias : alias_tag {
static std::string get() {
return {A, X...};
}
};
template<class T>
struct alias_holder {
using type = T;
alias_holder() = default;
};
}
/**
* @return column with table alias attached. Place it instead of a column statement in case you need to specify a
* column with table alias prefix like 'a.column'.
*/
template<class A, class C, std::enable_if_t<internal::is_table_alias_v<A>, bool> = true>
internal::alias_column_t<A, C> alias_column(C c) {
using aliased_type = internal::type_t<A>;
static_assert(std::is_same<polyfill::detected_t<internal::table_type_of_t, C>, aliased_type>::value,
"Column must be from aliased table");
return {c};
}
/**
* Alias a column expression.
*/
template<class A, class E, internal::satisfies<internal::is_column_alias, A> = true>
internal::as_t<A, E> as(E expression) {
return {std::move(expression)};
}
template<class A, internal::satisfies<internal::is_column_alias, A> = true>
internal::alias_holder<A> get() {
return {};
}
template<class T>
using alias_a = internal::recordset_alias<T, 'a'>;
template<class T>
using alias_b = internal::recordset_alias<T, 'b'>;
template<class T>
using alias_c = internal::recordset_alias<T, 'c'>;
template<class T>
using alias_d = internal::recordset_alias<T, 'd'>;
template<class T>
using alias_e = internal::recordset_alias<T, 'e'>;
template<class T>
using alias_f = internal::recordset_alias<T, 'f'>;
template<class T>
using alias_g = internal::recordset_alias<T, 'g'>;
template<class T>
using alias_h = internal::recordset_alias<T, 'h'>;
template<class T>
using alias_i = internal::recordset_alias<T, 'i'>;
template<class T>
using alias_j = internal::recordset_alias<T, 'j'>;
template<class T>
using alias_k = internal::recordset_alias<T, 'k'>;
template<class T>
using alias_l = internal::recordset_alias<T, 'l'>;
template<class T>
using alias_m = internal::recordset_alias<T, 'm'>;
template<class T>
using alias_n = internal::recordset_alias<T, 'n'>;
template<class T>
using alias_o = internal::recordset_alias<T, 'o'>;
template<class T>
using alias_p = internal::recordset_alias<T, 'p'>;
template<class T>
using alias_q = internal::recordset_alias<T, 'q'>;
template<class T>
using alias_r = internal::recordset_alias<T, 'r'>;
template<class T>
using alias_s = internal::recordset_alias<T, 's'>;
template<class T>
using alias_t = internal::recordset_alias<T, 't'>;
template<class T>
using alias_u = internal::recordset_alias<T, 'u'>;
template<class T>
using alias_v = internal::recordset_alias<T, 'v'>;
template<class T>
using alias_w = internal::recordset_alias<T, 'w'>;
template<class T>
using alias_x = internal::recordset_alias<T, 'x'>;
template<class T>
using alias_y = internal::recordset_alias<T, 'y'>;
template<class T>
using alias_z = internal::recordset_alias<T, 'z'>;
using colalias_a = internal::column_alias<'a'>;
using colalias_b = internal::column_alias<'b'>;
using colalias_c = internal::column_alias<'c'>;
using colalias_d = internal::column_alias<'d'>;
using colalias_e = internal::column_alias<'e'>;
using colalias_f = internal::column_alias<'f'>;
using colalias_g = internal::column_alias<'g'>;
using colalias_h = internal::column_alias<'h'>;
using colalias_i = internal::column_alias<'i'>;
}
#pragma once
#include <string> // std::string
#include <tuple> // std::make_tuple, std::tuple_size
#include <type_traits> // std::forward, std::is_base_of, std::enable_if
#include <memory> // std::unique_ptr
#include <vector> // std::vector
// #include "functional/cxx_type_traits_polyfill.h"
// #include "conditions.h"
// #include "is_base_of_template.h"
// #include "tuple_helper/tuple_filter.h"
// #include "serialize_result_type.h"
// #include "operators.h"
// #include "ast/into.h"
// #include "../functional/cxx_type_traits_polyfill.h"
namespace sqlite_orm {
namespace internal {
template<class T>
struct into_t {
using type = T;
};
template<class T>
using is_into = polyfill::is_specialization_of<T, into_t>;
}
template<class T>
internal::into_t<T> into() {
return {};
}
}
namespace sqlite_orm {
using int64 = sqlite_int64;
using uint64 = sqlite_uint64;
namespace internal {
template<class T>
struct unique_ptr_result_of {};
/**
* Base class for operator overloading
* R - return type
* S - class with operator std::string
* Args - function arguments types
*/
template<class R, class S, class... Args>
struct built_in_function_t : S, arithmetic_t {
using return_type = R;
using string_type = S;
using args_type = std::tuple<Args...>;
static constexpr size_t args_size = std::tuple_size<args_type>::value;
args_type args;
built_in_function_t(args_type&& args_) : args(std::move(args_)) {}
};
template<class T>
SQLITE_ORM_INLINE_VAR constexpr bool is_built_in_function_v = is_base_of_template_v<T, built_in_function_t>;
template<class T>
using is_built_in_function = polyfill::bool_constant<is_built_in_function_v<T>>;
template<class F, class W>
struct filtered_aggregate_function {
using function_type = F;
using where_expression = W;
function_type function;
where_expression where;
};
template<class C>
struct where_t;
template<class R, class S, class... Args>
struct built_in_aggregate_function_t : built_in_function_t<R, S, Args...> {
using super = built_in_function_t<R, S, Args...>;
using super::super;
template<class W>
filtered_aggregate_function<built_in_aggregate_function_t<R, S, Args...>, W> filter(where_t<W> wh) {
return {*this, std::move(wh.expression)};
}
};
struct typeof_string {
serialize_result_type serialize() const {
return "TYPEOF";
}
};
struct unicode_string {
serialize_result_type serialize() const {
return "UNICODE";
}
};
struct length_string {
serialize_result_type serialize() const {
return "LENGTH";
}
};
struct abs_string {
serialize_result_type serialize() const {
return "ABS";
}
};
struct lower_string {
serialize_result_type serialize() const {
return "LOWER";
}
};
struct upper_string {
serialize_result_type serialize() const {
return "UPPER";
}
};
struct last_insert_rowid_string {
serialize_result_type serialize() const {
return "LAST_INSERT_ROWID";
}
};
struct total_changes_string {
serialize_result_type serialize() const {
return "TOTAL_CHANGES";
}
};
struct changes_string {
serialize_result_type serialize() const {
return "CHANGES";
}
};
struct trim_string {
serialize_result_type serialize() const {
return "TRIM";
}
};
struct ltrim_string {
serialize_result_type serialize() const {
return "LTRIM";
}
};
struct rtrim_string {
serialize_result_type serialize() const {
return "RTRIM";
}
};
struct hex_string {
serialize_result_type serialize() const {
return "HEX";
}
};
struct quote_string {
serialize_result_type serialize() const {
return "QUOTE";
}
};
struct randomblob_string {
serialize_result_type serialize() const {
return "RANDOMBLOB";
}
};
struct instr_string {
serialize_result_type serialize() const {
return "INSTR";
}
};
struct replace_string {
serialize_result_type serialize() const {
return "REPLACE";
}
};
struct round_string {
serialize_result_type serialize() const {
return "ROUND";
}
};
#if SQLITE_VERSION_NUMBER >= 3007016
struct char_string {
serialize_result_type serialize() const {
return "CHAR";
}
};
struct random_string {
serialize_result_type serialize() const {
return "RANDOM";
}
};
#endif
struct coalesce_string {
serialize_result_type serialize() const {
return "COALESCE";
}
};
struct ifnull_string {
serialize_result_type serialize() const {
return "IFNULL";
}
};
struct nullif_string {
serialize_result_type serialize() const {
return "NULLIF";
}
};
struct date_string {
serialize_result_type serialize() const {
return "DATE";
}
};
struct time_string {
serialize_result_type serialize() const {
return "TIME";
}
};
struct datetime_string {
serialize_result_type serialize() const {
return "DATETIME";
}
};
struct julianday_string {
serialize_result_type serialize() const {
return "JULIANDAY";
}
};
struct strftime_string {
serialize_result_type serialize() const {
return "STRFTIME";
}
};
struct zeroblob_string {
serialize_result_type serialize() const {
return "ZEROBLOB";
}
};
struct substr_string {
serialize_result_type serialize() const {
return "SUBSTR";
}
};
#ifdef SQLITE_SOUNDEX
struct soundex_string {
serialize_result_type serialize() const {
return "SOUNDEX";
}
};
#endif
struct total_string {
serialize_result_type serialize() const {
return "TOTAL";
}
};
struct sum_string {
serialize_result_type serialize() const {
return "SUM";
}
};
struct count_string {
serialize_result_type serialize() const {
return "COUNT";
}
};
/**
* T is use to specify type explicitly for queries like
* SELECT COUNT(*) FROM table_name;
* T can be omitted with void.
*/
template<class T>
struct count_asterisk_t : count_string {
using type = T;
template<class W>
filtered_aggregate_function<count_asterisk_t<T>, W> filter(where_t<W> wh) {
return {*this, std::move(wh.expression)};
}
};
/**
* The same thing as count<T>() but without T arg.
* Is used in cases like this:
* SELECT cust_code, cust_name, cust_city, grade
* FROM customer
* WHERE grade=2 AND EXISTS
* (SELECT COUNT(*)
* FROM customer
* WHERE grade=2
* GROUP BY grade
* HAVING COUNT(*)>2);
* `c++`
* auto rows =
* storage.select(columns(&Customer::code, &Customer::name, &Customer::city, &Customer::grade),
* where(is_equal(&Customer::grade, 2)
* and exists(select(count<Customer>(),
* where(is_equal(&Customer::grade, 2)),
* group_by(&Customer::grade),
* having(greater_than(count(), 2))))));
*/
struct count_asterisk_without_type : count_string {};
struct avg_string {
serialize_result_type serialize() const {
return "AVG";
}
};
struct max_string {
serialize_result_type serialize() const {
return "MAX";
}
};
struct min_string {
serialize_result_type serialize() const {
return "MIN";
}
};
struct group_concat_string {
serialize_result_type serialize() const {
return "GROUP_CONCAT";
}
};
#ifdef SQLITE_ENABLE_MATH_FUNCTIONS
struct acos_string {
serialize_result_type serialize() const {
return "ACOS";
}
};
struct acosh_string {
serialize_result_type serialize() const {
return "ACOSH";
}
};
struct asin_string {
serialize_result_type serialize() const {
return "ASIN";
}
};
struct asinh_string {
serialize_result_type serialize() const {
return "ASINH";
}
};
struct atan_string {
serialize_result_type serialize() const {
return "ATAN";
}
};
struct atan2_string {
serialize_result_type serialize() const {
return "ATAN2";
}
};
struct atanh_string {
serialize_result_type serialize() const {
return "ATANH";
}
};
struct ceil_string {
serialize_result_type serialize() const {
return "CEIL";
}
};
struct ceiling_string {
serialize_result_type serialize() const {
return "CEILING";
}
};
struct cos_string {
serialize_result_type serialize() const {
return "COS";
}
};
struct cosh_string {
serialize_result_type serialize() const {
return "COSH";
}
};
struct degrees_string {
serialize_result_type serialize() const {
return "DEGREES";
}
};
struct exp_string {
serialize_result_type serialize() const {
return "EXP";
}
};
struct floor_string {
serialize_result_type serialize() const {
return "FLOOR";
}
};
struct ln_string {
serialize_result_type serialize() const {
return "LN";
}
};
struct log_string {
serialize_result_type serialize() const {
return "LOG";
}
};
struct log10_string {
serialize_result_type serialize() const {
return "LOG10";
}
};
struct log2_string {
serialize_result_type serialize() const {
return "LOG2";
}
};
struct mod_string {
serialize_result_type serialize() const {
return "MOD";
}
};
struct pi_string {
serialize_result_type serialize() const {
return "PI";
}
};
struct pow_string {
serialize_result_type serialize() const {
return "POW";
}
};
struct power_string {
serialize_result_type serialize() const {
return "POWER";
}
};
struct radians_string {
serialize_result_type serialize() const {
return "RADIANS";
}
};
struct sin_string {
serialize_result_type serialize() const {
return "SIN";
}
};
struct sinh_string {
serialize_result_type serialize() const {
return "SINH";
}
};
struct sqrt_string {
serialize_result_type serialize() const {
return "SQRT";
}
};
struct tan_string {
serialize_result_type serialize() const {
return "TAN";
}
};
struct tanh_string {
serialize_result_type serialize() const {
return "TANH";
}
};
struct trunc_string {
serialize_result_type serialize() const {
return "TRUNC";
}
};
#endif // SQLITE_ENABLE_MATH_FUNCTIONS
#ifdef SQLITE_ENABLE_JSON1
struct json_string {
serialize_result_type serialize() const {
return "JSON";
}
};
struct json_array_string {
serialize_result_type serialize() const {
return "JSON_ARRAY";
}
};
struct json_array_length_string {
serialize_result_type serialize() const {
return "JSON_ARRAY_LENGTH";
}
};
struct json_extract_string {
serialize_result_type serialize() const {
return "JSON_EXTRACT";
}
};
struct json_insert_string {
serialize_result_type serialize() const {
return "JSON_INSERT";
}
};
struct json_replace_string {
serialize_result_type serialize() const {
return "JSON_REPLACE";
}
};
struct json_set_string {
serialize_result_type serialize() const {
return "JSON_SET";
}
};
struct json_object_string {
serialize_result_type serialize() const {
return "JSON_OBJECT";
}
};
struct json_patch_string {
serialize_result_type serialize() const {
return "JSON_PATCH";
}
};
struct json_remove_string {
serialize_result_type serialize() const {
return "JSON_REMOVE";
}
};
struct json_type_string {
serialize_result_type serialize() const {
return "JSON_TYPE";
}
};
struct json_valid_string {
serialize_result_type serialize() const {
return "JSON_VALID";
}
};
struct json_quote_string {
serialize_result_type serialize() const {
return "JSON_QUOTE";
}
};
struct json_group_array_string {
serialize_result_type serialize() const {
return "JSON_GROUP_ARRAY";
}
};
struct json_group_object_string {
serialize_result_type serialize() const {
return "JSON_GROUP_OBJECT";
}
};
#endif // SQLITE_ENABLE_JSON1
template<class T>
using field_type_or_type_t = polyfill::detected_or_t<T, type_t, member_field_type<T>>;
}
/**
* Cute operators for core functions
*/
template<class F, class R, internal::satisfies<internal::is_built_in_function, F> = true>
internal::lesser_than_t<F, R> operator<(F f, R r) {
return {std::move(f), std::move(r)};
}
template<class F, class R, internal::satisfies<internal::is_built_in_function, F> = true>
internal::lesser_or_equal_t<F, R> operator<=(F f, R r) {
return {std::move(f), std::move(r)};
}
template<class F, class R, internal::satisfies<internal::is_built_in_function, F> = true>
internal::greater_than_t<F, R> operator>(F f, R r) {
return {std::move(f), std::move(r)};
}
template<class F, class R, internal::satisfies<internal::is_built_in_function, F> = true>
internal::greater_or_equal_t<F, R> operator>=(F f, R r) {
return {std::move(f), std::move(r)};
}
template<class F, class R, internal::satisfies<internal::is_built_in_function, F> = true>
internal::is_equal_t<F, R> operator==(F f, R r) {
return {std::move(f), std::move(r)};
}
template<class F, class R, internal::satisfies<internal::is_built_in_function, F> = true>
internal::is_not_equal_t<F, R> operator!=(F f, R r) {
return {std::move(f), std::move(r)};
}
#ifdef SQLITE_ENABLE_MATH_FUNCTIONS
/**
* ACOS(X) function https://www.sqlite.org/lang_mathfunc.html#acos
*
* Example:
*
* auto rows = storage.select(sqlite_orm::acos(&Triangle::cornerA)); // decltype(rows) is std::vector<double>
*/
template<class X>
internal::built_in_function_t<double, internal::acos_string, X> acos(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
/**
* ACOS(X) function https://www.sqlite.org/lang_mathfunc.html#acos
*
* Difference with the previous function is that previous override has `double` as return type but this
* override accepts return type from you as a template argument. You can use any bindable type:
* `float`, `int`, `std::optional<double>` etc. This override is handy when you expect `null` as result.
*
* Example:
*
* auto rows = storage.select(sqlite_orm::acos<std::optional<double>>(&Triangle::cornerA)); // decltype(rows) is std::vector<std::optional<double>>
*/
template<class R, class X>
internal::built_in_function_t<R, internal::acos_string, X> acos(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
/**
* ACOSH(X) function https://www.sqlite.org/lang_mathfunc.html#acosh
*
* Example:
*
* auto rows = storage.select(sqlite_orm::acosh(&Triangle::cornerA)); // decltype(rows) is std::vector<double>
*/
template<class X>
internal::built_in_function_t<double, internal::acosh_string, X> acosh(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
/**
* ACOSH(X) function https://www.sqlite.org/lang_mathfunc.html#acosh
*
* Difference with the previous function is that previous override has `double` as return type but this
* override accepts return type from you as a template argument. You can use any bindable type:
* `float`, `int`, `std::optional<double>` etc. This override is handy when you expect `null` as result.
*
* Example:
*
* auto rows = storage.select(sqlite_orm::acosh<std::optional<double>>(&Triangle::cornerA)); // decltype(rows) is std::vector<std::optional<double>>
*/
template<class R, class X>
internal::built_in_function_t<R, internal::acosh_string, X> acosh(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
/**
* ASIN(X) function https://www.sqlite.org/lang_mathfunc.html#asin
*
* Example:
*
* auto rows = storage.select(sqlite_orm::asin(&Triangle::cornerA)); // decltype(rows) is std::vector<double>
*/
template<class X>
internal::built_in_function_t<double, internal::asin_string, X> asin(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
/**
* ASIN(X) function https://www.sqlite.org/lang_mathfunc.html#asin
*
* Difference with the previous function is that previous override has `double` as return type but this
* override accepts return type from you as a template argument. You can use any bindable type:
* `float`, `int`, `std::optional<double>` etc. This override is handy when you expect `null` as result.
*
* Example:
*
* auto rows = storage.select(sqlite_orm::asin<std::optional<double>>(&Triangle::cornerA)); // decltype(rows) is std::vector<std::optional<double>>
*/
template<class R, class X>
internal::built_in_function_t<R, internal::asin_string, X> asin(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
/**
* ASINH(X) function https://www.sqlite.org/lang_mathfunc.html#asinh
*
* Example:
*
* auto rows = storage.select(sqlite_orm::asinh(&Triangle::cornerA)); // decltype(rows) is std::vector<double>
*/
template<class X>
internal::built_in_function_t<double, internal::asinh_string, X> asinh(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
/**
* ASINH(X) function https://www.sqlite.org/lang_mathfunc.html#asinh
*
* Difference with the previous function is that previous override has `double` as return type but this
* override accepts return type from you as a template argument. You can use any bindable type:
* `float`, `int`, `std::optional<double>` etc. This override is handy when you expect `null` as result.
*
* Example:
*
* auto rows = storage.select(sqlite_orm::asinh<std::optional<double>>(&Triangle::cornerA)); // decltype(rows) is std::vector<std::optional<double>>
*/
template<class R, class X>
internal::built_in_function_t<R, internal::asinh_string, X> asinh(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
/**
* ATAN(X) function https://www.sqlite.org/lang_mathfunc.html#atan
*
* Example:
*
* auto rows = storage.select(sqlite_orm::atan(1)); // decltype(rows) is std::vector<double>
*/
template<class X>
internal::built_in_function_t<double, internal::atan_string, X> atan(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
/**
* ATAN(X) function https://www.sqlite.org/lang_mathfunc.html#atan
*
* Difference with the previous function is that previous override has `double` as return type but this
* override accepts return type from you as a template argument. You can use any bindable type:
* `float`, `int`, `std::optional<double>` etc. This override is handy when you expect `null` as result.
*
* Example:
*
* auto rows = storage.select(sqlite_orm::atan<std::optional<double>>(1)); // decltype(rows) is std::vector<std::optional<double>>
*/
template<class R, class X>
internal::built_in_function_t<R, internal::atan_string, X> atan(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
/**
* ATAN2(X, Y) function https://www.sqlite.org/lang_mathfunc.html#atan2
*
* Example:
*
* auto rows = storage.select(sqlite_orm::atan2(1, 3)); // decltype(rows) is std::vector<double>
*/
template<class X, class Y>
internal::built_in_function_t<double, internal::atan2_string, X, Y> atan2(X x, Y y) {
return {std::tuple<X, Y>{std::forward<X>(x), std::forward<Y>(y)}};
}
/**
* ATAN2(X, Y) function https://www.sqlite.org/lang_mathfunc.html#atan2
*
* Difference with the previous function is that previous override has `double` as return type but this
* override accepts return type from you as a template argument. You can use any bindable type:
* `float`, `int`, `std::optional<double>` etc. This override is handy when you expect `null` as result.
*
* Example:
*
* auto rows = storage.select(sqlite_orm::atan2<std::optional<double>>(1, 3)); // decltype(rows) is std::vector<std::optional<double>>
*/
template<class R, class X, class Y>
internal::built_in_function_t<R, internal::atan2_string, X, Y> atan2(X x, Y y) {
return {std::tuple<X, Y>{std::forward<X>(x), std::forward<Y>(y)}};
}
/**
* ATANH(X) function https://www.sqlite.org/lang_mathfunc.html#atanh
*
* Example:
*
* auto rows = storage.select(sqlite_orm::atanh(1)); // decltype(rows) is std::vector<double>
*/
template<class X>
internal::built_in_function_t<double, internal::atanh_string, X> atanh(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
/**
* ATANH(X) function https://www.sqlite.org/lang_mathfunc.html#atanh
*
* Difference with the previous function is that previous override has `double` as return type but this
* override accepts return type from you as a template argument. You can use any bindable type:
* `float`, `int`, `std::optional<double>` etc. This override is handy when you expect `null` as result.
*
* Example:
*
* auto rows = storage.select(sqlite_orm::atanh<std::optional<double>>(1)); // decltype(rows) is std::vector<std::optional<double>>
*/
template<class R, class X>
internal::built_in_function_t<R, internal::atanh_string, X> atanh(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
/**
* CEIL(X) function https://www.sqlite.org/lang_mathfunc.html#ceil
*
* Example:
*
* auto rows = storage.select(sqlite_orm::ceil(&User::rating)); // decltype(rows) is std::vector<double>
*/
template<class X>
internal::built_in_function_t<double, internal::ceil_string, X> ceil(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
/**
* CEIL(X) function https://www.sqlite.org/lang_mathfunc.html#ceil
*
* Difference with the previous function is that previous override has `double` as return type but this
* override accepts return type from you as a template argument. You can use any bindable type:
* `float`, `int`, `std::optional<double>` etc. This override is handy when you expect `null` as result.
*
* Example:
*
* auto rows = storage.select(sqlite_orm::ceil<std::optional<double>>(&User::rating)); // decltype(rows) is std::vector<std::optional<double>>
*/
template<class R, class X>
internal::built_in_function_t<R, internal::ceil_string, X> ceil(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
/**
* CEILING(X) function https://www.sqlite.org/lang_mathfunc.html#ceil
*
* Example:
*
* auto rows = storage.select(sqlite_orm::ceiling(&User::rating)); // decltype(rows) is std::vector<double>
*/
template<class X>
internal::built_in_function_t<double, internal::ceiling_string, X> ceiling(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
/**
* CEILING(X) function https://www.sqlite.org/lang_mathfunc.html#ceil
*
* Difference with the previous function is that previous override has `double` as return type but this
* override accepts return type from you as a template argument. You can use any bindable type:
* `float`, `int`, `std::optional<double>` etc. This override is handy when you expect `null` as result.
*
* Example:
*
* auto rows = storage.select(sqlite_orm::ceiling<std::optional<double>>(&User::rating)); // decltype(rows) is std::vector<std::optional<double>>
*/
template<class R, class X>
internal::built_in_function_t<R, internal::ceiling_string, X> ceiling(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
/**
* COS(X) function https://www.sqlite.org/lang_mathfunc.html#cos
*
* Example:
*
* auto rows = storage.select(sqlite_orm::cos(&Triangle::cornerB)); // decltype(rows) is std::vector<double>
*/
template<class X>
internal::built_in_function_t<double, internal::cos_string, X> cos(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
/**
* COS(X) function https://www.sqlite.org/lang_mathfunc.html#cos
*
* Difference with the previous function is that previous override has `double` as return type but this
* override accepts return type from you as a template argument. You can use any bindable type:
* `float`, `int`, `std::optional<double>` etc. This override is handy when you expect `null` as result.
*
* Example:
*
* auto rows = storage.select(sqlite_orm::cos<std::optional<double>>(&User::rating)); // decltype(rows) is std::vector<std::optional<double>>
*/
template<class R, class X>
internal::built_in_function_t<R, internal::cos_string, X> cos(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
/**
* COSH(X) function https://www.sqlite.org/lang_mathfunc.html#cosh
*
* Example:
*
* auto rows = storage.select(sqlite_orm::cosh(&Triangle::cornerB)); // decltype(rows) is std::vector<double>
*/
template<class X>
internal::built_in_function_t<double, internal::cosh_string, X> cosh(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
/**
* COSH(X) function https://www.sqlite.org/lang_mathfunc.html#cosh
*
* Difference with the previous function is that previous override has `double` as return type but this
* override accepts return type from you as a template argument. You can use any bindable type:
* `float`, `int`, `std::optional<double>` etc. This override is handy when you expect `null` as result.
*
* Example:
*
* auto rows = storage.select(sqlite_orm::cosh<std::optional<double>>(&User::rating)); // decltype(rows) is std::vector<std::optional<double>>
*/
template<class R, class X>
internal::built_in_function_t<R, internal::cosh_string, X> cosh(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
/**
* DEGREES(X) function https://www.sqlite.org/lang_mathfunc.html#degrees
*
* Example:
*
* auto rows = storage.select(sqlite_orm::degrees(&Triangle::cornerB)); // decltype(rows) is std::vector<double>
*/
template<class X>
internal::built_in_function_t<double, internal::degrees_string, X> degrees(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
/**
* DEGREES(X) function https://www.sqlite.org/lang_mathfunc.html#degrees
*
* Difference with the previous function is that previous override has `double` as return type but this
* override accepts return type from you as a template argument. You can use any bindable type:
* `float`, `int`, `std::optional<double>` etc. This override is handy when you expect `null` as result.
*
* Example:
*
* auto rows = storage.select(sqlite_orm::degrees<std::optional<double>>(&User::rating)); // decltype(rows) is std::vector<std::optional<double>>
*/
template<class R, class X>
internal::built_in_function_t<R, internal::degrees_string, X> degrees(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
/**
* EXP(X) function https://www.sqlite.org/lang_mathfunc.html#exp
*
* Example:
*
* auto rows = storage.select(sqlite_orm::exp(&Triangle::cornerB)); // decltype(rows) is std::vector<double>
*/
template<class X>
internal::built_in_function_t<double, internal::exp_string, X> exp(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
/**
* EXP(X) function https://www.sqlite.org/lang_mathfunc.html#exp
*
* Difference with the previous function is that previous override has `double` as return type but this
* override accepts return type from you as a template argument. You can use any bindable type:
* `float`, `int`, `std::optional<double>` etc. This override is handy when you expect `null` as result.
*
* Example:
*
* auto rows = storage.select(sqlite_orm::exp<std::optional<double>>(&User::rating)); // decltype(rows) is std::vector<std::optional<double>>
*/
template<class R, class X>
internal::built_in_function_t<R, internal::exp_string, X> exp(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
/**
* FLOOR(X) function https://www.sqlite.org/lang_mathfunc.html#floor
*
* Example:
*
* auto rows = storage.select(sqlite_orm::floor(&User::rating)); // decltype(rows) is std::vector<double>
*/
template<class X>
internal::built_in_function_t<double, internal::floor_string, X> floor(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
/**
* FLOOR(X) function https://www.sqlite.org/lang_mathfunc.html#floor
*
* Difference with the previous function is that previous override has `double` as return type but this
* override accepts return type from you as a template argument. You can use any bindable type:
* `float`, `int`, `std::optional<double>` etc. This override is handy when you expect `null` as result.
*
* Example:
*
* auto rows = storage.select(sqlite_orm::floor<std::optional<double>>(&User::rating)); // decltype(rows) is std::vector<std::optional<double>>
*/
template<class R, class X>
internal::built_in_function_t<R, internal::floor_string, X> floor(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
/**
* LN(X) function https://www.sqlite.org/lang_mathfunc.html#ln
*
* Example:
*
* auto rows = storage.select(sqlite_orm::ln(200)); // decltype(rows) is std::vector<double>
*/
template<class X>
internal::built_in_function_t<double, internal::ln_string, X> ln(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
/**
* LN(X) function https://www.sqlite.org/lang_mathfunc.html#ln
*
* Difference with the previous function is that previous override has `double` as return type but this
* override accepts return type from you as a template argument. You can use any bindable type:
* `float`, `int`, `std::optional<double>` etc. This override is handy when you expect `null` as result.
*
* Example:
*
* auto rows = storage.select(sqlite_orm::ln<std::optional<double>>(200)); // decltype(rows) is std::vector<std::optional<double>>
*/
template<class R, class X>
internal::built_in_function_t<R, internal::ln_string, X> ln(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
/**
* LOG(X) function https://www.sqlite.org/lang_mathfunc.html#log
*
* Example:
*
* auto rows = storage.select(sqlite_orm::log(100)); // decltype(rows) is std::vector<double>
*/
template<class X>
internal::built_in_function_t<double, internal::log_string, X> log(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
/**
* LOG(X) function https://www.sqlite.org/lang_mathfunc.html#log
*
* Difference with the previous function is that previous override has `double` as return type but this
* override accepts return type from you as a template argument. You can use any bindable type:
* `float`, `int`, `std::optional<double>` etc. This override is handy when you expect `null` as result.
*
* Example:
*
* auto rows = storage.select(sqlite_orm::log<std::optional<double>>(100)); // decltype(rows) is std::vector<std::optional<double>>
*/
template<class R, class X>
internal::built_in_function_t<R, internal::log_string, X> log(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
/**
* LOG10(X) function https://www.sqlite.org/lang_mathfunc.html#log
*
* Example:
*
* auto rows = storage.select(sqlite_orm::log10(100)); // decltype(rows) is std::vector<double>
*/
template<class X>
internal::built_in_function_t<double, internal::log10_string, X> log10(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
/**
* LOG10(X) function https://www.sqlite.org/lang_mathfunc.html#log
*
* Difference with the previous function is that previous override has `double` as return type but this
* override accepts return type from you as a template argument. You can use any bindable type:
* `float`, `int`, `std::optional<double>` etc. This override is handy when you expect `null` as result.
*
* Example:
*
* auto rows = storage.select(sqlite_orm::log10<std::optional<double>>(100)); // decltype(rows) is std::vector<std::optional<double>>
*/
template<class R, class X>
internal::built_in_function_t<R, internal::log10_string, X> log10(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
/**
* LOG(B, X) function https://www.sqlite.org/lang_mathfunc.html#log
*
* Example:
*
* auto rows = storage.select(sqlite_orm::log(10, 100)); // decltype(rows) is std::vector<double>
*/
template<class B, class X>
internal::built_in_function_t<double, internal::log_string, B, X> log(B b, X x) {
return {std::tuple<B, X>{std::forward<B>(b), std::forward<X>(x)}};
}
/**
* LOG(B, X) function https://www.sqlite.org/lang_mathfunc.html#log
*
* Difference with the previous function is that previous override has `double` as return type but this
* override accepts return type from you as a template argument. You can use any bindable type:
* `float`, `int`, `std::optional<double>` etc. This override is handy when you expect `null` as result.
*
* Example:
*
* auto rows = storage.select(sqlite_orm::log<std::optional<double>>(10, 100)); // decltype(rows) is std::vector<std::optional<double>>
*/
template<class R, class B, class X>
internal::built_in_function_t<R, internal::log_string, B, X> log(B b, X x) {
return {std::tuple<B, X>{std::forward<B>(b), std::forward<X>(x)}};
}
/**
* LOG2(X) function https://www.sqlite.org/lang_mathfunc.html#log2
*
* Example:
*
* auto rows = storage.select(sqlite_orm::log2(64)); // decltype(rows) is std::vector<double>
*/
template<class X>
internal::built_in_function_t<double, internal::log2_string, X> log2(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
/**
* LOG2(X) function https://www.sqlite.org/lang_mathfunc.html#log2
*
* Difference with the previous function is that previous override has `double` as return type but this
* override accepts return type from you as a template argument. You can use any bindable type:
* `float`, `int`, `std::optional<double>` etc. This override is handy when you expect `null` as result.
*
* Example:
*
* auto rows = storage.select(sqlite_orm::log2<std::optional<double>>(64)); // decltype(rows) is std::vector<std::optional<double>>
*/
template<class R, class X>
internal::built_in_function_t<R, internal::log2_string, X> log2(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
/**
* MOD(X, Y) function https://www.sqlite.org/lang_mathfunc.html#mod
*
* Example:
*
* auto rows = storage.select(sqlite_orm::mod_f(6, 5)); // decltype(rows) is std::vector<double>
*/
template<class X, class Y>
internal::built_in_function_t<double, internal::mod_string, X, Y> mod_f(X x, Y y) {
return {std::tuple<X, Y>{std::forward<X>(x), std::forward<Y>(y)}};
}
/**
* MOD(X, Y) function https://www.sqlite.org/lang_mathfunc.html#mod
*
* Difference with the previous function is that previous override has `double` as return type but this
* override accepts return type from you as a template argument. You can use any bindable type:
* `float`, `int`, `std::optional<double>` etc. This override is handy when you expect `null` as result.
*
* Example:
*
* auto rows = storage.select(sqlite_orm::mod_f<std::optional<double>>(6, 5)); // decltype(rows) is std::vector<std::optional<double>>
*/
template<class R, class X, class Y>
internal::built_in_function_t<R, internal::mod_string, X, Y> mod_f(X x, Y y) {
return {std::tuple<X, Y>{std::forward<X>(x), std::forward<Y>(y)}};
}
/**
* PI() function https://www.sqlite.org/lang_mathfunc.html#pi
*
* Example:
*
* auto rows = storage.select(sqlite_orm::pi()); // decltype(rows) is std::vector<double>
*/
inline internal::built_in_function_t<double, internal::pi_string> pi() {
return {{}};
}
/**
* PI() function https://www.sqlite.org/lang_mathfunc.html#pi
*
* Difference with the previous function is that previous override has `double` as return type but this
* override accepts return type from you as a template argument. You can use any bindable type:
* `float`, `int`, etc.
*
* Example:
*
* auto rows = storage.select(sqlite_orm::pi<float>()); // decltype(rows) is std::vector<float>
*/
template<class R>
internal::built_in_function_t<R, internal::pi_string> pi() {
return {{}};
}
/**
* POW(X, Y) function https://www.sqlite.org/lang_mathfunc.html#pow
*
* Example:
*
* auto rows = storage.select(sqlite_orm::pow(2, 5)); // decltype(rows) is std::vector<double>
*/
template<class X, class Y>
internal::built_in_function_t<double, internal::pow_string, X, Y> pow(X x, Y y) {
return {std::tuple<X, Y>{std::forward<X>(x), std::forward<Y>(y)}};
}
/**
* POW(X, Y) function https://www.sqlite.org/lang_mathfunc.html#pow
*
* Difference with the previous function is that previous override has `double` as return type but this
* override accepts return type from you as a template argument. You can use any bindable type:
* `float`, `int`, `std::optional<double>` etc. This override is handy when you expect `null` as result.
*
* Example:
*
* auto rows = storage.select(sqlite_orm::pow<std::optional<double>>(2, 5)); // decltype(rows) is std::vector<std::optional<double>>
*/
template<class R, class X, class Y>
internal::built_in_function_t<R, internal::pow_string, X, Y> pow(X x, Y y) {
return {std::tuple<X, Y>{std::forward<X>(x), std::forward<Y>(y)}};
}
/**
* POWER(X, Y) function https://www.sqlite.org/lang_mathfunc.html#pow
*
* Example:
*
* auto rows = storage.select(sqlite_orm::power(2, 5)); // decltype(rows) is std::vector<double>
*/
template<class X, class Y>
internal::built_in_function_t<double, internal::power_string, X, Y> power(X x, Y y) {
return {std::tuple<X, Y>{std::forward<X>(x), std::forward<Y>(y)}};
}
/**
* POWER(X, Y) function https://www.sqlite.org/lang_mathfunc.html#pow
*
* Difference with the previous function is that previous override has `double` as return type but this
* override accepts return type from you as a template argument. You can use any bindable type:
* `float`, `int`, `std::optional<double>` etc. This override is handy when you expect `null` as result.
*
* Example:
*
* auto rows = storage.select(sqlite_orm::power<std::optional<double>>(2, 5)); // decltype(rows) is std::vector<std::optional<double>>
*/
template<class R, class X, class Y>
internal::built_in_function_t<R, internal::power_string, X, Y> power(X x, Y y) {
return {std::tuple<X, Y>{std::forward<X>(x), std::forward<Y>(y)}};
}
/**
* RADIANS(X) function https://www.sqlite.org/lang_mathfunc.html#radians
*
* Example:
*
* auto rows = storage.select(sqlite_orm::radians(&Triangle::cornerAInDegrees)); // decltype(rows) is std::vector<double>
*/
template<class X>
internal::built_in_function_t<double, internal::radians_string, X> radians(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
/**
* RADIANS(X) function https://www.sqlite.org/lang_mathfunc.html#radians
*
* Difference with the previous function is that previous override has `double` as return type but this
* override accepts return type from you as a template argument. You can use any bindable type:
* `float`, `int`, `std::optional<double>` etc. This override is handy when you expect `null` as result.
*
* Example:
*
* auto rows = storage.select(sqlite_orm::radians<std::optional<double>>(&Triangle::cornerAInDegrees)); // decltype(rows) is std::vector<std::optional<double>>
*/
template<class R, class X>
internal::built_in_function_t<R, internal::radians_string, X> radians(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
/**
* SIN(X) function https://www.sqlite.org/lang_mathfunc.html#sin
*
* Example:
*
* auto rows = storage.select(sqlite_orm::sin(&Triangle::cornerA)); // decltype(rows) is std::vector<double>
*/
template<class X>
internal::built_in_function_t<double, internal::sin_string, X> sin(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
/**
* SIN(X) function https://www.sqlite.org/lang_mathfunc.html#sin
*
* Difference with the previous function is that previous override has `double` as return type but this
* override accepts return type from you as a template argument. You can use any bindable type:
* `float`, `int`, `std::optional<double>` etc. This override is handy when you expect `null` as result.
*
* Example:
*
* auto rows = storage.select(sqlite_orm::sin<std::optional<double>>(&Triangle::cornerA)); // decltype(rows) is std::vector<std::optional<double>>
*/
template<class R, class X>
internal::built_in_function_t<R, internal::sin_string, X> sin(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
/**
* SINH(X) function https://www.sqlite.org/lang_mathfunc.html#sinh
*
* Example:
*
* auto rows = storage.select(sqlite_orm::sinh(&Triangle::cornerA)); // decltype(rows) is std::vector<double>
*/
template<class X>
internal::built_in_function_t<double, internal::sinh_string, X> sinh(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
/**
* SINH(X) function https://www.sqlite.org/lang_mathfunc.html#sinh
*
* Difference with the previous function is that previous override has `double` as return type but this
* override accepts return type from you as a template argument. You can use any bindable type:
* `float`, `int`, `std::optional<double>` etc. This override is handy when you expect `null` as result.
*
* Example:
*
* auto rows = storage.select(sqlite_orm::sinh<std::optional<double>>(&Triangle::cornerA)); // decltype(rows) is std::vector<std::optional<double>>
*/
template<class R, class X>
internal::built_in_function_t<R, internal::sinh_string, X> sinh(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
/**
* SQRT(X) function https://www.sqlite.org/lang_mathfunc.html#sqrt
*
* Example:
*
* auto rows = storage.select(sqlite_orm::sqrt(25)); // decltype(rows) is std::vector<double>
*/
template<class X>
internal::built_in_function_t<double, internal::sqrt_string, X> sqrt(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
/**
* SQRT(X) function https://www.sqlite.org/lang_mathfunc.html#sqrt
*
* Difference with the previous function is that previous override has `double` as return type but this
* override accepts return type from you as a template argument. You can use any bindable type:
* `float`, `int`, `std::optional<double>` etc. This override is handy when you expect `null` as result.
*
* Example:
*
* auto rows = storage.select(sqlite_orm::sqrt<int>(25)); // decltype(rows) is std::vector<int>
*/
template<class R, class X>
internal::built_in_function_t<R, internal::sqrt_string, X> sqrt(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
/**
* TAN(X) function https://www.sqlite.org/lang_mathfunc.html#tan
*
* Example:
*
* auto rows = storage.select(sqlite_orm::tan(&Triangle::cornerC)); // decltype(rows) is std::vector<double>
*/
template<class X>
internal::built_in_function_t<double, internal::tan_string, X> tan(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
/**
* TAN(X) function https://www.sqlite.org/lang_mathfunc.html#tan
*
* Difference with the previous function is that previous override has `double` as return type but this
* override accepts return type from you as a template argument. You can use any bindable type:
* `float`, `int`, `std::optional<double>` etc. This override is handy when you expect `null` as result.
*
* Example:
*
* auto rows = storage.select(sqlite_orm::tan<float>(&Triangle::cornerC)); // decltype(rows) is std::vector<float>
*/
template<class R, class X>
internal::built_in_function_t<R, internal::tan_string, X> tan(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
/**
* TANH(X) function https://www.sqlite.org/lang_mathfunc.html#tanh
*
* Example:
*
* auto rows = storage.select(sqlite_orm::tanh(&Triangle::cornerC)); // decltype(rows) is std::vector<double>
*/
template<class X>
internal::built_in_function_t<double, internal::tanh_string, X> tanh(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
/**
* TANH(X) function https://www.sqlite.org/lang_mathfunc.html#tanh
*
* Difference with the previous function is that previous override has `double` as return type but this
* override accepts return type from you as a template argument. You can use any bindable type:
* `float`, `int`, `std::optional<double>` etc. This override is handy when you expect `null` as result.
*
* Example:
*
* auto rows = storage.select(sqlite_orm::tanh<float>(&Triangle::cornerC)); // decltype(rows) is std::vector<float>
*/
template<class R, class X>
internal::built_in_function_t<R, internal::tanh_string, X> tanh(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
/**
* TRUNC(X) function https://www.sqlite.org/lang_mathfunc.html#trunc
*
* Example:
*
* auto rows = storage.select(sqlite_orm::trunc(5.5)); // decltype(rows) is std::vector<double>
*/
template<class X>
internal::built_in_function_t<double, internal::trunc_string, X> trunc(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
/**
* TRUNC(X) function https://www.sqlite.org/lang_mathfunc.html#trunc
*
* Difference with the previous function is that previous override has `double` as return type but this
* override accepts return type from you as a template argument. You can use any bindable type:
* `float`, `int`, `std::optional<double>` etc. This override is handy when you expect `null` as result.
*
* Example:
*
* auto rows = storage.select(sqlite_orm::trunc<float>(5.5)); // decltype(rows) is std::vector<float>
*/
template<class R, class X>
internal::built_in_function_t<R, internal::trunc_string, X> trunc(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
#endif // SQLITE_ENABLE_MATH_FUNCTIONS
/**
* TYPEOF(x) function https://sqlite.org/lang_corefunc.html#typeof
*/
template<class T>
internal::built_in_function_t<std::string, internal::typeof_string, T> typeof_(T t) {
return {std::tuple<T>{std::forward<T>(t)}};
}
/**
* UNICODE(x) function https://sqlite.org/lang_corefunc.html#unicode
*/
template<class T>
internal::built_in_function_t<int, internal::unicode_string, T> unicode(T t) {
return {std::tuple<T>{std::forward<T>(t)}};
}
/**
* LENGTH(x) function https://sqlite.org/lang_corefunc.html#length
*/
template<class T>
internal::built_in_function_t<int, internal::length_string, T> length(T t) {
return {std::tuple<T>{std::forward<T>(t)}};
}
/**
* ABS(x) function https://sqlite.org/lang_corefunc.html#abs
*/
template<class T>
internal::built_in_function_t<std::unique_ptr<double>, internal::abs_string, T> abs(T t) {
return {std::tuple<T>{std::forward<T>(t)}};
}
/**
* LOWER(x) function https://sqlite.org/lang_corefunc.html#lower
*/
template<class T>
internal::built_in_function_t<std::string, internal::lower_string, T> lower(T t) {
return {std::tuple<T>{std::forward<T>(t)}};
}
/**
* UPPER(x) function https://sqlite.org/lang_corefunc.html#upper
*/
template<class T>
internal::built_in_function_t<std::string, internal::upper_string, T> upper(T t) {
return {std::tuple<T>{std::forward<T>(t)}};
}
/**
* LAST_INSERT_ROWID(x) function https://www.sqlite.org/lang_corefunc.html#last_insert_rowid
*/
inline internal::built_in_function_t<int64, internal::last_insert_rowid_string> last_insert_rowid() {
return {{}};
}
/**
* TOTAL_CHANGES() function https://sqlite.org/lang_corefunc.html#total_changes
*/
inline internal::built_in_function_t<int, internal::total_changes_string> total_changes() {
return {{}};
}
/**
* CHANGES() function https://sqlite.org/lang_corefunc.html#changes
*/
inline internal::built_in_function_t<int, internal::changes_string> changes() {
return {{}};
}
/**
* TRIM(X) function https://sqlite.org/lang_corefunc.html#trim
*/
template<class T>
internal::built_in_function_t<std::string, internal::trim_string, T> trim(T t) {
return {std::tuple<T>{std::forward<T>(t)}};
}
/**
* TRIM(X,Y) function https://sqlite.org/lang_corefunc.html#trim
*/
template<class X, class Y>
internal::built_in_function_t<std::string, internal::trim_string, X, Y> trim(X x, Y y) {
return {std::tuple<X, Y>{std::forward<X>(x), std::forward<Y>(y)}};
}
/**
* LTRIM(X) function https://sqlite.org/lang_corefunc.html#ltrim
*/
template<class X>
internal::built_in_function_t<std::string, internal::ltrim_string, X> ltrim(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
/**
* LTRIM(X,Y) function https://sqlite.org/lang_corefunc.html#ltrim
*/
template<class X, class Y>
internal::built_in_function_t<std::string, internal::ltrim_string, X, Y> ltrim(X x, Y y) {
return {std::tuple<X, Y>{std::forward<X>(x), std::forward<Y>(y)}};
}
/**
* RTRIM(X) function https://sqlite.org/lang_corefunc.html#rtrim
*/
template<class X>
internal::built_in_function_t<std::string, internal::rtrim_string, X> rtrim(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
/**
* RTRIM(X,Y) function https://sqlite.org/lang_corefunc.html#rtrim
*/
template<class X, class Y>
internal::built_in_function_t<std::string, internal::rtrim_string, X, Y> rtrim(X x, Y y) {
return {std::tuple<X, Y>{std::forward<X>(x), std::forward<Y>(y)}};
}
/**
* HEX(X) function https://sqlite.org/lang_corefunc.html#hex
*/
template<class X>
internal::built_in_function_t<std::string, internal::hex_string, X> hex(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
/**
* QUOTE(X) function https://sqlite.org/lang_corefunc.html#quote
*/
template<class X>
internal::built_in_function_t<std::string, internal::quote_string, X> quote(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
/**
* RANDOMBLOB(X) function https://sqlite.org/lang_corefunc.html#randomblob
*/
template<class X>
internal::built_in_function_t<std::vector<char>, internal::randomblob_string, X> randomblob(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
/**
* INSTR(X) function https://sqlite.org/lang_corefunc.html#instr
*/
template<class X, class Y>
internal::built_in_function_t<int, internal::instr_string, X, Y> instr(X x, Y y) {
return {std::tuple<X, Y>{std::forward<X>(x), std::forward<Y>(y)}};
}
/**
* REPLACE(X) function https://sqlite.org/lang_corefunc.html#replace
*/
template<class X,
class Y,
class Z,
std::enable_if_t<internal::count_tuple<std::tuple<X, Y, Z>, internal::is_into>::value == 0, bool> = true>
internal::built_in_function_t<std::string, internal::replace_string, X, Y, Z> replace(X x, Y y, Z z) {
return {std::tuple<X, Y, Z>{std::forward<X>(x), std::forward<Y>(y), std::forward<Z>(z)}};
}
/**
* ROUND(X) function https://sqlite.org/lang_corefunc.html#round
*/
template<class X>
internal::built_in_function_t<double, internal::round_string, X> round(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
/**
* ROUND(X, Y) function https://sqlite.org/lang_corefunc.html#round
*/
template<class X, class Y>
internal::built_in_function_t<double, internal::round_string, X, Y> round(X x, Y y) {
return {std::tuple<X, Y>{std::forward<X>(x), std::forward<Y>(y)}};
}
#if SQLITE_VERSION_NUMBER >= 3007016
/**
* CHAR(X1,X2,...,XN) function https://sqlite.org/lang_corefunc.html#char
*/
template<class... Args>
internal::built_in_function_t<std::string, internal::char_string, Args...> char_(Args... args) {
return {std::make_tuple(std::forward<Args>(args)...)};
}
/**
* RANDOM() function https://www.sqlite.org/lang_corefunc.html#random
*/
inline internal::built_in_function_t<int, internal::random_string> random() {
return {{}};
}
#endif
/**
* COALESCE(X,Y,...) function https://www.sqlite.org/lang_corefunc.html#coalesce
*/
template<class R = void, class... Args>
auto coalesce(Args... args)
-> internal::built_in_function_t<typename std::conditional_t< // choose R or common type
std::is_void<R>::value,
std::common_type<internal::field_type_or_type_t<Args>...>,
polyfill::type_identity<R>>::type,
internal::coalesce_string,
Args...> {
return {std::make_tuple(std::forward<Args>(args)...)};
}
/**
* IFNULL(X,Y) function https://www.sqlite.org/lang_corefunc.html#ifnull
*/
template<class R = void, class X, class Y>
auto ifnull(X x, Y y) -> internal::built_in_function_t<
typename std::conditional_t< // choose R or common type
std::is_void<R>::value,
std::common_type<internal::field_type_or_type_t<X>, internal::field_type_or_type_t<Y>>,
polyfill::type_identity<R>>::type,
internal::ifnull_string,
X,
Y> {
return {std::make_tuple(std::move(x), std::move(y))};
}
/**
* NULLIF(X,Y) function https://www.sqlite.org/lang_corefunc.html#nullif
*/
#if defined(SQLITE_ORM_OPTIONAL_SUPPORTED) && defined(SQLITE_ORM_IF_CONSTEXPR_SUPPORTED)
/**
* NULLIF(X,Y) using common return type of X and Y
*/
template<class R = void,
class X,
class Y,
std::enable_if_t<polyfill::disjunction_v<polyfill::negation<std::is_void<R>>,
polyfill::is_detected<std::common_type_t,
internal::field_type_or_type_t<X>,
internal::field_type_or_type_t<Y>>>,
bool> = true>
auto nullif(X x, Y y) {
if constexpr(std::is_void_v<R>) {
using F = internal::built_in_function_t<
std::optional<std::common_type_t<internal::field_type_or_type_t<X>, internal::field_type_or_type_t<Y>>>,
internal::nullif_string,
X,
Y>;
return F{std::make_tuple(std::move(x), std::move(y))};
} else {
using F = internal::built_in_function_t<R, internal::nullif_string, X, Y>;
return F{std::make_tuple(std::move(x), std::move(y))};
}
}
#else
template<class R, class X, class Y>
internal::built_in_function_t<R, internal::nullif_string, X, Y> nullif(X x, Y y) {
return {std::make_tuple(std::move(x), std::move(y))};
}
#endif
/**
* DATE(timestring, modifier, modifier, ...) function https://www.sqlite.org/lang_datefunc.html
*/
template<class... Args>
internal::built_in_function_t<std::string, internal::date_string, Args...> date(Args... args) {
return {std::tuple<Args...>{std::forward<Args>(args)...}};
}
/**
* TIME(timestring, modifier, modifier, ...) function https://www.sqlite.org/lang_datefunc.html
*/
template<class... Args>
internal::built_in_function_t<std::string, internal::time_string, Args...> time(Args... args) {
return {std::tuple<Args...>{std::forward<Args>(args)...}};
}
/**
* DATETIME(timestring, modifier, modifier, ...) function https://www.sqlite.org/lang_datefunc.html
*/
template<class... Args>
internal::built_in_function_t<std::string, internal::datetime_string, Args...> datetime(Args... args) {
return {std::tuple<Args...>{std::forward<Args>(args)...}};
}
/**
* JULIANDAY(timestring, modifier, modifier, ...) function https://www.sqlite.org/lang_datefunc.html
*/
template<class... Args>
internal::built_in_function_t<double, internal::julianday_string, Args...> julianday(Args... args) {
return {std::tuple<Args...>{std::forward<Args>(args)...}};
}
/**
* STRFTIME(timestring, modifier, modifier, ...) function https://www.sqlite.org/lang_datefunc.html
*/
template<class... Args>
internal::built_in_function_t<std::string, internal::strftime_string, Args...> strftime(Args... args) {
return {std::tuple<Args...>{std::forward<Args>(args)...}};
}
/**
* ZEROBLOB(N) function https://www.sqlite.org/lang_corefunc.html#zeroblob
*/
template<class N>
internal::built_in_function_t<std::vector<char>, internal::zeroblob_string, N> zeroblob(N n) {
return {std::tuple<N>{std::forward<N>(n)}};
}
/**
* SUBSTR(X,Y) function https://www.sqlite.org/lang_corefunc.html#substr
*/
template<class X, class Y>
internal::built_in_function_t<std::string, internal::substr_string, X, Y> substr(X x, Y y) {
return {std::tuple<X, Y>{std::forward<X>(x), std::forward<Y>(y)}};
}
/**
* SUBSTR(X,Y,Z) function https://www.sqlite.org/lang_corefunc.html#substr
*/
template<class X, class Y, class Z>
internal::built_in_function_t<std::string, internal::substr_string, X, Y, Z> substr(X x, Y y, Z z) {
return {std::tuple<X, Y, Z>{std::forward<X>(x), std::forward<Y>(y), std::forward<Z>(z)}};
}
#ifdef SQLITE_SOUNDEX
/**
* SOUNDEX(X) function https://www.sqlite.org/lang_corefunc.html#soundex
*/
template<class X>
internal::built_in_function_t<std::string, internal::soundex_string, X> soundex(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
#endif
/**
* TOTAL(X) aggregate function.
*/
template<class X>
internal::built_in_aggregate_function_t<double, internal::total_string, X> total(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
/**
* SUM(X) aggregate function.
*/
template<class X>
internal::built_in_aggregate_function_t<std::unique_ptr<double>, internal::sum_string, X> sum(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
/**
* COUNT(X) aggregate function.
*/
template<class X>
internal::built_in_aggregate_function_t<int, internal::count_string, X> count(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
/**
* COUNT(*) without FROM function.
*/
inline internal::count_asterisk_without_type count() {
return {};
}
/**
* COUNT(*) with FROM function. Specified type T will be serializeed as
* a from argument.
*/
template<class T>
internal::count_asterisk_t<T> count() {
return {};
}
/**
* AVG(X) aggregate function.
*/
template<class X>
internal::built_in_aggregate_function_t<double, internal::avg_string, X> avg(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
/**
* MAX(X) aggregate function.
*/
template<class X>
internal::built_in_aggregate_function_t<internal::unique_ptr_result_of<X>, internal::max_string, X> max(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
/**
* MIN(X) aggregate function.
*/
template<class X>
internal::built_in_aggregate_function_t<internal::unique_ptr_result_of<X>, internal::min_string, X> min(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
/**
* MAX(X, Y, ...) scalar function.
* The return type is the type of the first argument.
*/
template<class X, class Y, class... Rest>
internal::built_in_function_t<internal::unique_ptr_result_of<X>, internal::max_string, X, Y, Rest...>
max(X x, Y y, Rest... rest) {
return {std::tuple<X, Y, Rest...>{std::forward<X>(x), std::forward<Y>(y), std::forward<Rest>(rest)...}};
}
/**
* MIN(X, Y, ...) scalar function.
* The return type is the type of the first argument.
*/
template<class X, class Y, class... Rest>
internal::built_in_function_t<internal::unique_ptr_result_of<X>, internal::min_string, X, Y, Rest...>
min(X x, Y y, Rest... rest) {
return {std::tuple<X, Y, Rest...>{std::forward<X>(x), std::forward<Y>(y), std::forward<Rest>(rest)...}};
}
/**
* GROUP_CONCAT(X) aggregate function.
*/
template<class X>
internal::built_in_aggregate_function_t<std::string, internal::group_concat_string, X> group_concat(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
/**
* GROUP_CONCAT(X, Y) aggregate function.
*/
template<class X, class Y>
internal::built_in_aggregate_function_t<std::string, internal::group_concat_string, X, Y> group_concat(X x, Y y) {
return {std::tuple<X, Y>{std::forward<X>(x), std::forward<Y>(y)}};
}
#ifdef SQLITE_ENABLE_JSON1
template<class X>
internal::built_in_function_t<std::string, internal::json_string, X> json(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
template<class... Args>
internal::built_in_function_t<std::string, internal::json_array_string, Args...> json_array(Args... args) {
return {std::tuple<Args...>{std::forward<Args>(args)...}};
}
template<class X>
internal::built_in_function_t<int, internal::json_array_length_string, X> json_array_length(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
template<class R, class X>
internal::built_in_function_t<R, internal::json_array_length_string, X> json_array_length(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
template<class X, class Y>
internal::built_in_function_t<int, internal::json_array_length_string, X, Y> json_array_length(X x, Y y) {
return {std::tuple<X, Y>{std::forward<X>(x), std::forward<Y>(y)}};
}
template<class R, class X, class Y>
internal::built_in_function_t<R, internal::json_array_length_string, X, Y> json_array_length(X x, Y y) {
return {std::tuple<X, Y>{std::forward<X>(x), std::forward<Y>(y)}};
}
template<class R, class X, class... Args>
internal::built_in_function_t<R, internal::json_extract_string, X, Args...> json_extract(X x, Args... args) {
return {std::tuple<X, Args...>{std::forward<X>(x), std::forward<Args>(args)...}};
}
template<class X, class... Args>
internal::built_in_function_t<std::string, internal::json_insert_string, X, Args...> json_insert(X x,
Args... args) {
static_assert(std::tuple_size<std::tuple<Args...>>::value % 2 == 0,
"number of arguments in json_insert must be odd");
return {std::tuple<X, Args...>{std::forward<X>(x), std::forward<Args>(args)...}};
}
template<class X, class... Args>
internal::built_in_function_t<std::string, internal::json_replace_string, X, Args...> json_replace(X x,
Args... args) {
static_assert(std::tuple_size<std::tuple<Args...>>::value % 2 == 0,
"number of arguments in json_replace must be odd");
return {std::tuple<X, Args...>{std::forward<X>(x), std::forward<Args>(args)...}};
}
template<class X, class... Args>
internal::built_in_function_t<std::string, internal::json_set_string, X, Args...> json_set(X x, Args... args) {
static_assert(std::tuple_size<std::tuple<Args...>>::value % 2 == 0,
"number of arguments in json_set must be odd");
return {std::tuple<X, Args...>{std::forward<X>(x), std::forward<Args>(args)...}};
}
template<class... Args>
internal::built_in_function_t<std::string, internal::json_object_string, Args...> json_object(Args... args) {
static_assert(std::tuple_size<std::tuple<Args...>>::value % 2 == 0,
"number of arguments in json_object must be even");
return {std::tuple<Args...>{std::forward<Args>(args)...}};
}
template<class X, class Y>
internal::built_in_function_t<std::string, internal::json_patch_string, X, Y> json_patch(X x, Y y) {
return {std::tuple<X, Y>{std::forward<X>(x), std::forward<Y>(y)}};
}
template<class X, class... Args>
internal::built_in_function_t<std::string, internal::json_remove_string, X, Args...> json_remove(X x,
Args... args) {
return {std::tuple<X, Args...>{std::forward<X>(x), std::forward<Args>(args)...}};
}
template<class R, class X, class... Args>
internal::built_in_function_t<R, internal::json_remove_string, X, Args...> json_remove(X x, Args... args) {
return {std::tuple<X, Args...>{std::forward<X>(x), std::forward<Args>(args)...}};
}
template<class X>
internal::built_in_function_t<std::string, internal::json_type_string, X> json_type(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
template<class R, class X>
internal::built_in_function_t<R, internal::json_type_string, X> json_type(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
template<class X, class Y>
internal::built_in_function_t<std::string, internal::json_type_string, X, Y> json_type(X x, Y y) {
return {std::tuple<X, Y>{std::forward<X>(x), std::forward<Y>(y)}};
}
template<class R, class X, class Y>
internal::built_in_function_t<R, internal::json_type_string, X, Y> json_type(X x, Y y) {
return {std::tuple<X, Y>{std::forward<X>(x), std::forward<Y>(y)}};
}
template<class X>
internal::built_in_function_t<bool, internal::json_valid_string, X> json_valid(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
template<class R, class X>
internal::built_in_function_t<R, internal::json_quote_string, X> json_quote(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
template<class X>
internal::built_in_function_t<std::string, internal::json_group_array_string, X> json_group_array(X x) {
return {std::tuple<X>{std::forward<X>(x)}};
}
template<class X, class Y>
internal::built_in_function_t<std::string, internal::json_group_object_string, X, Y> json_group_object(X x, Y y) {
return {std::tuple<X, Y>{std::forward<X>(x), std::forward<Y>(y)}};
}
#endif // SQLITE_ENABLE_JSON1
template<class L,
class R,
std::enable_if_t<polyfill::disjunction_v<std::is_base_of<internal::arithmetic_t, L>,
std::is_base_of<internal::arithmetic_t, R>>,
bool> = true>
internal::add_t<L, R> operator+(L l, R r) {
return {std::move(l), std::move(r)};
}
template<class L,
class R,
std::enable_if_t<polyfill::disjunction_v<std::is_base_of<internal::arithmetic_t, L>,
std::is_base_of<internal::arithmetic_t, R>>,
bool> = true>
internal::sub_t<L, R> operator-(L l, R r) {
return {std::move(l), std::move(r)};
}
template<class L,
class R,
std::enable_if_t<polyfill::disjunction_v<std::is_base_of<internal::arithmetic_t, L>,
std::is_base_of<internal::arithmetic_t, R>>,
bool> = true>
internal::mul_t<L, R> operator*(L l, R r) {
return {std::move(l), std::move(r)};
}
template<class L,
class R,
std::enable_if_t<polyfill::disjunction_v<std::is_base_of<internal::arithmetic_t, L>,
std::is_base_of<internal::arithmetic_t, R>>,
bool> = true>
internal::div_t<L, R> operator/(L l, R r) {
return {std::move(l), std::move(r)};
}
template<class L,
class R,
std::enable_if_t<polyfill::disjunction_v<std::is_base_of<internal::arithmetic_t, L>,
std::is_base_of<internal::arithmetic_t, R>>,
bool> = true>
internal::mod_t<L, R> operator%(L l, R r) {
return {std::move(l), std::move(r)};
}
}
#pragma once
namespace sqlite_orm {
namespace internal {
template<class L, class R>
bool compare_any(const L& /*lhs*/, const R& /*rhs*/) {
return false;
}
template<class O>
bool compare_any(const O& lhs, const O& rhs) {
return lhs == rhs;
}
}
}
#pragma once
#include <type_traits> // std::remove_const
#include <string> // std::string
#include <utility> // std::move
#include <tuple> // std::tuple, std::get, std::tuple_size
// #include "functional/cxx_optional.h"
// #include "functional/cxx_universal.h"
// #include "functional/cxx_type_traits_polyfill.h"
// #include "is_base_of_template.h"
// #include "tuple_helper/tuple_filter.h"
// #include "optional_container.h"
// #include "ast/where.h"
#include <type_traits> // std::false_type, std::true_type
#include <utility> // std::move
// #include "../functional/cxx_universal.h"
// #include "../functional/cxx_type_traits_polyfill.h"
// #include "../serialize_result_type.h"
namespace sqlite_orm {
namespace internal {
struct where_string {
serialize_result_type serialize() const {
return "WHERE";
}
};
/**
* WHERE argument holder.
* C is expression type. Can be any expression like: is_equal_t, is_null_t, exists_t etc
* Don't construct it manually. Call `where(...)` function instead.
*/
template<class C>
struct where_t : where_string {
using expression_type = C;
expression_type expression;
where_t(expression_type expression_) : expression(std::move(expression_)) {}
};
template<class T>
SQLITE_ORM_INLINE_VAR constexpr bool is_where_v = polyfill::is_specialization_of_v<T, where_t>;
template<class T>
using is_where = polyfill::bool_constant<is_where_v<T>>;
}
/**
* WHERE clause. Use it to add WHERE conditions wherever you like.
* C is expression type. Can be any expression like: is_equal_t, is_null_t, exists_t etc
* @example
* // SELECT name
* // FROM letters
* // WHERE id > 3
* auto rows = storage.select(&Letter::name, where(greater_than(&Letter::id, 3)));
*/
template<class C>
internal::where_t<C> where(C expression) {
return {std::move(expression)};
}
}
// #include "ast/group_by.h"
#include <tuple> // std::tuple, std::make_tuple
#include <type_traits> // std::true_type, std::false_type
#include <utility> // std::forward, std::move
// #include "../functional/cxx_type_traits_polyfill.h"
namespace sqlite_orm {
namespace internal {
template<class T, class... Args>
struct group_by_with_having {
using args_type = std::tuple<Args...>;
using expression_type = T;
args_type args;
expression_type expression;
};
/**
* GROUP BY pack holder.
*/
template<class... Args>
struct group_by_t {
using args_type = std::tuple<Args...>;
args_type args;
template<class T>
group_by_with_having<T, Args...> having(T expression) {
return {std::move(this->args), std::move(expression)};
}
};
template<class T>
using is_group_by = polyfill::disjunction<polyfill::is_specialization_of<T, group_by_t>,
polyfill::is_specialization_of<T, group_by_with_having>>;
/**
* HAVING holder.
* T is having argument type.
*/
template<class T>
struct having_t {
using expression_type = T;
expression_type expression;
};
template<class T>
using is_having = polyfill::is_specialization_of<T, having_t>;
}
/**
* GROUP BY column.
* Example: storage.get_all<Employee>(group_by(&Employee::name))
*/
template<class... Args>
internal::group_by_t<Args...> group_by(Args&&... args) {
return {std::make_tuple(std::forward<Args>(args)...)};
}
/**
* [Deprecation notice]: this function is deprecated and will be removed in v1.9. Please use `group_by(...).having(...)` instead.
*
* HAVING(expression).
* Example: storage.get_all<Employee>(group_by(&Employee::name), having(greater_than(count(&Employee::name), 2)));
*/
template<class T>
[[deprecated("Use group_by(...).having(...) instead")]] internal::having_t<T> having(T expression) {
return {std::move(expression)};
}
}
// #include "core_functions.h"
// #include "alias_traits.h"
// #include "column_pointer.h"
#include <string> // std::string
#include <utility> // std::move
// #include "functional/cxx_core_features.h"
// #include "conditions.h"
// #include "alias_traits.h"
namespace sqlite_orm {
namespace internal {
/**
* This class is used to store explicit mapped type T and its column descriptor (member pointer/getter/setter).
* Is useful when mapped type is derived from other type and base class has members mapped to a storage.
*/
template<class T, class F>
struct column_pointer {
using self = column_pointer<T, F>;
using type = T;
using field_type = F;
field_type field;
template<class R>
is_equal_t<self, R> operator==(R rhs) const {
return {*this, std::move(rhs)};
}
template<class R>
is_not_equal_t<self, R> operator!=(R rhs) const {
return {*this, std::move(rhs)};
}
template<class R>
lesser_than_t<self, R> operator<(R rhs) const {
return {*this, std::move(rhs)};
}
template<class R>
lesser_or_equal_t<self, R> operator<=(R rhs) const {
return {*this, std::move(rhs)};
}
template<class R>
greater_than_t<self, R> operator>(R rhs) const {
return {*this, std::move(rhs)};
}
template<class R>
greater_or_equal_t<self, R> operator>=(R rhs) const {
return {*this, std::move(rhs)};
}
};
template<class T>
SQLITE_ORM_INLINE_VAR constexpr bool is_column_pointer_v = polyfill::is_specialization_of_v<T, column_pointer>;
template<class T>
using is_column_pointer = polyfill::bool_constant<is_column_pointer_v<T>>;
}
}
namespace sqlite_orm {
namespace internal {
#ifdef SQLITE_ORM_OPTIONAL_SUPPORTED
template<class T>
struct as_optional_t {
using value_type = T;
value_type value;
};
#endif // SQLITE_ORM_OPTIONAL_SUPPORTED
struct distinct_string {
operator std::string() const {
return "DISTINCT";
}
};
/**
* DISCTINCT generic container.
*/
template<class T>
struct distinct_t : distinct_string {
using value_type = T;
value_type value;
distinct_t(value_type value_) : value(std::move(value_)) {}
};
struct all_string {
operator std::string() const {
return "ALL";
}
};
/**
* ALL generic container.
*/
template<class T>
struct all_t : all_string {
T value;
all_t(T value_) : value(std::move(value_)) {}
};
template<class... Args>
struct columns_t {
using columns_type = std::tuple<Args...>;
columns_type columns;
bool distinct = false;
static constexpr int count = std::tuple_size<columns_type>::value;
#ifndef SQLITE_ORM_AGGREGATE_NSDMI_SUPPORTED
columns_t(columns_type columns) : columns{std::move(columns)} {}
#endif
};
template<class T>
SQLITE_ORM_INLINE_VAR constexpr bool is_columns_v = polyfill::is_specialization_of_v<T, columns_t>;
template<class T>
using is_columns = polyfill::bool_constant<is_columns_v<T>>;
/**
* Subselect object type.
*/
template<class T, class... Args>
struct select_t {
using return_type = T;
using conditions_type = std::tuple<Args...>;
return_type col;
conditions_type conditions;
bool highest_level = false;
#ifndef SQLITE_ORM_AGGREGATE_NSDMI_SUPPORTED
select_t(return_type col, conditions_type conditions) :
col{std::move(col)}, conditions{std::move(conditions)} {}
#endif
};
template<class T>
SQLITE_ORM_INLINE_VAR constexpr bool is_select_v = polyfill::is_specialization_of_v<T, select_t>;
template<class T>
using is_select = polyfill::bool_constant<is_select_v<T>>;
/**
* Base for UNION, UNION ALL, EXCEPT and INTERSECT
*/
template<class L, class R>
struct compound_operator {
using left_type = L;
using right_type = R;
left_type left;
right_type right;
compound_operator(left_type l, right_type r) : left(std::move(l)), right(std::move(r)) {
this->left.highest_level = true;
this->right.highest_level = true;
}
};
template<class T>
SQLITE_ORM_INLINE_VAR constexpr bool is_compound_operator_v = is_base_of_template_v<T, compound_operator>;
template<class T>
using is_compound_operator = polyfill::bool_constant<is_compound_operator_v<T>>;
struct union_base {
bool all = false;
#ifndef SQLITE_ORM_AGGREGATE_NSDMI_SUPPORTED
union_base(bool all) : all{all} {}
#endif
operator std::string() const {
if(!this->all) {
return "UNION";
} else {
return "UNION ALL";
}
}
};
/**
* UNION object type.
*/
template<class L, class R>
struct union_t : public compound_operator<L, R>, union_base {
using left_type = typename compound_operator<L, R>::left_type;
using right_type = typename compound_operator<L, R>::right_type;
union_t(left_type l, right_type r, bool all_) :
compound_operator<L, R>{std::move(l), std::move(r)}, union_base{all_} {}
union_t(left_type l, right_type r) : union_t{std::move(l), std::move(r), false} {}
};
struct except_string {
operator std::string() const {
return "EXCEPT";
}
};
/**
* EXCEPT object type.
*/
template<class L, class R>
struct except_t : compound_operator<L, R>, except_string {
using super = compound_operator<L, R>;
using left_type = typename super::left_type;
using right_type = typename super::right_type;
using super::super;
};
struct intersect_string {
operator std::string() const {
return "INTERSECT";
}
};
/**
* INTERSECT object type.
*/
template<class L, class R>
struct intersect_t : compound_operator<L, R>, intersect_string {
using super = compound_operator<L, R>;
using left_type = typename super::left_type;
using right_type = typename super::right_type;
using super::super;
};
/**
* Generic way to get DISTINCT value from any type.
*/
template<class T>
bool get_distinct(const T&) {
return false;
}
template<class... Args>
bool get_distinct(const columns_t<Args...>& cols) {
return cols.distinct;
}
template<class T>
struct asterisk_t {
using type = T;
bool defined_order = false;
#ifndef SQLITE_ORM_AGGREGATE_NSDMI_SUPPORTED
asterisk_t(bool definedOrder) : defined_order{definedOrder} {}
#endif
};
template<class T>
struct object_t {
using type = T;
bool defined_order = false;
#ifndef SQLITE_ORM_AGGREGATE_NSDMI_SUPPORTED
object_t(bool definedOrder) : defined_order{definedOrder} {}
#endif
};
template<class T>
struct then_t {
using expression_type = T;
expression_type expression;
};
template<class R, class T, class E, class... Args>
struct simple_case_t {
using return_type = R;
using case_expression_type = T;
using args_type = std::tuple<Args...>;
using else_expression_type = E;
optional_container<case_expression_type> case_expression;
args_type args;
optional_container<else_expression_type> else_expression;
};
/**
* T is a case expression type
* E is else type (void is ELSE is omitted)
* Args... is a pack of WHEN expressions
*/
template<class R, class T, class E, class... Args>
struct simple_case_builder {
using return_type = R;
using case_expression_type = T;
using args_type = std::tuple<Args...>;
using else_expression_type = E;
optional_container<case_expression_type> case_expression;
args_type args;
optional_container<else_expression_type> else_expression;
template<class W, class Th>
simple_case_builder<R, T, E, Args..., std::pair<W, Th>> when(W w, then_t<Th> t) {
using result_args_type = std::tuple<Args..., std::pair<W, Th>>;
std::pair<W, Th> newPair{std::move(w), std::move(t.expression)};
result_args_type result_args = std::tuple_cat(std::move(this->args), std::make_tuple(newPair));
std::get<std::tuple_size<result_args_type>::value - 1>(result_args) = std::move(newPair);
return {std::move(this->case_expression), std::move(result_args), std::move(this->else_expression)};
}
simple_case_t<R, T, E, Args...> end() {
return {std::move(this->case_expression), std::move(args), std::move(this->else_expression)};
}
template<class El>
simple_case_builder<R, T, El, Args...> else_(El el) {
return {{std::move(this->case_expression)}, std::move(args), {std::move(el)}};
}
};
template<class T>
void validate_conditions() {
static_assert(count_tuple<T, is_where>::value <= 1, "a single query cannot contain > 1 WHERE blocks");
static_assert(count_tuple<T, is_group_by>::value <= 1, "a single query cannot contain > 1 GROUP BY blocks");
static_assert(count_tuple<T, is_order_by>::value <= 1, "a single query cannot contain > 1 ORDER BY blocks");
static_assert(count_tuple<T, is_limit>::value <= 1, "a single query cannot contain > 1 LIMIT blocks");
static_assert(count_tuple<T, is_from>::value <= 1, "a single query cannot contain > 1 FROM blocks");
}
}
#ifdef SQLITE_ORM_OPTIONAL_SUPPORTED
template<class T>
internal::as_optional_t<T> as_optional(T value) {
return {std::move(value)};
}
#endif // SQLITE_ORM_OPTIONAL_SUPPORTED
template<class T>
internal::then_t<T> then(T t) {
return {std::move(t)};
}
template<class R, class T>
internal::simple_case_builder<R, T, void> case_(T t) {
return {{std::move(t)}};
}
template<class R>
internal::simple_case_builder<R, void, void> case_() {
return {};
}
template<class T>
internal::distinct_t<T> distinct(T t) {
return {std::move(t)};
}
template<class T>
internal::all_t<T> all(T t) {
return {std::move(t)};
}
template<class... Args>
internal::columns_t<Args...> distinct(internal::columns_t<Args...> cols) {
cols.distinct = true;
return cols;
}
template<class... Args>
internal::columns_t<Args...> columns(Args... args) {
return {std::make_tuple<Args...>(std::forward<Args>(args)...)};
}
/**
* Use it like this:
* struct MyType : BaseType { ... };
* storage.select(column<MyType>(&BaseType::id));
*/
template<class T, class F>
internal::column_pointer<T, F> column(F f) {
return {std::move(f)};
}
/**
* Public function for subselect query. Is useful in UNION queries.
*/
template<class T, class... Args>
internal::select_t<T, Args...> select(T t, Args... args) {
using args_tuple = std::tuple<Args...>;
internal::validate_conditions<args_tuple>();
return {std::move(t), std::make_tuple(std::forward<Args>(args)...)};
}
/**
* Public function for UNION operator.
* lhs and rhs are subselect objects.
* Look through example in examples/union.cpp
*/
template<class L, class R>
internal::union_t<L, R> union_(L lhs, R rhs) {
return {std::move(lhs), std::move(rhs)};
}
/**
* Public function for EXCEPT operator.
* lhs and rhs are subselect objects.
* Look through example in examples/except.cpp
*/
template<class L, class R>
internal::except_t<L, R> except(L lhs, R rhs) {
return {std::move(lhs), std::move(rhs)};
}
template<class L, class R>
internal::intersect_t<L, R> intersect(L lhs, R rhs) {
return {std::move(lhs), std::move(rhs)};
}
/**
* Public function for UNION ALL operator.
* lhs and rhs are subselect objects.
* Look through example in examples/union.cpp
*/
template<class L, class R>
internal::union_t<L, R> union_all(L lhs, R rhs) {
return {std::move(lhs), std::move(rhs), true};
}
/**
* `SELECT * FROM T` expression that fetches results as tuples.
* T is a type mapped to a storage, or an alias of it.
* The `definedOrder` parameter denotes the expected order of result columns.
* The default is the implicit order as returned by SQLite, which may differ from the defined order
* if the schema of a table has been changed.
* By specifying the defined order, the columns are written out in the resulting select SQL string.
*
* In pseudo code:
* select(asterisk<User>(false)) -> SELECT * from User
* select(asterisk<User>(true)) -> SELECT id, name from User
*
* Example: auto rows = storage.select(asterisk<User>());
* // decltype(rows) is std::vector<std::tuple<...all columns in implicitly stored order...>>
* Example: auto rows = storage.select(asterisk<User>(true));
* // decltype(rows) is std::vector<std::tuple<...all columns in declared make_table order...>>
*
* If you need to fetch results as objects instead of tuples please use `object<T>()`.
*/
template<class T>
internal::asterisk_t<T> asterisk(bool definedOrder = false) {
return {definedOrder};
}
/**
* `SELECT * FROM T` expression that fetches results as objects of type T.
* T is a type mapped to a storage, or an alias of it.
*
* Example: auto rows = storage.select(object<User>());
* // decltype(rows) is std::vector<User>, where the User objects are constructed from columns in implicitly stored order
* Example: auto rows = storage.select(object<User>(true));
* // decltype(rows) is std::vector<User>, where the User objects are constructed from columns in declared make_table order
*
* If you need to fetch results as tuples instead of objects please use `asterisk<T>()`.
*/
template<class T>
internal::object_t<T> object(bool definedOrder = false) {
return {definedOrder};
}
}
#pragma once
#include <string> // std::string
// #include "functional/cxx_universal.h"
namespace sqlite_orm {
struct table_info {
int cid = 0;
std::string name;
std::string type;
bool notnull = false;
std::string dflt_value;
int pk = 0;
#if !defined(SQLITE_ORM_AGGREGATE_NSDMI_SUPPORTED) || !defined(SQLITE_ORM_AGGREGATE_PAREN_INIT_SUPPORTED)
table_info(decltype(cid) cid_,
decltype(name) name_,
decltype(type) type_,
decltype(notnull) notnull_,
decltype(dflt_value) dflt_value_,
decltype(pk) pk_) :
cid(cid_),
name(std::move(name_)), type(std::move(type_)), notnull(notnull_), dflt_value(std::move(dflt_value_)),
pk(pk_) {}
#endif
};
struct table_xinfo {
int cid = 0;
std::string name;
std::string type;
bool notnull = false;
std::string dflt_value;
int pk = 0;
int hidden = 0; // different than 0 => generated_always_as() - TODO verify
#if !defined(SQLITE_ORM_AGGREGATE_NSDMI_SUPPORTED) || !defined(SQLITE_ORM_AGGREGATE_PAREN_INIT_SUPPORTED)
table_xinfo(decltype(cid) cid_,
decltype(name) name_,
decltype(type) type_,
decltype(notnull) notnull_,
decltype(dflt_value) dflt_value_,
decltype(pk) pk_,
decltype(hidden) hidden_) :
cid(cid_),
name(std::move(name_)), type(std::move(type_)), notnull(notnull_), dflt_value(std::move(dflt_value_)),
pk(pk_), hidden{hidden_} {}
#endif
};
}
#pragma once
#include <memory>
#include <sstream>
#include <string>
#include <tuple>
// #include "functional/cxx_universal.h"
// #include "optional_container.h"
// NOTE Idea : Maybe also implement a custom trigger system to call a c++ callback when a trigger triggers ?
// (Could be implemented with a normal trigger that insert or update an internal table and then retreive
// the event in the C++ code, to call the C++ user callback, with update hooks: https://www.sqlite.org/c3ref/update_hook.html)
// It could be an interesting feature to bring to sqlite_orm that other libraries don't have ?
namespace sqlite_orm {
namespace internal {
enum class trigger_timing { trigger_before, trigger_after, trigger_instead_of };
enum class trigger_type { trigger_delete, trigger_insert, trigger_update };
/**
* This class is an intermediate SQLite trigger, to be used with
* `make_trigger` to create a full trigger.
* T is the base of the trigger (contains its type, timing and associated table)
* S is the list of trigger statements
*/
template<class T, class... S>
struct partial_trigger_t {
using statements_type = std::tuple<S...>;
/**
* Base of the trigger (contains its type, timing and associated table)
*/
T base;
/**
* Statements of the triggers (to be executed when the trigger fires)
*/
statements_type statements;
partial_trigger_t(T trigger_base, S... statements) :
base{std::move(trigger_base)}, statements{std::make_tuple<S...>(std::forward<S>(statements)...)} {}
partial_trigger_t& end() {
return *this;
}
};
struct base_trigger {
/**
* Name of the trigger
*/
std::string name;
};
/**
* This class represent a SQLite trigger
* T is the base of the trigger (contains its type, timing and associated table)
* S is the list of trigger statments
*/
template<class T, class... S>
struct trigger_t : base_trigger {
using object_type = void;
using elements_type = typename partial_trigger_t<T, S...>::statements_type;
/**
* Base of the trigger (contains its type, timing and associated table)
*/
T base;
/**
* Statements of the triggers (to be executed when the trigger fires)
*/
elements_type elements;
#ifndef SQLITE_ORM_AGGREGATE_BASES_SUPPORTED
trigger_t(std::string name, T trigger_base, elements_type statements) :
base_trigger{std::move(name)}, base(std::move(trigger_base)), elements(std::move(statements)) {}
#endif
};
/**
* Base of a trigger. Contains the trigger type/timming and the table type
* T is the table type
* W is `when` expression type
* Type is the trigger base type (type+timing)
*/
template<class T, class W, class Type>
struct trigger_base_t {
using table_type = T;
using when_type = W;
using trigger_type_base = Type;
/**
* Contains the trigger type and timing
*/
trigger_type_base type_base;
/**
* Value used to determine if we execute the trigger on each row or on each statement
* (SQLite doesn't support the FOR EACH STATEMENT syntax yet: https://sqlite.org/lang_createtrigger.html#description
* so this value is more of a placeholder for a later update)
*/
bool do_for_each_row = false;
/**
* When expression (if any)
* If a WHEN expression is specified, the trigger will only execute
* if the expression evaluates to true when the trigger is fired
*/
optional_container<when_type> container_when;
trigger_base_t(trigger_type_base type_base_) : type_base(std::move(type_base_)) {}
trigger_base_t& for_each_row() {
this->do_for_each_row = true;
return *this;
}
template<class WW>
trigger_base_t<T, WW, Type> when(WW expression) {
trigger_base_t<T, WW, Type> res(this->type_base);
res.container_when.field = std::move(expression);
return res;
}
template<class... S>
partial_trigger_t<trigger_base_t<T, W, Type>, S...> begin(S... statements) {
return {*this, std::forward<S>(statements)...};
}
};
/**
* Contains the trigger type and timing
*/
struct trigger_type_base_t {
/**
* Value indicating if the trigger is run BEFORE, AFTER or INSTEAD OF
* the statement that fired it.
*/
trigger_timing timing;
/**
* The type of the statement that would cause the trigger to fire.
* Can be DELETE, INSERT, or UPDATE.
*/
trigger_type type;
trigger_type_base_t(trigger_timing timing, trigger_type type) : timing(timing), type(type) {}
template<class T>
trigger_base_t<T, void, trigger_type_base_t> on() {
return {*this};
}
};
/**
* Special case for UPDATE OF (columns)
* Contains the trigger type and timing
*/
template<class... Cs>
struct trigger_update_type_t : trigger_type_base_t {
using columns_type = std::tuple<Cs...>;
/**
* Contains the columns the trigger is watching. Will only
* trigger if one of theses columns is updated.
*/
columns_type columns;
trigger_update_type_t(trigger_timing timing, trigger_type type, Cs... columns) :
trigger_type_base_t(timing, type), columns(std::make_tuple<Cs...>(std::forward<Cs>(columns)...)) {}
template<class T>
trigger_base_t<T, void, trigger_update_type_t<Cs...>> on() {
return {*this};
}
};
struct trigger_timing_t {
trigger_timing timing;
trigger_type_base_t delete_() {
return {timing, trigger_type::trigger_delete};
}
trigger_type_base_t insert() {
return {timing, trigger_type::trigger_insert};
}
trigger_type_base_t update() {
return {timing, trigger_type::trigger_update};
}
template<class... Cs>
trigger_update_type_t<Cs...> update_of(Cs... columns) {
return {timing, trigger_type::trigger_update, std::forward<Cs>(columns)...};
}
};
struct raise_t {
enum class type_t {
ignore,
rollback,
abort,
fail,
};
type_t type = type_t::ignore;
std::string message;
#ifndef SQLITE_ORM_AGGREGATE_NSDMI_SUPPORTED
raise_t(type_t type, std::string message) : type{type}, message{std::move(message)} {}
#endif
};
template<class T>
struct new_t {
using expression_type = T;
expression_type expression;
};
template<class T>
struct old_t {
using expression_type = T;
expression_type expression;
};
} // NAMESPACE internal
/**
* NEW.expression function used within TRIGGER expressions
*/
template<class T>
internal::new_t<T> new_(T expression) {
return {std::move(expression)};
}
/**
* OLD.expression function used within TRIGGER expressions
*/
template<class T>
internal::old_t<T> old(T expression) {
return {std::move(expression)};
}
/**
* RAISE(IGNORE) expression used within TRIGGER expressions
*/
inline internal::raise_t raise_ignore() {
return {internal::raise_t::type_t::ignore, {}};
}
/**
* RAISE(ROLLBACK, %message%) expression used within TRIGGER expressions
*/
inline internal::raise_t raise_rollback(std::string message) {
return {internal::raise_t::type_t::rollback, std::move(message)};
}
/**
* RAISE(ABORT, %message%) expression used within TRIGGER expressions
*/
inline internal::raise_t raise_abort(std::string message) {
return {internal::raise_t::type_t::abort, std::move(message)};
}
/**
* RAISE(FAIL, %message%) expression used within TRIGGER expressions
*/
inline internal::raise_t raise_fail(std::string message) {
return {internal::raise_t::type_t::fail, std::move(message)};
}
template<class T, class... S>
internal::trigger_t<T, S...> make_trigger(std::string name, const internal::partial_trigger_t<T, S...>& part) {
SQLITE_ORM_CLANG_SUPPRESS_MISSING_BRACES(
return {std::move(name), std::move(part.base), std::move(part.statements)});
}
inline internal::trigger_timing_t before() {
return {internal::trigger_timing::trigger_before};
}
inline internal::trigger_timing_t after() {
return {internal::trigger_timing::trigger_after};
}
inline internal::trigger_timing_t instead_of() {
return {internal::trigger_timing::trigger_instead_of};
}
}
#pragma once
#include "ayu/libs/sqlite/sqlite3.h"
#include <memory> // std::unique_ptr
#include <type_traits> // std::integral_constant
namespace sqlite_orm {
/**
* Guard class which finalizes `sqlite3_stmt` in dtor
*/
using statement_finalizer =
std::unique_ptr<sqlite3_stmt, std::integral_constant<decltype(&sqlite3_finalize), sqlite3_finalize>>;
}
#pragma once
#include <type_traits>
namespace sqlite_orm {
/**
* Helper classes used by statement_binder and row_extractor.
*/
struct int_or_smaller_tag {};
struct bigint_tag {};
struct real_tag {};
template<class V>
using arithmetic_tag_t =
std::conditional_t<std::is_integral<V>::value,
// Integer class
std::conditional_t<sizeof(V) <= sizeof(int), int_or_smaller_tag, bigint_tag>,
// Floating-point class
real_tag>;
}
#pragma once
#include <type_traits>
#include <memory>
#include <utility>
// #include "functional/cxx_universal.h"
// #include "xdestroy_handling.h"
#include <type_traits> // std::integral_constant
#if defined(SQLITE_ORM_CONCEPTS_SUPPORTED) && SQLITE_ORM_HAS_INCLUDE(<concepts>)
#include <concepts>
#endif
// #include "functional/cxx_universal.h"
// #include "functional/cxx_type_traits_polyfill.h"
namespace sqlite_orm {
using xdestroy_fn_t = void (*)(void*);
using null_xdestroy_t = std::integral_constant<xdestroy_fn_t, nullptr>;
SQLITE_ORM_INLINE_VAR constexpr null_xdestroy_t null_xdestroy_f{};
}
namespace sqlite_orm {
namespace internal {
#ifdef SQLITE_ORM_CONCEPTS_SUPPORTED
/**
* Constrains a deleter to be state-less.
*/
template<typename D>
concept stateless_deleter = std::is_empty_v<D> && std::is_default_constructible_v<D>;
/**
* Constrains a deleter to be an integral function constant.
*/
template<typename D>
concept integral_fp_c = requires {
typename D::value_type;
D::value;
requires std::is_function_v<std::remove_pointer_t<typename D::value_type>>;
};
/**
* Constrains a deleter to be or to yield a function pointer.
*/
template<typename D>
concept yields_fp = requires(D d) {
// yielding function pointer by using the plus trick
{ +d };
requires std::is_function_v<std::remove_pointer_t<decltype(+d)>>;
};
#endif
#if __cpp_lib_concepts >= 201907L
/**
* Yield a deleter's function pointer.
*/
template<yields_fp D>
struct yield_fp_of {
using type = decltype(+std::declval<D>());
};
#else
template<typename D>
SQLITE_ORM_INLINE_VAR constexpr bool is_stateless_deleter_v =
std::is_empty<D>::value && std::is_default_constructible<D>::value;
template<typename D, typename SFINAE = void>
struct is_integral_fp_c : std::false_type {};
template<typename D>
struct is_integral_fp_c<
D,
polyfill::void_t<typename D::value_type,
decltype(D::value),
std::enable_if_t<std::is_function<std::remove_pointer_t<typename D::value_type>>::value>>>
: std::true_type {};
template<typename D>
SQLITE_ORM_INLINE_VAR constexpr bool is_integral_fp_c_v = is_integral_fp_c<D>::value;
template<typename D, typename SFINAE = void>
struct can_yield_fp : std::false_type {};
template<typename D>
struct can_yield_fp<
D,
polyfill::void_t<
decltype(+std::declval<D>()),
std::enable_if_t<std::is_function<std::remove_pointer_t<decltype(+std::declval<D>())>>::value>>>
: std::true_type {};
template<typename D>
SQLITE_ORM_INLINE_VAR constexpr bool can_yield_fp_v = can_yield_fp<D>::value;
template<typename D, bool = can_yield_fp_v<D>>
struct yield_fp_of {
using type = void;
};
template<typename D>
struct yield_fp_of<D, true> {
using type = decltype(+std::declval<D>());
};
#endif
template<typename D>
using yielded_fn_t = typename yield_fp_of<D>::type;
#if __cpp_lib_concepts >= 201907L
template<typename D>
concept is_unusable_for_xdestroy = (!stateless_deleter<D> &&
(yields_fp<D> && !std::convertible_to<yielded_fn_t<D>, xdestroy_fn_t>));
/**
* This concept tests whether a deleter yields a function pointer, which is convertible to an xdestroy function pointer.
* Note: We are using 'is convertible' rather than 'is same' because of any exception specification.
*/
template<typename D>
concept yields_xdestroy = yields_fp<D> && std::convertible_to<yielded_fn_t<D>, xdestroy_fn_t>;
template<typename D, typename P>
concept needs_xdestroy_proxy = (stateless_deleter<D> &&
(!yields_fp<D> || !std::convertible_to<yielded_fn_t<D>, xdestroy_fn_t>));
/**
* xDestroy function that constructs and invokes the stateless deleter.
*
* Requires that the deleter can be called with the q-qualified pointer argument;
* it doesn't check so explicitly, but a compiler error will occur.
*/
template<typename D, typename P>
requires(!integral_fp_c<D>)
void xdestroy_proxy(void* p) noexcept {
// C-casting `void* -> P*` like statement_binder<pointer_binding<P, T, D>>
auto o = (P*)p;
// ignoring return code
(void)D{}(o);
}
/**
* xDestroy function that invokes the integral function pointer constant.
*
* Performs a const-cast of the argument pointer in order to allow for C API functions
* that take a non-const parameter, but user code passes a pointer to a const object.
*/
template<integral_fp_c D, typename P>
void xdestroy_proxy(void* p) noexcept {
// C-casting `void* -> P*` like statement_binder<pointer_binding<P, T, D>>,
auto o = (std::remove_cv_t<P>*)(P*)p;
// ignoring return code
(void)D{}(o);
}
#else
template<typename D>
SQLITE_ORM_INLINE_VAR constexpr bool is_unusable_for_xdestroy_v =
!is_stateless_deleter_v<D> &&
(can_yield_fp_v<D> && !std::is_convertible<yielded_fn_t<D>, xdestroy_fn_t>::value);
template<typename D>
SQLITE_ORM_INLINE_VAR constexpr bool can_yield_xdestroy_v =
can_yield_fp_v<D> && std::is_convertible<yielded_fn_t<D>, xdestroy_fn_t>::value;
template<typename D, typename P>
SQLITE_ORM_INLINE_VAR constexpr bool needs_xdestroy_proxy_v =
is_stateless_deleter_v<D> &&
(!can_yield_fp_v<D> || !std::is_convertible<yielded_fn_t<D>, xdestroy_fn_t>::value);
template<typename D, typename P, std::enable_if_t<!is_integral_fp_c_v<D>, bool> = true>
void xdestroy_proxy(void* p) noexcept {
// C-casting `void* -> P*` like statement_binder<pointer_binding<P, T, D>>
auto o = (P*)p;
// ignoring return code
(void)D{}(o);
}
template<typename D, typename P, std::enable_if_t<is_integral_fp_c_v<D>, bool> = true>
void xdestroy_proxy(void* p) noexcept {
// C-casting `void* -> P*` like statement_binder<pointer_binding<P, T, D>>,
auto o = (std::remove_cv_t<P>*)(P*)p;
// ignoring return code
(void)D{}(o);
}
#endif
}
}
namespace sqlite_orm {
#if __cpp_lib_concepts >= 201907L
/**
* Prohibits using a yielded function pointer, which is not of type xdestroy_fn_t.
*
* Explicitly declared for better error messages.
*/
template<typename D, typename P>
constexpr xdestroy_fn_t obtain_xdestroy_for(D, P*) noexcept
requires(internal::is_unusable_for_xdestroy<D>)
{
static_assert(polyfill::always_false_v<D>,
"A function pointer, which is not of type xdestroy_fn_t, is prohibited.");
return nullptr;
}
/**
* Obtains a proxy 'xDestroy' function pointer [of type void(*)(void*)]
* for a deleter in a type-safe way.
*
* The deleter can be one of:
* - integral function constant
* - state-less (empty) deleter
* - non-capturing lambda
*
* Type-safety is garanteed by checking whether the deleter or yielded function pointer
* is invocable with the non-q-qualified pointer value.
*/
template<typename D, typename P>
constexpr xdestroy_fn_t obtain_xdestroy_for(D, P*) noexcept
requires(internal::needs_xdestroy_proxy<D, P>)
{
return internal::xdestroy_proxy<D, P>;
}
/**
* Directly obtains a 'xDestroy' function pointer [of type void(*)(void*)]
* from a deleter in a type-safe way.
*
* The deleter can be one of:
* - function pointer of type xdestroy_fn_t
* - structure holding a function pointer
* - integral function constant
* - non-capturing lambda
* ... and yield a function pointer of type xdestroy_fn_t.
*
* Type-safety is garanteed by checking whether the deleter or yielded function pointer
* is invocable with the non-q-qualified pointer value.
*/
template<typename D, typename P>
constexpr xdestroy_fn_t obtain_xdestroy_for(D d, P*) noexcept
requires(internal::yields_xdestroy<D>)
{
return d;
}
#else
template<typename D, typename P, std::enable_if_t<internal::is_unusable_for_xdestroy_v<D>, bool> = true>
constexpr xdestroy_fn_t obtain_xdestroy_for(D, P*) {
static_assert(polyfill::always_false_v<D>,
"A function pointer, which is not of type xdestroy_fn_t, is prohibited.");
return nullptr;
}
template<typename D, typename P, std::enable_if_t<internal::needs_xdestroy_proxy_v<D, P>, bool> = true>
constexpr xdestroy_fn_t obtain_xdestroy_for(D, P*) noexcept {
return internal::xdestroy_proxy<D, P>;
}
template<typename D, typename P, std::enable_if_t<internal::can_yield_xdestroy_v<D>, bool> = true>
constexpr xdestroy_fn_t obtain_xdestroy_for(D d, P*) noexcept {
return d;
}
#endif
}
namespace sqlite_orm {
/**
* Wraps a pointer and tags it with a pointer type,
* used for accepting function parameters,
* facilitating the 'pointer-passing interface'.
*
* Template parameters:
* - P: The value type, possibly const-qualified.
* - T: An integral constant string denoting the pointer type, e.g. `carray_pvt_name`.
*
*/
template<typename P, typename T>
struct pointer_arg {
static_assert(std::is_convertible<typename T::value_type, const char*>::value,
"`std::integral_constant<>` must be convertible to `const char*`");
using tag = T;
P* p_;
P* ptr() const noexcept {
return p_;
}
operator P*() const noexcept {
return p_;
}
};
/**
* Pointer value with associated deleter function,
* used for returning or binding pointer values
* as part of facilitating the 'pointer-passing interface'.
*
* Template parameters:
* - D: The deleter for the pointer value;
* can be one of:
* - function pointer
* - integral function pointer constant
* - state-less (empty) deleter
* - non-capturing lambda
* - structure implicitly yielding a function pointer
*
* @note Use one of the factory functions to create a pointer binding,
* e.g. bindable_carray_pointer or statically_bindable_carray_pointer().
*
* @example
* ```
* int64 rememberedId;
* storage.select(func<remember_fn>(&Object::id, statically_bindable_carray_pointer(&rememberedId)));
* ```
*/
template<typename P, typename T, typename D>
class pointer_binding {
P* p_;
SQLITE_ORM_NOUNIQUEADDRESS
D d_;
protected:
// Constructing pointer bindings must go through bindable_pointer()
template<class T2, class P2, class D2>
friend auto bindable_pointer(P2*, D2) noexcept -> pointer_binding<P2, T2, D2>;
template<class B>
friend B bindable_pointer(typename B::qualified_type*, typename B::deleter_type) noexcept;
// Construct from pointer and deleter.
// Transfers ownership of the passed in object.
pointer_binding(P* p, D d = {}) noexcept : p_{p}, d_{std::move(d)} {}
public:
using qualified_type = P;
using tag = T;
using deleter_type = D;
pointer_binding(const pointer_binding&) = delete;
pointer_binding& operator=(const pointer_binding&) = delete;
pointer_binding& operator=(pointer_binding&&) = delete;
pointer_binding(pointer_binding&& other) noexcept :
p_{std::exchange(other.p_, nullptr)}, d_{std::move(other.d_)} {}
~pointer_binding() {
if(p_) {
if(auto xDestroy = get_xdestroy()) {
// note: C-casting `P* -> void*` like statement_binder<pointer_binding<P, T, D>>
xDestroy((void*)p_);
}
}
}
P* ptr() const noexcept {
return p_;
}
P* take_ptr() noexcept {
return std::exchange(p_, nullptr);
}
xdestroy_fn_t get_xdestroy() const noexcept {
return obtain_xdestroy_for(d_, p_);
}
};
/**
* Template alias for a static pointer value binding.
* 'Static' means that ownership won't be transferred to sqlite,
* sqlite doesn't delete it, and sqlite assumes the object
* pointed to is valid throughout the lifetime of a statement.
*/
template<typename P, typename T>
using static_pointer_binding = pointer_binding<P, T, null_xdestroy_t>;
}
namespace sqlite_orm {
/**
* Wrap a pointer, its type and its deleter function for binding it to a statement.
*
* Unless the deleter yields a nullptr 'xDestroy' function the ownership of the pointed-to-object
* is transferred to the pointer binding, which will delete it through
* the deleter when the statement finishes.
*/
template<class T, class P, class D>
auto bindable_pointer(P* p, D d) noexcept -> pointer_binding<P, T, D> {
return {p, std::move(d)};
}
template<class T, class P, class D>
auto bindable_pointer(std::unique_ptr<P, D> p) noexcept -> pointer_binding<P, T, D> {
return bindable_pointer<T>(p.release(), p.get_deleter());
}
template<typename B>
B bindable_pointer(typename B::qualified_type* p, typename B::deleter_type d = {}) noexcept {
return B{p, std::move(d)};
}
/**
* Wrap a pointer and its type for binding it to a statement.
*
* Note: 'Static' means that ownership of the pointed-to-object won't be transferred
* and sqlite assumes the object pointed to is valid throughout the lifetime of a statement.
*/
template<class T, class P>
auto statically_bindable_pointer(P* p) noexcept -> static_pointer_binding<P, T> {
return bindable_pointer<T>(p, null_xdestroy_f);
}
template<typename B>
B statically_bindable_pointer(typename B::qualified_type* p,
typename B::deleter_type* /*exposition*/ = nullptr) noexcept {
return bindable_pointer<B>(p);
}
/**
* Forward a pointer value from an argument.
*/
template<class P, class T>
auto rebind_statically(const pointer_arg<P, T>& pv) noexcept -> static_pointer_binding<P, T> {
return statically_bindable_pointer<T>(pv.ptr());
}
}
#pragma once
#include "ayu/libs/sqlite/sqlite3.h"
#include <type_traits> // std::enable_if_t, std::is_arithmetic, std::is_same, std::true_type, std::false_type, std::make_index_sequence, std::index_sequence
#include <memory> // std::default_delete
#include <string> // std::string, std::wstring
#include <vector> // std::vector
#include <cstring> // ::strncpy, ::strlen
// #include "functional/cxx_string_view.h"
#ifndef SQLITE_ORM_STRING_VIEW_SUPPORTED
#include <cwchar> // ::wcsncpy, ::wcslen
#endif
// #include "functional/cxx_universal.h"
// #include "functional/cxx_type_traits_polyfill.h"
// #include "functional/cxx_functional_polyfill.h"
#include <functional>
#if __cpp_lib_invoke < 201411L
#include <type_traits> // std::enable_if, std::is_member_object_pointer, std::is_member_function_pointer
#endif
#include <utility> // std::forward
#if __cpp_lib_invoke < 201411L
// #include "cxx_type_traits_polyfill.h"
#endif
// #include "../member_traits/member_traits.h"
namespace sqlite_orm {
namespace internal {
namespace polyfill {
// C++20 or later (unfortunately there's no feature test macro).
// Stupidly, clang says C++20, but `std::identity` was only implemented in libc++ 13 and libstd++-v3 10
// (the latter is used on Linux).
// gcc got it right and reports C++20 only starting with v10.
// The check here doesn't care and checks the library versions in use.
//
// Another way of detection would be the constrained algorithms feature macro __cpp_lib_ranges
#if(__cplusplus >= 202002L) && \
((!_LIBCPP_VERSION || _LIBCPP_VERSION >= 13) && (!_GLIBCXX_RELEASE || _GLIBCXX_RELEASE >= 10))
using std::identity;
#else
struct identity {
template<class T>
constexpr T&& operator()(T&& v) const noexcept {
return std::forward<T>(v);
}
using is_transparent = int;
};
#endif
#if __cpp_lib_invoke >= 201411L
using std::invoke;
#else
// pointer-to-data-member+object
template<class Callable,
class Object,
class... Args,
class Unqualified = remove_cvref_t<Callable>,
std::enable_if_t<std::is_member_object_pointer<Unqualified>::value, bool> = true>
decltype(auto) invoke(Callable&& callable, Object&& object, Args&&... args) {
return std::forward<Object>(object).*callable;
}
// pointer-to-member-function+object
template<class Callable,
class Object,
class... Args,
class Unqualified = remove_cvref_t<Callable>,
std::enable_if_t<std::is_member_function_pointer<Unqualified>::value, bool> = true>
decltype(auto) invoke(Callable&& callable, Object&& object, Args&&... args) {
return (std::forward<Object>(object).*callable)(std::forward<Args>(args)...);
}
// pointer-to-member+reference-wrapped object (expect `reference_wrapper::*`)
template<class Callable,
class Object,
class... Args,
std::enable_if_t<polyfill::negation_v<polyfill::is_specialization_of<
member_object_type_t<std::remove_reference_t<Callable>>,
std::reference_wrapper>>,
bool> = true>
decltype(auto) invoke(Callable&& callable, std::reference_wrapper<Object> wrapper, Args&&... args) {
return invoke(std::forward<Callable>(callable), wrapper.get(), std::forward<Args>(args)...);
}
// functor
template<class Callable, class... Args>
decltype(auto) invoke(Callable&& callable, Args&&... args) {
return std::forward<Callable>(callable)(std::forward<Args>(args)...);
}
#endif
}
}
namespace polyfill = internal::polyfill;
}
// #include "is_std_ptr.h"
// #include "tuple_helper/tuple_filter.h"
// #include "error_code.h"
// #include "arithmetic_tag.h"
// #include "xdestroy_handling.h"
// #include "pointer_value.h"
namespace sqlite_orm {
/**
* Helper class used for binding fields to sqlite3 statements.
*/
template<class V, typename Enable = void>
struct statement_binder;
namespace internal {
template<class T, class SFINAE = void>
SQLITE_ORM_INLINE_VAR constexpr bool is_bindable_v = false;
template<class T>
SQLITE_ORM_INLINE_VAR constexpr bool is_bindable_v<T, polyfill::void_t<decltype(statement_binder<T>())>> = true
// note : msvc 14.0 needs the parentheses constructor, otherwise `is_bindable<const char*>` isn't recognised.
// The strangest thing is that this is mutually exclusive with `is_printable_v`.
;
template<class T>
using is_bindable = polyfill::bool_constant<is_bindable_v<T>>;
}
/**
* Specialization for 'pointer-passing interface'.
*/
template<class P, class T, class D>
struct statement_binder<pointer_binding<P, T, D>, void> {
using V = pointer_binding<P, T, D>;
// ownership of pointed-to-object is left untouched and remains at prepared statement's AST expression
int bind(sqlite3_stmt* stmt, int index, const V& value) const {
// note: C-casting `P* -> void*`, internal::xdestroy_proxy() does the inverse
return sqlite3_bind_pointer(stmt, index, (void*)value.ptr(), T::value, null_xdestroy_f);
}
// ownership of pointed-to-object is transferred to sqlite
void result(sqlite3_context* context, V& value) const {
// note: C-casting `P* -> void*`,
// row_extractor<pointer_arg<P, T>>::extract() and internal::xdestroy_proxy() do the inverse
sqlite3_result_pointer(context, (void*)value.take_ptr(), T::value, value.get_xdestroy());
}
};
/**
* Specialization for arithmetic types.
*/
template<class V>
struct statement_binder<V, std::enable_if_t<std::is_arithmetic<V>::value>> {
int bind(sqlite3_stmt* stmt, int index, const V& value) const {
return this->bind(stmt, index, value, tag());
}
void result(sqlite3_context* context, const V& value) const {
this->result(context, value, tag());
}
private:
using tag = arithmetic_tag_t<V>;
int bind(sqlite3_stmt* stmt, int index, const V& value, int_or_smaller_tag) const {
return sqlite3_bind_int(stmt, index, static_cast<int>(value));
}
void result(sqlite3_context* context, const V& value, int_or_smaller_tag) const {
sqlite3_result_int(context, static_cast<int>(value));
}
int bind(sqlite3_stmt* stmt, int index, const V& value, bigint_tag) const {
return sqlite3_bind_int64(stmt, index, static_cast<sqlite3_int64>(value));
}
void result(sqlite3_context* context, const V& value, bigint_tag) const {
sqlite3_result_int64(context, static_cast<sqlite3_int64>(value));
}
int bind(sqlite3_stmt* stmt, int index, const V& value, real_tag) const {
return sqlite3_bind_double(stmt, index, static_cast<double>(value));
}
void result(sqlite3_context* context, const V& value, real_tag) const {
sqlite3_result_double(context, static_cast<double>(value));
}
};
/**
* Specialization for std::string and C-string.
*/
template<class V>
struct statement_binder<V,
std::enable_if_t<polyfill::disjunction_v<std::is_base_of<std::string, V>,
std::is_same<V, const char*>
#ifdef SQLITE_ORM_STRING_VIEW_SUPPORTED
,
std::is_same<V, std::string_view>
#endif
>>> {
int bind(sqlite3_stmt* stmt, int index, const V& value) const {
auto stringData = this->string_data(value);
return sqlite3_bind_text(stmt, index, stringData.first, stringData.second, SQLITE_TRANSIENT);
}
void result(sqlite3_context* context, const V& value) const {
auto stringData = this->string_data(value);
auto dataCopy = new char[stringData.second + 1];
constexpr auto deleter = std::default_delete<char[]>{};
::strncpy(dataCopy, stringData.first, stringData.second + 1);
sqlite3_result_text(context, dataCopy, stringData.second, obtain_xdestroy_for(deleter, dataCopy));
}
private:
#ifdef SQLITE_ORM_STRING_VIEW_SUPPORTED
std::pair<const char*, int> string_data(const std::string_view& s) const {
return {s.data(), int(s.size())};
}
#else
std::pair<const char*, int> string_data(const std::string& s) const {
return {s.c_str(), int(s.size())};
}
std::pair<const char*, int> string_data(const char* s) const {
return {s, int(::strlen(s))};
}
#endif
};
#ifndef SQLITE_ORM_OMITS_CODECVT
template<class V>
struct statement_binder<V,
std::enable_if_t<polyfill::disjunction_v<std::is_base_of<std::wstring, V>,
std::is_same<V, const wchar_t*>
#ifdef SQLITE_ORM_STRING_VIEW_SUPPORTED
,
std::is_same<V, std::wstring_view>
#endif
>>> {
int bind(sqlite3_stmt* stmt, int index, const V& value) const {
auto stringData = this->string_data(value);
std::wstring_convert<std::codecvt_utf8_utf16<wchar_t>> converter;
std::string utf8Str = converter.to_bytes(stringData.first, stringData.first + stringData.second);
return statement_binder<decltype(utf8Str)>().bind(stmt, index, utf8Str);
}
void result(sqlite3_context* context, const V& value) const {
auto stringData = this->string_data(value);
sqlite3_result_text16(context, stringData.first, stringData.second, nullptr);
}
private:
#ifdef SQLITE_ORM_STRING_VIEW_SUPPORTED
std::pair<const wchar_t*, int> string_data(const std::wstring_view& s) const {
return {s.data(), int(s.size())};
}
#else
std::pair<const wchar_t*, int> string_data(const std::wstring& s) const {
return {s.c_str(), int(s.size())};
}
std::pair<const wchar_t*, int> string_data(const wchar_t* s) const {
return {s, int(::wcslen(s))};
}
#endif
};
#endif
/**
* Specialization for nullptr_t.
*/
template<>
struct statement_binder<nullptr_t, void> {
int bind(sqlite3_stmt* stmt, int index, const nullptr_t&) const {
return sqlite3_bind_null(stmt, index);
}
void result(sqlite3_context* context, const nullptr_t&) const {
sqlite3_result_null(context);
}
};
#ifdef SQLITE_ORM_OPTIONAL_SUPPORTED
/**
* Specialization for std::nullopt_t.
*/
template<>
struct statement_binder<std::nullopt_t, void> {
int bind(sqlite3_stmt* stmt, int index, const std::nullopt_t&) const {
return sqlite3_bind_null(stmt, index);
}
void result(sqlite3_context* context, const std::nullopt_t&) const {
sqlite3_result_null(context);
}
};
#endif // SQLITE_ORM_OPTIONAL_SUPPORTED
template<class V>
struct statement_binder<
V,
std::enable_if_t<is_std_ptr<V>::value && internal::is_bindable_v<std::remove_cv_t<typename V::element_type>>>> {
using unqualified_type = std::remove_cv_t<typename V::element_type>;
int bind(sqlite3_stmt* stmt, int index, const V& value) const {
if(value) {
return statement_binder<unqualified_type>().bind(stmt, index, *value);
} else {
return statement_binder<nullptr_t>().bind(stmt, index, nullptr);
}
}
};
/**
* Specialization for binary data (std::vector<char>).
*/
template<>
struct statement_binder<std::vector<char>, void> {
int bind(sqlite3_stmt* stmt, int index, const std::vector<char>& value) const {
if(!value.empty()) {
return sqlite3_bind_blob(stmt, index, (const void*)&value.front(), int(value.size()), SQLITE_TRANSIENT);
} else {
return sqlite3_bind_blob(stmt, index, "", 0, SQLITE_TRANSIENT);
}
}
void result(sqlite3_context* context, const std::vector<char>& value) const {
if(!value.empty()) {
sqlite3_result_blob(context, (const void*)&value.front(), int(value.size()), nullptr);
} else {
sqlite3_result_blob(context, "", 0, nullptr);
}
}
};
#ifdef SQLITE_ORM_OPTIONAL_SUPPORTED
template<class V>
struct statement_binder<V,
std::enable_if_t<polyfill::is_specialization_of_v<V, std::optional> &&
internal::is_bindable_v<std::remove_cv_t<typename V::value_type>>>> {
using unqualified_type = std::remove_cv_t<typename V::value_type>;
int bind(sqlite3_stmt* stmt, int index, const V& value) const {
if(value) {
return statement_binder<unqualified_type>().bind(stmt, index, *value);
} else {
return statement_binder<std::nullopt_t>().bind(stmt, index, std::nullopt);
}
}
};
#endif // SQLITE_ORM_OPTIONAL_SUPPORTED
namespace internal {
struct conditional_binder {
sqlite3_stmt* stmt = nullptr;
int index = 1;
explicit conditional_binder(sqlite3_stmt* stmt) : stmt{stmt} {}
template<class T, satisfies<is_bindable, T> = true>
void operator()(const T& t) {
int rc = statement_binder<T>{}.bind(this->stmt, this->index++, t);
if(SQLITE_OK != rc) {
throw_translated_sqlite_error(this->stmt);
}
}
template<class T, satisfies_not<is_bindable, T> = true>
void operator()(const T&) const {}
};
struct field_value_binder : conditional_binder {
using conditional_binder::conditional_binder;
using conditional_binder::operator();
template<class T, satisfies_not<is_bindable, T> = true>
void operator()(const T&) const = delete;
template<class T>
void operator()(const T* value) {
if(!value) {
throw std::system_error{orm_error_code::value_is_null};
}
(*this)(*value);
}
};
struct tuple_value_binder {
sqlite3_stmt* stmt = nullptr;
explicit tuple_value_binder(sqlite3_stmt* stmt) : stmt{stmt} {}
template<class Tpl, class Projection>
void operator()(const Tpl& tpl, Projection project) const {
(*this)(tpl,
std::make_index_sequence<std::tuple_size<Tpl>::value>{},
std::forward<Projection>(project));
}
private:
#ifdef SQLITE_ORM_FOLD_EXPRESSIONS_SUPPORTED
template<class Tpl, size_t... Idx, class Projection>
void operator()(const Tpl& tpl, std::index_sequence<Idx...>, Projection project) const {
(this->bind(polyfill::invoke(project, std::get<Idx>(tpl)), Idx), ...);
}
#else
template<class Tpl, size_t I, size_t... Idx, class Projection>
void operator()(const Tpl& tpl, std::index_sequence<I, Idx...>, Projection project) const {
this->bind(polyfill::invoke(project, std::get<I>(tpl)), I);
(*this)(tpl, std::index_sequence<Idx...>{}, std::forward<Projection>(project));
}
template<class Tpl, class Projection>
void operator()(const Tpl&, std::index_sequence<>, Projection) const {}
#endif
template<class T>
void bind(const T& t, size_t idx) const {
int rc = statement_binder<T>{}.bind(this->stmt, int(idx + 1), t);
if(SQLITE_OK != rc) {
throw_translated_sqlite_error(this->stmt);
}
}
template<class T>
void bind(const T* value, size_t idx) const {
if(!value) {
throw std::system_error{orm_error_code::value_is_null};
}
(*this)(*value, idx);
}
};
template<class Tpl>
using bindable_filter_t = filter_tuple_t<Tpl, is_bindable>;
}
}
#pragma once
#include "ayu/libs/sqlite/sqlite3.h"
#include <type_traits> // std::enable_if_t, std::is_arithmetic, std::is_same, std::enable_if
#include <stdlib.h> // atof, atoi, atoll
#include <system_error> // std::system_error
#include <string> // std::string, std::wstring
#ifndef SQLITE_ORM_OMITS_CODECVT
#include <codecvt> // std::wstring_convert, std::codecvt_utf8_utf16
#endif // SQLITE_ORM_OMITS_CODECVT
#include <vector> // std::vector
#include <cstring> // strlen
#include <locale>
#include <algorithm> // std::copy
#include <iterator> // std::back_inserter
#include <tuple> // std::tuple, std::tuple_size, std::tuple_element
// #include "functional/cxx_universal.h"
// #include "arithmetic_tag.h"
// #include "pointer_value.h"
// #include "journal_mode.h"
#include <iterator> // std::back_inserter
#include <string> // std::string
#include <memory> // std::unique_ptr
#include <array> // std::array
#include <algorithm> // std::transform
#include <cctype> // std::toupper
#if defined(_WINNT_)
// DELETE is a macro defined in the Windows SDK (winnt.h)
#pragma push_macro("DELETE")
#undef DELETE
#endif
namespace sqlite_orm {
/**
* Caps case because of:
* 1) delete keyword;
* 2) https://www.sqlite.org/pragma.html#pragma_journal_mode original spelling
*/
enum class journal_mode : signed char {
DELETE = 0,
// An alternate enumeration value when using the Windows SDK that defines DELETE as a macro.
DELETE_ = DELETE,
TRUNCATE = 1,
PERSIST = 2,
MEMORY = 3,
WAL = 4,
OFF = 5,
};
namespace internal {
inline const std::string& to_string(journal_mode j) {
static std::string res[] = {
"DELETE",
"TRUNCATE",
"PERSIST",
"MEMORY",
"WAL",
"OFF",
};
return res[static_cast<int>(j)];
}
inline std::unique_ptr<journal_mode> journal_mode_from_string(const std::string& str) {
std::string upper_str;
std::transform(str.begin(), str.end(), std::back_inserter(upper_str), [](char c) {
return static_cast<char>(std::toupper(static_cast<int>(c)));
});
static std::array<journal_mode, 6> all = {{
journal_mode::DELETE,
journal_mode::TRUNCATE,
journal_mode::PERSIST,
journal_mode::MEMORY,
journal_mode::WAL,
journal_mode::OFF,
}};
for(auto j: all) {
if(to_string(j) == upper_str) {
return std::make_unique<journal_mode>(j);
}
}
return {};
}
}
}
#if defined(_WINNT_)
#pragma pop_macro("DELETE")
#endif
// #include "error_code.h"
// #include "is_std_ptr.h"
namespace sqlite_orm {
/**
* Helper class used to cast values from argv to V class
* which depends from column type.
*
*/
template<class V, typename Enable = void>
struct row_extractor {
// used in sqlite3_exec (select)
V extract(const char* row_value) const = delete;
// used in sqlite_column (iteration, get_all)
V extract(sqlite3_stmt* stmt, int columnIndex) const = delete;
// used in user defined functions
V extract(sqlite3_value* value) const = delete;
};
template<class R>
int extract_single_value(void* data, int argc, char** argv, char**) {
auto& res = *(R*)data;
if(argc) {
res = row_extractor<R>{}.extract(argv[0]);
}
return 0;
}
/**
* Specialization for the 'pointer-passing interface'.
*
* @note The 'pointer-passing' interface doesn't support (and in fact prohibits)
* extracting pointers from columns.
*/
template<class P, class T>
struct row_extractor<pointer_arg<P, T>, void> {
using V = pointer_arg<P, T>;
V extract(sqlite3_value* value) const {
return {(P*)sqlite3_value_pointer(value, T::value)};
}
};
/**
* Undefine using pointer_binding<> for querying values
*/
template<class P, class T, class D>
struct row_extractor<pointer_binding<P, T, D>, void>;
/**
* Specialization for arithmetic types.
*/
template<class V>
struct row_extractor<V, std::enable_if_t<std::is_arithmetic<V>::value>> {
V extract(const char* row_value) const {
return this->extract(row_value, tag());
}
V extract(sqlite3_stmt* stmt, int columnIndex) const {
return this->extract(stmt, columnIndex, tag());
}
V extract(sqlite3_value* value) const {
return this->extract(value, tag());
}
private:
using tag = arithmetic_tag_t<V>;
V extract(const char* row_value, const int_or_smaller_tag&) const {
return static_cast<V>(atoi(row_value));
}
V extract(sqlite3_stmt* stmt, int columnIndex, const int_or_smaller_tag&) const {
return static_cast<V>(sqlite3_column_int(stmt, columnIndex));
}
V extract(sqlite3_value* value, const int_or_smaller_tag&) const {
return static_cast<V>(sqlite3_value_int(value));
}
V extract(const char* row_value, const bigint_tag&) const {
return static_cast<V>(atoll(row_value));
}
V extract(sqlite3_stmt* stmt, int columnIndex, const bigint_tag&) const {
return static_cast<V>(sqlite3_column_int64(stmt, columnIndex));
}
V extract(sqlite3_value* value, const bigint_tag&) const {
return static_cast<V>(sqlite3_value_int64(value));
}
V extract(const char* row_value, const real_tag&) const {
return static_cast<V>(atof(row_value));
}
V extract(sqlite3_stmt* stmt, int columnIndex, const real_tag&) const {
return static_cast<V>(sqlite3_column_double(stmt, columnIndex));
}
V extract(sqlite3_value* value, const real_tag&) const {
return static_cast<V>(sqlite3_value_double(value));
}
};
/**
* Specialization for std::string.
*/
template<>
struct row_extractor<std::string, void> {
std::string extract(const char* row_value) const {
if(row_value) {
return row_value;
} else {
return {};
}
}
std::string extract(sqlite3_stmt* stmt, int columnIndex) const {
if(auto cStr = (const char*)sqlite3_column_text(stmt, columnIndex)) {
return cStr;
} else {
return {};
}
}
std::string extract(sqlite3_value* value) const {
if(auto cStr = (const char*)sqlite3_value_text(value)) {
return cStr;
} else {
return {};
}
}
};
#ifndef SQLITE_ORM_OMITS_CODECVT
/**
* Specialization for std::wstring.
*/
template<>
struct row_extractor<std::wstring, void> {
std::wstring extract(const char* row_value) const {
if(row_value) {
std::wstring_convert<std::codecvt_utf8_utf16<wchar_t>> converter;
return converter.from_bytes(row_value);
} else {
return {};
}
}
std::wstring extract(sqlite3_stmt* stmt, int columnIndex) const {
auto cStr = (const char*)sqlite3_column_text(stmt, columnIndex);
if(cStr) {
std::wstring_convert<std::codecvt_utf8_utf16<wchar_t>> converter;
return converter.from_bytes(cStr);
} else {
return {};
}
}
std::wstring extract(sqlite3_value* value) const {
if(auto cStr = (const wchar_t*)sqlite3_value_text16(value)) {
return cStr;
} else {
return {};
}
}
};
#endif // SQLITE_ORM_OMITS_CODECVT
template<class V>
struct row_extractor<V, std::enable_if_t<is_std_ptr<V>::value>> {
using unqualified_type = std::remove_cv_t<typename V::element_type>;
V extract(const char* row_value) const {
if(row_value) {
return is_std_ptr<V>::make(row_extractor<unqualified_type>().extract(row_value));
} else {
return {};
}
}
V extract(sqlite3_stmt* stmt, int columnIndex) const {
auto type = sqlite3_column_type(stmt, columnIndex);
if(type != SQLITE_NULL) {
return is_std_ptr<V>::make(row_extractor<unqualified_type>().extract(stmt, columnIndex));
} else {
return {};
}
}
V extract(sqlite3_value* value) const {
auto type = sqlite3_value_type(value);
if(type != SQLITE_NULL) {
return is_std_ptr<V>::make(row_extractor<unqualified_type>().extract(value));
} else {
return {};
}
}
};
#ifdef SQLITE_ORM_OPTIONAL_SUPPORTED
template<class V>
struct row_extractor<V, std::enable_if_t<polyfill::is_specialization_of_v<V, std::optional>>> {
using unqualified_type = std::remove_cv_t<typename V::value_type>;
V extract(const char* row_value) const {
if(row_value) {
return std::make_optional(row_extractor<unqualified_type>().extract(row_value));
} else {
return std::nullopt;
}
}
V extract(sqlite3_stmt* stmt, int columnIndex) const {
auto type = sqlite3_column_type(stmt, columnIndex);
if(type != SQLITE_NULL) {
return std::make_optional(row_extractor<unqualified_type>().extract(stmt, columnIndex));
} else {
return std::nullopt;
}
}
V extract(sqlite3_value* value) const {
auto type = sqlite3_value_type(value);
if(type != SQLITE_NULL) {
return std::make_optional(row_extractor<unqualified_type>().extract(value));
} else {
return std::nullopt;
}
}
};
#endif // SQLITE_ORM_OPTIONAL_SUPPORTED
template<>
struct row_extractor<nullptr_t> {
nullptr_t extract(const char* /*row_value*/) const {
return nullptr;
}
nullptr_t extract(sqlite3_stmt*, int /*columnIndex*/) const {
return nullptr;
}
nullptr_t extract(sqlite3_value*) const {
return nullptr;
}
};
/**
* Specialization for std::vector<char>.
*/
template<>
struct row_extractor<std::vector<char>> {
std::vector<char> extract(const char* row_value) const {
return {row_value, row_value + (row_value ? ::strlen(row_value) : 0)};
}
std::vector<char> extract(sqlite3_stmt* stmt, int columnIndex) const {
auto bytes = static_cast<const char*>(sqlite3_column_blob(stmt, columnIndex));
auto len = static_cast<size_t>(sqlite3_column_bytes(stmt, columnIndex));
return {bytes, bytes + len};
}
std::vector<char> extract(sqlite3_value* value) const {
auto bytes = static_cast<const char*>(sqlite3_value_blob(value));
auto len = static_cast<size_t>(sqlite3_value_bytes(value));
return {bytes, bytes + len};
}
};
template<class... Args>
struct row_extractor<std::tuple<Args...>> {
std::tuple<Args...> extract(char** argv) const {
return this->extract(argv, std::make_index_sequence<sizeof...(Args)>{});
}
std::tuple<Args...> extract(sqlite3_stmt* stmt, int /*columnIndex*/) const {
return this->extract(stmt, std::make_index_sequence<sizeof...(Args)>{});
}
protected:
template<size_t... Idx>
std::tuple<Args...> extract(sqlite3_stmt* stmt, std::index_sequence<Idx...>) const {
return std::tuple<Args...>{row_extractor<Args>{}.extract(stmt, Idx)...};
}
template<size_t... Idx>
std::tuple<Args...> extract(char** argv, std::index_sequence<Idx...>) const {
return std::tuple<Args...>{row_extractor<Args>{}.extract(argv[Idx])...};
}
};
/**
* Specialization for journal_mode.
*/
template<>
struct row_extractor<journal_mode, void> {
journal_mode extract(const char* row_value) const {
if(row_value) {
if(auto res = internal::journal_mode_from_string(row_value)) {
return std::move(*res);
} else {
throw std::system_error{orm_error_code::incorrect_journal_mode_string};
}
} else {
throw std::system_error{orm_error_code::incorrect_journal_mode_string};
}
}
journal_mode extract(sqlite3_stmt* stmt, int columnIndex) const {
auto cStr = (const char*)sqlite3_column_text(stmt, columnIndex);
return this->extract(cStr);
}
};
}
#pragma once
#include "ayu/libs/sqlite/sqlite3.h"
#include <string> // std::string
#include <utility> // std::move
// #include "error_code.h"
namespace sqlite_orm {
/**
* Escape the provided character in the given string by doubling it.
* @param str A copy of the original string
* @param char2Escape The character to escape
*/
inline std::string sql_escape(std::string str, char char2Escape) {
for(size_t pos = 0; (pos = str.find(char2Escape, pos)) != str.npos; pos += 2) {
str.replace(pos, 1, 2, char2Escape);
}
return str;
}
/**
* Quote the given string value using single quotes,
* escape containing single quotes by doubling them.
*/
inline std::string quote_string_literal(std::string v) {
constexpr char quoteChar = '\'';
return quoteChar + sql_escape(std::move(v), quoteChar) + quoteChar;
}
/**
* Quote the given string value using single quotes,
* escape containing single quotes by doubling them.
*/
inline std::string quote_blob_literal(std::string v) {
constexpr char quoteChar = '\'';
return std::string{char('x'), quoteChar} + std::move(v) + quoteChar;
}
/**
* Quote the given identifier using double quotes,
* escape containing double quotes by doubling them.
*/
inline std::string quote_identifier(std::string identifier) {
constexpr char quoteChar = '"';
return quoteChar + sql_escape(std::move(identifier), quoteChar) + quoteChar;
}
namespace internal {
// Wrapper to reduce boiler-plate code
inline sqlite3_stmt* reset_stmt(sqlite3_stmt* stmt) {
sqlite3_reset(stmt);
return stmt;
}
// note: query is deliberately taken by value, such that it is thrown away early
inline sqlite3_stmt* prepare_stmt(sqlite3* db, std::string query) {
sqlite3_stmt* stmt;
if(sqlite3_prepare_v2(db, query.c_str(), -1, &stmt, nullptr) != SQLITE_OK) {
throw_translated_sqlite_error(db);
}
return stmt;
}
inline void perform_void_exec(sqlite3* db, const std::string& query) {
int rc = sqlite3_exec(db, query.c_str(), nullptr, nullptr, nullptr);
if(rc != SQLITE_OK) {
throw_translated_sqlite_error(db);
}
}
inline void perform_exec(sqlite3* db,
const char* query,
int (*callback)(void* data, int argc, char** argv, char**),
void* user_data) {
int rc = sqlite3_exec(db, query, callback, user_data, nullptr);
if(rc != SQLITE_OK) {
throw_translated_sqlite_error(db);
}
}
inline void perform_exec(sqlite3* db,
const std::string& query,
int (*callback)(void* data, int argc, char** argv, char**),
void* user_data) {
return perform_exec(db, query.c_str(), callback, user_data);
}
template<int expected = SQLITE_DONE>
void perform_step(sqlite3_stmt* stmt) {
int rc = sqlite3_step(stmt);
if(rc != expected) {
throw_translated_sqlite_error(stmt);
}
}
template<class L>
void perform_step(sqlite3_stmt* stmt, L&& lambda) {
switch(int rc = sqlite3_step(stmt)) {
case SQLITE_ROW: {
lambda(stmt);
} break;
case SQLITE_DONE:
break;
default: {
throw_translated_sqlite_error(stmt);
}
}
}
template<class L>
void perform_steps(sqlite3_stmt* stmt, L&& lambda) {
int rc;
do {
switch(rc = sqlite3_step(stmt)) {
case SQLITE_ROW: {
lambda(stmt);
} break;
case SQLITE_DONE:
break;
default: {
throw_translated_sqlite_error(stmt);
}
}
} while(rc != SQLITE_DONE);
}
}
}
#pragma once
#include <ostream>
namespace sqlite_orm {
enum class sync_schema_result {
/**
* created new table, table with the same tablename did not exist
*/
new_table_created,
/**
* table schema is the same as storage, nothing to be done
*/
already_in_sync,
/**
* removed excess columns in table (than storage) without dropping a table
*/
old_columns_removed,
/**
* lacking columns in table (than storage) added without dropping a table
*/
new_columns_added,
/**
* both old_columns_removed and new_columns_added
*/
new_columns_added_and_old_columns_removed,
/**
* old table is dropped and new is recreated. Reasons :
* 1. delete excess columns in the table than storage if preseve = false
* 2. Lacking columns in the table cannot be added due to NULL and DEFAULT constraint
* 3. Reasons 1 and 2 both together
* 4. data_type mismatch between table and storage.
*/
dropped_and_recreated,
};
inline std::ostream& operator<<(std::ostream& os, sync_schema_result value) {
switch(value) {
case sync_schema_result::new_table_created:
return os << "new table created";
case sync_schema_result::already_in_sync:
return os << "table and storage is already in sync.";
case sync_schema_result::old_columns_removed:
return os << "old excess columns removed";
case sync_schema_result::new_columns_added:
return os << "new columns added";
case sync_schema_result::new_columns_added_and_old_columns_removed:
return os << "old excess columns removed and new columns added";
case sync_schema_result::dropped_and_recreated:
return os << "old table dropped and recreated";
}
return os;
}
}
#pragma once
#include <tuple> // std::tuple, std::make_tuple, std::declval, std::tuple_element_t
#include <string> // std::string
#include <utility> // std::forward
// #include "functional/cxx_universal.h"
// #include "tuple_helper/tuple_filter.h"
// #include "indexed_column.h"
#include <string> // std::string
#include <utility> // std::move
// #include "functional/cxx_universal.h"
// #include "ast/where.h"
namespace sqlite_orm {
namespace internal {
template<class C>
struct indexed_column_t {
using column_type = C;
#ifndef SQLITE_ORM_AGGREGATE_NSDMI_SUPPORTED
indexed_column_t(column_type _column_or_expression) :
column_or_expression(std::move(_column_or_expression)) {}
#endif
column_type column_or_expression;
std::string _collation_name;
int _order = 0; // -1 = desc, 1 = asc, 0 = not specified
indexed_column_t<column_type> collate(std::string name) {
auto res = std::move(*this);
res._collation_name = std::move(name);
return res;
}
indexed_column_t<column_type> asc() {
auto res = std::move(*this);
res._order = 1;
return res;
}
indexed_column_t<column_type> desc() {
auto res = std::move(*this);
res._order = -1;
return res;
}
};
template<class C>
indexed_column_t<C> make_indexed_column(C col) {
return {std::move(col)};
}
template<class C>
where_t<C> make_indexed_column(where_t<C> wher) {
return std::move(wher);
}
template<class C>
indexed_column_t<C> make_indexed_column(indexed_column_t<C> col) {
return std::move(col);
}
}
/**
* Use this function to specify indexed column inside `make_index` function call.
* Example: make_index("index_name", indexed_column(&User::id).asc())
*/
template<class C>
internal::indexed_column_t<C> indexed_column(C column_or_expression) {
return {std::move(column_or_expression)};
}
}
// #include "table_type_of.h"
namespace sqlite_orm {
namespace internal {
struct index_base {
std::string name;
bool unique = false;
#ifndef SQLITE_ORM_AGGREGATE_NSDMI_SUPPORTED
index_base(std::string name, bool unique) : name{std::move(name)}, unique{unique} {}
#endif
};
template<class T, class... Els>
struct index_t : index_base {
using elements_type = std::tuple<Els...>;
using object_type = void;
using table_mapped_type = T;
#ifndef SQLITE_ORM_AGGREGATE_BASES_SUPPORTED
index_t(std::string name_, bool unique_, elements_type elements_) :
index_base{std::move(name_), unique_}, elements(std::move(elements_)) {}
#endif
elements_type elements;
};
}
template<class T, class... Cols>
internal::index_t<T, decltype(internal::make_indexed_column(std::declval<Cols>()))...> make_index(std::string name,
Cols... cols) {
using cols_tuple = std::tuple<Cols...>;
static_assert(internal::count_tuple<cols_tuple, internal::is_where>::value <= 1,
"amount of where arguments can be 0 or 1");
SQLITE_ORM_CLANG_SUPPRESS_MISSING_BRACES(
return {std::move(name), false, std::make_tuple(internal::make_indexed_column(std::move(cols))...)});
}
template<class... Cols>
internal::index_t<internal::table_type_of_t<typename std::tuple_element_t<0, std::tuple<Cols...>>>,
decltype(internal::make_indexed_column(std::declval<Cols>()))...>
make_index(std::string name, Cols... cols) {
using cols_tuple = std::tuple<Cols...>;
static_assert(internal::count_tuple<cols_tuple, internal::is_where>::value <= 1,
"amount of where arguments can be 0 or 1");
SQLITE_ORM_CLANG_SUPPRESS_MISSING_BRACES(
return {std::move(name), false, std::make_tuple(internal::make_indexed_column(std::move(cols))...)});
}
template<class... Cols>
internal::index_t<internal::table_type_of_t<typename std::tuple_element_t<0, std::tuple<Cols...>>>,
decltype(internal::make_indexed_column(std::declval<Cols>()))...>
make_unique_index(std::string name, Cols... cols) {
using cols_tuple = std::tuple<Cols...>;
static_assert(internal::count_tuple<cols_tuple, internal::is_where>::value <= 1,
"amount of where arguments can be 0 or 1");
SQLITE_ORM_CLANG_SUPPRESS_MISSING_BRACES(
return {std::move(name), true, std::make_tuple(internal::make_indexed_column(std::move(cols))...)});
}
}
#pragma once
#include <string> // std::string
namespace sqlite_orm {
namespace internal {
struct rowid_t {
operator std::string() const {
return "rowid";
}
};
struct oid_t {
operator std::string() const {
return "oid";
}
};
struct _rowid_t {
operator std::string() const {
return "_rowid_";
}
};
template<class T>
struct table_rowid_t : public rowid_t {
using type = T;
};
template<class T>
struct table_oid_t : public oid_t {
using type = T;
};
template<class T>
struct table__rowid_t : public _rowid_t {
using type = T;
};
}
inline internal::rowid_t rowid() {
return {};
}
inline internal::oid_t oid() {
return {};
}
inline internal::_rowid_t _rowid_() {
return {};
}
template<class T>
internal::table_rowid_t<T> rowid() {
return {};
}
template<class T>
internal::table_oid_t<T> oid() {
return {};
}
template<class T>
internal::table__rowid_t<T> _rowid_() {
return {};
}
}
#pragma once
#include <string> // std::string
#include <type_traits> // std::remove_reference, std::is_same, std::decay
#include <vector> // std::vector
#include <tuple> // std::tuple_size, std::tuple_element
#include <utility> // std::forward, std::move
// #include "functional/cxx_universal.h"
// #include "functional/cxx_type_traits_polyfill.h"
// #include "functional/cxx_functional_polyfill.h"
// #include "functional/static_magic.h"
#ifndef SQLITE_ORM_IF_CONSTEXPR_SUPPORTED
#include <type_traits> // std::false_type, std::true_type, std::integral_constant
#endif
#include <utility> // std::forward
namespace sqlite_orm {
// got from here
// https://stackoverflow.com/questions/37617677/implementing-a-compile-time-static-if-logic-for-different-string-types-in-a-co
namespace internal {
template<class R = void>
decltype(auto) empty_callable() {
static auto res = [](auto&&...) -> R {
return R();
};
return (res);
}
#ifdef SQLITE_ORM_IF_CONSTEXPR_SUPPORTED
template<bool B, typename T, typename F>
decltype(auto) static_if([[maybe_unused]] T&& trueFn, [[maybe_unused]] F&& falseFn) {
if constexpr(B) {
return std::forward<T>(trueFn);
} else {
return std::forward<F>(falseFn);
}
}
template<bool B, typename T>
decltype(auto) static_if([[maybe_unused]] T&& trueFn) {
if constexpr(B) {
return std::forward<T>(trueFn);
} else {
return empty_callable();
}
}
template<bool B, typename L, typename... Args>
void call_if_constexpr([[maybe_unused]] L&& lambda, [[maybe_unused]] Args&&... args) {
if constexpr(B) {
lambda(std::forward<Args>(args)...);
}
}
#else
template<typename T, typename F>
decltype(auto) static_if(std::true_type, T&& trueFn, const F&) {
return std::forward<T>(trueFn);
}
template<typename T, typename F>
decltype(auto) static_if(std::false_type, const T&, F&& falseFn) {
return std::forward<F>(falseFn);
}
template<bool B, typename T, typename F>
decltype(auto) static_if(T&& trueFn, F&& falseFn) {
return static_if(std::integral_constant<bool, B>{}, std::forward<T>(trueFn), std::forward<F>(falseFn));
}
template<bool B, typename T>
decltype(auto) static_if(T&& trueFn) {
return static_if(std::integral_constant<bool, B>{}, std::forward<T>(trueFn), empty_callable());
}
template<bool B, typename L, typename... Args>
void call_if_constexpr(L&& lambda, Args&&... args) {
static_if<B>(std::forward<L>(lambda))(std::forward<Args>(args)...);
}
#endif
}
}
// #include "functional/mpl.h"
// #include "functional/index_sequence_util.h"
// #include "tuple_helper/tuple_filter.h"
// #include "tuple_helper/tuple_traits.h"
// #include "tuple_helper/tuple_iteration.h"
#include <tuple> // std::tuple, std::get, std::tuple_element, std::tuple_size
#include <type_traits> // std::index_sequence, std::make_index_sequence
#include <utility> // std::forward, std::move
// #include "../functional/cxx_universal.h"
// #include "../functional/cxx_type_traits_polyfill.h"
// #include "../functional/cxx_functional_polyfill.h"
// #include "../functional/index_sequence_util.h"
namespace sqlite_orm {
namespace internal {
// got it form here https://stackoverflow.com/questions/7858817/unpacking-a-tuple-to-call-a-matching-function-pointer
template<class Function, class FunctionPointer, class Tuple, size_t... I>
auto call_impl(Function& f, FunctionPointer functionPointer, Tuple t, std::index_sequence<I...>) {
return (f.*functionPointer)(std::get<I>(std::move(t))...);
}
template<class Function, class FunctionPointer, class Tuple>
auto call(Function& f, FunctionPointer functionPointer, Tuple t) {
constexpr size_t size = std::tuple_size<Tuple>::value;
return call_impl(f, functionPointer, std::move(t), std::make_index_sequence<size>{});
}
template<class Function, class Tuple>
auto call(Function& f, Tuple t) {
return call(f, &Function::operator(), std::move(t));
}
#if defined(SQLITE_ORM_FOLD_EXPRESSIONS_SUPPORTED) && defined(SQLITE_ORM_IF_CONSTEXPR_SUPPORTED)
template<bool reversed = false, class Tpl, size_t... Idx, class L>
void iterate_tuple(const Tpl& tpl, std::index_sequence<Idx...>, L&& lambda) {
if constexpr(reversed) {
// nifty fold expression trick: make use of guaranteed right-to-left evaluation order when folding over operator=
int sink;
((lambda(std::get<Idx>(tpl)), sink) = ... = 0);
} else {
(lambda(std::get<Idx>(tpl)), ...);
}
}
#else
template<bool reversed = false, class Tpl, class L>
void iterate_tuple(const Tpl& /*tpl*/, std::index_sequence<>, L&& /*lambda*/) {}
template<bool reversed = false, class Tpl, size_t I, size_t... Idx, class L>
void iterate_tuple(const Tpl& tpl, std::index_sequence<I, Idx...>, L&& lambda) {
#ifdef SQLITE_ORM_IF_CONSTEXPR_SUPPORTED
if constexpr(reversed) {
#else
if(reversed) {
#endif
iterate_tuple<reversed>(tpl, std::index_sequence<Idx...>{}, std::forward<L>(lambda));
lambda(std::get<I>(tpl));
} else {
lambda(std::get<I>(tpl));
iterate_tuple<reversed>(tpl, std::index_sequence<Idx...>{}, std::forward<L>(lambda));
}
}
#endif
template<bool reversed = false, class Tpl, class L>
void iterate_tuple(const Tpl& tpl, L&& lambda) {
iterate_tuple<reversed>(tpl,
std::make_index_sequence<std::tuple_size<Tpl>::value>{},
std::forward<L>(lambda));
}
#ifdef SQLITE_ORM_FOLD_EXPRESSIONS_SUPPORTED
template<class Tpl, size_t... Idx, class L>
void iterate_tuple(std::index_sequence<Idx...>, L&& lambda) {
(lambda((std::tuple_element_t<Idx, Tpl>*)nullptr), ...);
}
#else
template<class Tpl, class L>
void iterate_tuple(std::index_sequence<>, L&& /*lambda*/) {}
template<class Tpl, size_t I, size_t... Idx, class L>
void iterate_tuple(std::index_sequence<I, Idx...>, L&& lambda) {
lambda((std::tuple_element_t<I, Tpl>*)nullptr);
iterate_tuple<Tpl>(std::index_sequence<Idx...>{}, std::forward<L>(lambda));
}
#endif
template<class Tpl, class L>
void iterate_tuple(L&& lambda) {
iterate_tuple<Tpl>(std::make_index_sequence<std::tuple_size<Tpl>::value>{}, std::forward<L>(lambda));
}
template<class R, class Tpl, size_t... Idx, class Projection = polyfill::identity>
R create_from_tuple(Tpl&& tpl, std::index_sequence<Idx...>, Projection project = {}) {
return R{polyfill::invoke(project, std::get<Idx>(std::forward<Tpl>(tpl)))...};
}
template<class R, class Tpl, class Projection = polyfill::identity>
R create_from_tuple(Tpl&& tpl, Projection project = {}) {
return create_from_tuple<R>(
std::forward<Tpl>(tpl),
std::make_index_sequence<std::tuple_size<std::remove_reference_t<Tpl>>::value>{},
std::forward<Projection>(project));
}
template<template<class...> class Base, class L>
struct lambda_as_template_base : L {
#ifndef SQLITE_ORM_AGGREGATE_BASES_SUPPORTED
lambda_as_template_base(L&& lambda) : L{std::move(lambda)} {}
#endif
template<class... T>
decltype(auto) operator()(const Base<T...>& object) {
return L::operator()(object);
}
};
/*
* This method wraps the specified callable in another function object,
* which in turn implicitly casts its single argument to the specified template base class,
* then passes the converted argument to the lambda.
*
* Note: This method is useful for reducing combinatorial instantiation of template lambdas,
* as long as this library supports compilers that do not implement
* explicit template parameters in generic lambdas [SQLITE_ORM_EXPLICIT_GENERIC_LAMBDA_SUPPORTED].
* Unfortunately it doesn't work with user-defined conversion operators in order to extract
* parts of a class. In other words, the destination type must be a direct template base class.
*/
template<template<class...> class Base, class L>
lambda_as_template_base<Base, L> call_as_template_base(L lambda) {
return {std::move(lambda)};
}
}
}
// #include "member_traits/member_traits.h"
// #include "typed_comparator.h"
// #include "type_traits.h"
// #include "constraints.h"
// #include "table_info.h"
// #include "column.h"
namespace sqlite_orm {
namespace internal {
struct basic_table {
/**
* Table name.
*/
std::string name;
};
/**
* Table definition.
*/
template<class O, bool WithoutRowId, class... Cs>
struct table_t : basic_table {
using object_type = O;
using elements_type = std::tuple<Cs...>;
static constexpr bool is_without_rowid_v = WithoutRowId;
using is_without_rowid = polyfill::bool_constant<is_without_rowid_v>;
elements_type elements;
#ifndef SQLITE_ORM_AGGREGATE_BASES_SUPPORTED
table_t(std::string name_, elements_type elements_) :
basic_table{std::move(name_)}, elements{std::move(elements_)} {}
#endif
table_t<O, true, Cs...> without_rowid() const {
return {this->name, this->elements};
}
/**
* Returns foreign keys count in table definition
*/
constexpr int foreign_keys_count() const {
#if SQLITE_VERSION_NUMBER >= 3006019
using fk_index_sequence = filter_tuple_sequence_t<elements_type, is_foreign_key>;
return int(fk_index_sequence::size());
#else
return 0;
#endif
}
/**
* Function used to get field value from object by mapped member pointer/setter/getter.
*
* For a setter the corresponding getter has to be searched,
* so the method returns a pointer to the field as returned by the found getter.
* Otherwise the method invokes the member pointer and returns its result.
*/
template<class M, satisfies_not<is_setter, M> = true>
decltype(auto) object_field_value(const object_type& object, M memberPointer) const {
return polyfill::invoke(memberPointer, object);
}
template<class M, satisfies<is_setter, M> = true>
const member_field_type_t<M>* object_field_value(const object_type& object, M memberPointer) const {
using field_type = member_field_type_t<M>;
const field_type* res = nullptr;
iterate_tuple(this->elements,
col_index_sequence_with_field_type<elements_type, field_type>{},
call_as_template_base<column_field>([&res, &memberPointer, &object](const auto& column) {
if(compare_any(column.setter, memberPointer)) {
res = &polyfill::invoke(column.member_pointer, object);
}
}));
return res;
}
const basic_generated_always::storage_type*
find_column_generated_storage_type(const std::string& name) const {
const basic_generated_always::storage_type* result = nullptr;
#if SQLITE_VERSION_NUMBER >= 3031000
iterate_tuple(this->elements,
col_index_sequence_with<elements_type, is_generated_always>{},
[&result, &name](auto& column) {
if(column.name != name) {
return;
}
using generated_op_index_sequence =
filter_tuple_sequence_t<std::remove_const_t<decltype(column.constraints)>,
is_generated_always>;
constexpr size_t opIndex = first_index_sequence_value(generated_op_index_sequence{});
result = &get<opIndex>(column.constraints).storage;
});
#else
(void)name;
#endif
return result;
}
template<class G, class S>
bool exists_in_composite_primary_key(const column_field<G, S>& column) const {
bool res = false;
this->for_each_primary_key([&column, &res](auto& primaryKey) {
using colrefs_tuple = decltype(primaryKey.columns);
using same_type_index_sequence =
filter_tuple_sequence_t<colrefs_tuple,
check_if_is_type<member_field_type_t<G>>::template fn,
member_field_type_t>;
iterate_tuple(primaryKey.columns, same_type_index_sequence{}, [&res, &column](auto& memberPointer) {
if(compare_any(memberPointer, column.member_pointer) ||
compare_any(memberPointer, column.setter)) {
res = true;
}
});
});
return res;
}
/**
* Call passed lambda with all defined primary keys.
*/
template<class L>
void for_each_primary_key(L&& lambda) const {
using pk_index_sequence = filter_tuple_sequence_t<elements_type, is_primary_key>;
iterate_tuple(this->elements, pk_index_sequence{}, lambda);
}
std::vector<std::string> composite_key_columns_names() const {
std::vector<std::string> res;
this->for_each_primary_key([this, &res](auto& primaryKey) {
res = this->composite_key_columns_names(primaryKey);
});
return res;
}
std::vector<std::string> primary_key_column_names() const {
using pkcol_index_sequence = col_index_sequence_with<elements_type, is_primary_key>;
if(pkcol_index_sequence::size() > 0) {
return create_from_tuple<std::vector<std::string>>(this->elements,
pkcol_index_sequence{},
&column_identifier::name);
} else {
return this->composite_key_columns_names();
}
}
template<class L>
void for_each_primary_key_column(L&& lambda) const {
iterate_tuple(this->elements,
col_index_sequence_with<elements_type, is_primary_key>{},
call_as_template_base<column_field>([&lambda](const auto& column) {
lambda(column.member_pointer);
}));
this->for_each_primary_key([&lambda](auto& primaryKey) {
iterate_tuple(primaryKey.columns, lambda);
});
}
template<class... Args>
std::vector<std::string> composite_key_columns_names(const primary_key_t<Args...>& primaryKey) const {
return create_from_tuple<std::vector<std::string>>(primaryKey.columns,
[this, empty = std::string{}](auto& memberPointer) {
if(const std::string* columnName =
this->find_column_name(memberPointer)) {
return *columnName;
} else {
return empty;
}
});
}
/**
* Searches column name by class member pointer passed as the first argument.
* @return column name or empty string if nothing found.
*/
template<class M, satisfies<std::is_member_pointer, M> = true>
const std::string* find_column_name(M m) const {
const std::string* res = nullptr;
using field_type = member_field_type_t<M>;
iterate_tuple(this->elements,
col_index_sequence_with_field_type<elements_type, field_type>{},
[&res, m](auto& c) {
if(compare_any(c.member_pointer, m) || compare_any(c.setter, m)) {
res = &c.name;
}
});
return res;
}
/**
* Counts and returns amount of columns without GENERATED ALWAYS constraints. Skips table constraints.
*/
constexpr int non_generated_columns_count() const {
#if SQLITE_VERSION_NUMBER >= 3031000
using non_generated_col_index_sequence =
col_index_sequence_excluding<elements_type, is_generated_always>;
return int(non_generated_col_index_sequence::size());
#else
return this->count_columns_amount();
#endif
}
/**
* Counts and returns amount of columns. Skips constraints.
*/
constexpr int count_columns_amount() const {
using col_index_sequence = filter_tuple_sequence_t<elements_type, is_column>;
return int(col_index_sequence::size());
}
/**
* Call passed lambda with all defined foreign keys.
* @param lambda Lambda called for each column. Function signature: `void(auto& column)`
*/
template<class L>
void for_each_foreign_key(L&& lambda) const {
using fk_index_sequence = filter_tuple_sequence_t<elements_type, is_foreign_key>;
iterate_tuple(this->elements, fk_index_sequence{}, lambda);
}
template<class Target, class L>
void for_each_foreign_key_to(L&& lambda) const {
using fk_index_sequence = filter_tuple_sequence_t<elements_type, is_foreign_key>;
using filtered_index_sequence = filter_tuple_sequence_t<elements_type,
check_if_is_type<Target>::template fn,
target_type_t,
fk_index_sequence>;
iterate_tuple(this->elements, filtered_index_sequence{}, lambda);
}
/**
* Call passed lambda with all defined columns.
* @param lambda Lambda called for each column. Function signature: `void(auto& column)`
*/
template<class L>
void for_each_column(L&& lambda) const {
using col_index_sequence = filter_tuple_sequence_t<elements_type, is_column>;
iterate_tuple(this->elements, col_index_sequence{}, lambda);
}
/**
* Call passed lambda with columns not having the specified constraint trait `OpTrait`.
* @param lambda Lambda called for each column.
*/
template<template<class...> class OpTraitFn, class L>
void for_each_column_excluding(L&& lambda) const {
iterate_tuple(this->elements, col_index_sequence_excluding<elements_type, OpTraitFn>{}, lambda);
}
/**
* Call passed lambda with columns not having the specified constraint trait `OpTrait`.
* @param lambda Lambda called for each column.
*/
template<class OpTraitFnCls, class L, satisfies<mpl::is_metafunction_class, OpTraitFnCls> = true>
void for_each_column_excluding(L&& lambda) const {
this->for_each_column_excluding<OpTraitFnCls::template fn>(lambda);
}
std::vector<table_xinfo> get_table_info() const;
};
template<class T>
struct is_table : std::false_type {};
template<class O, bool W, class... Cs>
struct is_table<table_t<O, W, Cs...>> : std::true_type {};
}
/**
* Factory function for a table definition.
*
* The mapped object type is determined implicitly from the first column definition.
*/
template<class... Cs, class T = typename std::tuple_element_t<0, std::tuple<Cs...>>::object_type>
internal::table_t<T, false, Cs...> make_table(std::string name, Cs... args) {
SQLITE_ORM_CLANG_SUPPRESS_MISSING_BRACES(
return {std::move(name), std::make_tuple<Cs...>(std::forward<Cs>(args)...)});
}
/**
* Factory function for a table definition.
*
* The mapped object type is explicitly specified.
*/
template<class T, class... Cs>
internal::table_t<T, false, Cs...> make_table(std::string name, Cs... args) {
SQLITE_ORM_CLANG_SUPPRESS_MISSING_BRACES(
return {std::move(name), std::make_tuple<Cs...>(std::forward<Cs>(args)...)});
}
}
#pragma once
#include <string> // std::string
// #include "functional/cxx_universal.h"
// ::nullptr_t
// #include "functional/static_magic.h"
// #include "tuple_helper/tuple_filter.h"
// #include "tuple_helper/tuple_iteration.h"
// #include "type_traits.h"
// #include "select_constraints.h"
// #include "storage_lookup.h"
#include <type_traits> // std::true_type, std::false_type, std::remove_const, std::enable_if, std::is_base_of, std::is_void
#include <tuple>
#include <utility> // std::index_sequence, std::make_index_sequence
// #include "functional/cxx_universal.h"
// #include "functional/cxx_type_traits_polyfill.h"
// #include "type_traits.h"
namespace sqlite_orm {
namespace internal {
template<class... DBO>
struct storage_t;
template<class... DBO>
using db_objects_tuple = std::tuple<DBO...>;
template<class T>
struct is_storage : std::false_type {};
template<class... DBO>
struct is_storage<storage_t<DBO...>> : std::true_type {};
template<class... DBO>
struct is_storage<const storage_t<DBO...>> : std::true_type {};
template<class T>
struct is_db_objects : std::false_type {};
template<class... DBO>
struct is_db_objects<db_objects_tuple<DBO...>> : std::true_type {};
template<class... DBO>
struct is_db_objects<const db_objects_tuple<DBO...>> : std::true_type {};
/**
* std::true_type if given object is mapped, std::false_type otherwise.
*
* Note: unlike table_t<>, index_t<>::object_type and trigger_t<>::object_type is always void.
*/
template<typename DBO, typename Lookup>
struct object_type_matches : polyfill::conjunction<polyfill::negation<std::is_void<object_type_t<DBO>>>,
std::is_same<Lookup, object_type_t<DBO>>> {};
/**
* std::true_type if given lookup type (object) is mapped, std::false_type otherwise.
*/
template<typename DBO, typename Lookup>
struct lookup_type_matches : polyfill::disjunction<object_type_matches<DBO, Lookup>> {};
}
// pick/lookup metafunctions
namespace internal {
/**
* Indirect enabler for DBO, accepting an index to disambiguate non-unique DBOs
*/
template<class Lookup, size_t Ix, class DBO>
struct enable_found_table : std::enable_if<lookup_type_matches<DBO, Lookup>::value, DBO> {};
/**
* SFINAE friendly facility to pick a table definition (`table_t`) from a tuple of database objects.
*
* Lookup - mapped data type
* Seq - index sequence matching the number of DBOs
* DBOs - db_objects_tuple type
*/
template<class Lookup, class Seq, class DBOs>
struct storage_pick_table;
template<class Lookup, size_t... Ix, class... DBO>
struct storage_pick_table<Lookup, std::index_sequence<Ix...>, db_objects_tuple<DBO...>>
: enable_found_table<Lookup, Ix, DBO>... {};
/**
* SFINAE friendly facility to pick a table definition (`table_t`) from a tuple of database objects.
*
* Lookup - 'table' type, mapped data type
* DBOs - db_objects_tuple type, possibly const-qualified
*/
template<class Lookup, class DBOs>
using storage_pick_table_t = typename storage_pick_table<Lookup,
std::make_index_sequence<std::tuple_size<DBOs>::value>,
std::remove_const_t<DBOs>>::type;
/**
* Find a table definition (`table_t`) from a tuple of database objects;
* `std::nonesuch` if not found.
*
* DBOs - db_objects_tuple type
* Lookup - mapped data type
*/
template<class Lookup, class DBOs>
struct storage_find_table : polyfill::detected_or<polyfill::nonesuch, storage_pick_table_t, Lookup, DBOs> {};
/**
* Find a table definition (`table_t`) from a tuple of database objects;
* `std::nonesuch` if not found.
*
* DBOs - db_objects_tuple type, possibly const-qualified
* Lookup - mapped data type
*/
template<class Lookup, class DBOs>
using storage_find_table_t = typename storage_find_table<Lookup, std::remove_const_t<DBOs>>::type;
#ifndef SQLITE_ORM_BROKEN_VARIADIC_PACK_EXPANSION
template<class DBOs, class Lookup, class SFINAE = void>
struct is_mapped : std::false_type {};
template<class DBOs, class Lookup>
struct is_mapped<DBOs, Lookup, polyfill::void_t<storage_pick_table_t<Lookup, DBOs>>> : std::true_type {};
#else
template<class DBOs, class Lookup, class SFINAE = storage_find_table_t<Lookup, DBOs>>
struct is_mapped : std::true_type {};
template<class DBOs, class Lookup>
struct is_mapped<DBOs, Lookup, polyfill::nonesuch> : std::false_type {};
#endif
template<class DBOs, class Lookup>
SQLITE_ORM_INLINE_VAR constexpr bool is_mapped_v = is_mapped<DBOs, Lookup>::value;
}
}
// runtime lookup functions
namespace sqlite_orm {
namespace internal {
/**
* Pick the table definition for the specified lookup type from the given tuple of schema objects.
*
* Note: This function requires Lookup to be mapped, otherwise it is removed from the overload resolution set.
*/
template<class Lookup, class DBOs, satisfies<is_mapped, DBOs, Lookup> = true>
auto& pick_table(DBOs& dbObjects) {
using table_type = storage_pick_table_t<Lookup, DBOs>;
return std::get<table_type>(dbObjects);
}
template<class Lookup, class DBOs, satisfies<is_db_objects, DBOs> = true>
auto lookup_table(const DBOs& dbObjects);
template<class Lookup, class DBOs, satisfies<is_db_objects, DBOs> = true>
decltype(auto) lookup_table_name(const DBOs& dbObjects);
}
}
// interface functions
namespace sqlite_orm {
namespace internal {
template<class DBOs>
using tables_index_sequence = filter_tuple_sequence_t<DBOs, is_table>;
template<class DBOs, satisfies<is_db_objects, DBOs> = true>
int foreign_keys_count(const DBOs& dbObjects) {
int res = 0;
iterate_tuple<true>(dbObjects, tables_index_sequence<DBOs>{}, [&res](const auto& table) {
res += table.foreign_keys_count();
});
return res;
}
template<class Lookup, class DBOs, satisfies<is_db_objects, DBOs>>
auto lookup_table(const DBOs& dbObjects) {
return static_if<is_mapped_v<DBOs, Lookup>>(
[](const auto& dbObjects) {
return &pick_table<Lookup>(dbObjects);
},
empty_callable<nullptr_t>())(dbObjects);
}
template<class Lookup, class DBOs, satisfies<is_db_objects, DBOs>>
decltype(auto) lookup_table_name(const DBOs& dbObjects) {
return static_if<is_mapped_v<DBOs, Lookup>>(
[](const auto& dbObjects) -> const std::string& {
return pick_table<Lookup>(dbObjects).name;
},
empty_callable<std::string>())(dbObjects);
}
/**
* Find column name by its type and member pointer.
*/
template<class O, class F, class DBOs, satisfies<is_db_objects, DBOs> = true>
const std::string* find_column_name(const DBOs& dbObjects, F O::*field) {
return pick_table<O>(dbObjects).find_column_name(field);
}
/**
* Materialize column pointer:
* 1. by explicit object type and member pointer.
*/
template<class O, class F, class DBOs, satisfies<is_db_objects, DBOs> = true>
constexpr decltype(auto) materialize_column_pointer(const DBOs&, const column_pointer<O, F>& cp) {
return cp.field;
}
/**
* Find column name by:
* 1. by explicit object type and member pointer.
*/
template<class O, class F, class DBOs, satisfies<is_db_objects, DBOs> = true>
const std::string* find_column_name(const DBOs& dbObjects, const column_pointer<O, F>& cp) {
auto field = materialize_column_pointer(dbObjects, cp);
return pick_table<O>(dbObjects).find_column_name(field);
}
}
}
#pragma once
#include <string> // std::string
// #include "constraints.h"
// #include "serializer_context.h"
// #include "storage_lookup.h"
namespace sqlite_orm {
namespace internal {
template<class T, class DBOs>
std::string serialize(const T&, const serializer_context<DBOs>&);
/**
* Serialize default value of a column's default valu
*/
template<class T>
std::string serialize_default_value(const default_t<T>& dft) {
db_objects_tuple<> dbObjects;
serializer_context<db_objects_tuple<>> context{dbObjects};
return serialize(dft.value, context);
}
}
}
#pragma once
#include "ayu/libs/sqlite/sqlite3.h"
#include <memory> // std::unique_ptr/shared_ptr, std::make_unique/std::make_shared
#include <system_error> // std::system_error
#include <string> // std::string
#include <type_traits> // std::remove_reference, std::is_base_of, std::decay, std::false_type, std::true_type
#include <functional> // std::identity
#include <sstream> // std::stringstream
#include <map> // std::map
#include <vector> // std::vector
#include <tuple> // std::tuple_size, std::tuple, std::make_tuple, std::tie
#include <utility> // std::forward, std::pair
#include <algorithm> // std::for_each, std::ranges::for_each
// #include "functional/cxx_optional.h"
// #include "functional/cxx_universal.h"
// #include "functional/cxx_functional_polyfill.h"
// #include "functional/static_magic.h"
// #include "functional/mpl.h"
// #include "tuple_helper/tuple_traits.h"
// #include "tuple_helper/tuple_filter.h"
// #include "tuple_helper/tuple_iteration.h"
// #include "type_traits.h"
// #include "alias.h"
// #include "row_extractor_builder.h"
// #include "functional/cxx_universal.h"
// #include "row_extractor.h"
// #include "mapped_row_extractor.h"
#include "ayu/libs/sqlite/sqlite3.h"
// #include "object_from_column_builder.h"
#include "ayu/libs/sqlite/sqlite3.h"
#include <type_traits> // std::is_member_object_pointer
// #include "functional/static_magic.h"
// #include "row_extractor.h"
namespace sqlite_orm {
namespace internal {
struct object_from_column_builder_base {
sqlite3_stmt* stmt = nullptr;
int index = 0;
#ifndef SQLITE_ORM_AGGREGATE_NSDMI_SUPPORTED
object_from_column_builder_base(sqlite3_stmt* stmt) : stmt{stmt} {}
#endif
};
/**
* This is a cute lambda replacement which is used in several places.
*/
template<class O>
struct object_from_column_builder : object_from_column_builder_base {
using object_type = O;
object_type& object;
object_from_column_builder(object_type& object_, sqlite3_stmt* stmt_) :
object_from_column_builder_base{stmt_}, object(object_) {}
template<class G, class S>
void operator()(const column_field<G, S>& column) {
auto value = row_extractor<member_field_type_t<G>>().extract(this->stmt, this->index++);
static_if<std::is_member_object_pointer<G>::value>(
[&value, &object = this->object](const auto& column) {
object.*column.member_pointer = std::move(value);
},
[&value, &object = this->object](const auto& column) {
(object.*column.setter)(std::move(value));
})(column);
}
};
}
}
namespace sqlite_orm {
namespace internal {
/**
* This is a private row extractor class. It is used for extracting rows as objects instead of tuple.
* Main difference from regular `row_extractor` is that this class takes table info which is required
* for constructing objects by member pointers. To construct please use `make_row_extractor()`.
* Type arguments:
* V is value type just like regular `row_extractor` has
* T is table info class `table_t`
*/
template<class V, class Table>
struct mapped_row_extractor {
using table_type = Table;
V extract(sqlite3_stmt* stmt, int /*columnIndex*/) const {
V res;
object_from_column_builder<V> builder{res, stmt};
this->tableInfo.for_each_column(builder);
return res;
}
const table_type& tableInfo;
};
}
}
namespace sqlite_orm {
namespace internal {
template<class T>
row_extractor<T> make_row_extractor(nullptr_t) {
return {};
}
template<class T, class Table>
mapped_row_extractor<T, Table> make_row_extractor(const Table* table) {
return {*table};
}
}
}
// #include "error_code.h"
// #include "type_printer.h"
// #include "constraints.h"
// #include "field_printer.h"
// #include "rowid.h"
// #include "operators.h"
// #include "select_constraints.h"
// #include "core_functions.h"
// #include "conditions.h"
// #include "statement_binder.h"
// #include "column_result.h"
#include <type_traits> // std::enable_if, std::is_same, std::decay, std::is_arithmetic, std::is_base_of
#include <tuple> // std::tuple
#include <functional> // std::reference_wrapper
// #include "functional/cxx_universal.h"
// #include "tuple_helper/tuple_traits.h"
// #include "tuple_helper/tuple_fy.h"
#include <tuple>
namespace sqlite_orm {
namespace internal {
template<typename T>
struct tuplify {
using type = std::tuple<T>;
};
template<typename... Ts>
struct tuplify<std::tuple<Ts...>> {
using type = std::tuple<Ts...>;
};
template<typename T>
using tuplify_t = typename tuplify<T>::type;
}
}
// #include "tuple_helper/tuple_filter.h"
// #include "type_traits.h"
// #include "member_traits/member_traits.h"
// #include "mapped_type_proxy.h"
#include <type_traits> // std::remove_const
// #include "type_traits.h"
// #include "alias_traits.h"
namespace sqlite_orm {
namespace internal {
/**
* If T is a recordset alias then the typename mapped_type_proxy<T>::type is the unqualified aliased type,
* otherwise unqualified T.
*/
template<class T, class SFINAE = void>
struct mapped_type_proxy : std::remove_const<T> {};
template<class T>
struct mapped_type_proxy<T, match_if<is_recordset_alias, T>> : std::remove_const<type_t<T>> {};
template<class T>
using mapped_type_proxy_t = typename mapped_type_proxy<T>::type;
}
}
// #include "core_functions.h"
// #include "select_constraints.h"
// #include "operators.h"
// #include "rowid.h"
// #include "alias.h"
// #include "storage_traits.h"
#include <tuple> // std::tuple
// #include "functional/cxx_type_traits_polyfill.h"
// #include "tuple_helper/tuple_filter.h"
// #include "tuple_helper/tuple_transformer.h"
#include <tuple> // std::tuple
// #include "../functional/mpl.h"
namespace sqlite_orm {
namespace internal {
template<class Tpl, template<class...> class Op>
struct tuple_transformer;
template<class... Types, template<class...> class Op>
struct tuple_transformer<std::tuple<Types...>, Op> {
using type = std::tuple<mpl::invoke_op_t<Op, Types>...>;
};
/*
* Transform specified tuple.
*
* `Op` is a metafunction operation.
*/
template<class Tpl, template<class...> class Op>
using transform_tuple_t = typename tuple_transformer<Tpl, Op>::type;
}
}
// #include "type_traits.h"
// #include "storage_lookup.h"
namespace sqlite_orm {
namespace internal {
namespace storage_traits {
/**
* DBO - db object (table)
*/
template<class DBO>
struct storage_mapped_columns_impl
: tuple_transformer<filter_tuple_t<elements_type_t<DBO>, is_column>, field_type_t> {};
template<>
struct storage_mapped_columns_impl<polyfill::nonesuch> {
using type = std::tuple<>;
};
/**
* DBOs - db_objects_tuple type
* Lookup - mapped or unmapped data type
*/
template<class DBOs, class Lookup>
struct storage_mapped_columns : storage_mapped_columns_impl<storage_find_table_t<Lookup, DBOs>> {};
}
}
}
// #include "function.h"
#include "ayu/libs/sqlite/sqlite3.h"
#include <type_traits>
#include <string> // std::string
#include <tuple> // std::tuple
#include <functional> // std::function
#include <algorithm> // std::min
#include <utility> // std::move, std::forward
// #include "functional/cxx_universal.h"
// #include "functional/cxx_type_traits_polyfill.h"
namespace sqlite_orm {
struct arg_values;
template<class T, class P>
struct pointer_arg;
template<class T, class P, class D>
class pointer_binding;
namespace internal {
struct user_defined_function_base {
using func_call = std::function<
void(sqlite3_context* context, void* functionPointer, int argsCount, sqlite3_value** values)>;
using final_call = std::function<void(sqlite3_context* context, void* functionPointer)>;
std::string name;
int argumentsCount = 0;
std::function<int*()> create;
void (*destroy)(int*) = nullptr;
#ifndef SQLITE_ORM_AGGREGATE_NSDMI_SUPPORTED
user_defined_function_base(decltype(name) name_,
decltype(argumentsCount) argumentsCount_,
decltype(create) create_,
decltype(destroy) destroy_) :
name(std::move(name_)),
argumentsCount(argumentsCount_), create(std::move(create_)), destroy(destroy_) {}
#endif
};
struct user_defined_scalar_function_t : user_defined_function_base {
func_call run;
user_defined_scalar_function_t(decltype(name) name_,
int argumentsCount_,
decltype(create) create_,
decltype(run) run_,
decltype(destroy) destroy_) :
user_defined_function_base{std::move(name_), argumentsCount_, std::move(create_), destroy_},
run(std::move(run_)) {}
};
struct user_defined_aggregate_function_t : user_defined_function_base {
func_call step;
final_call finalCall;
user_defined_aggregate_function_t(decltype(name) name_,
int argumentsCount_,
decltype(create) create_,
decltype(step) step_,
decltype(finalCall) finalCall_,
decltype(destroy) destroy_) :
user_defined_function_base{std::move(name_), argumentsCount_, std::move(create_), destroy_},
step(std::move(step_)), finalCall(std::move(finalCall_)) {}
};
template<class F>
using scalar_call_function_t = decltype(&F::operator());
template<class F>
using aggregate_step_function_t = decltype(&F::step);
template<class F>
using aggregate_fin_function_t = decltype(&F::fin);
template<class F, class = void>
SQLITE_ORM_INLINE_VAR constexpr bool is_scalar_function_v = false;
template<class F>
SQLITE_ORM_INLINE_VAR constexpr bool is_scalar_function_v<F, polyfill::void_t<scalar_call_function_t<F>>> =
true;
template<class F, class = void>
SQLITE_ORM_INLINE_VAR constexpr bool is_aggregate_function_v = false;
template<class F>
SQLITE_ORM_INLINE_VAR constexpr bool is_aggregate_function_v<
F,
polyfill::void_t<aggregate_step_function_t<F>,
aggregate_fin_function_t<F>,
std::enable_if_t<std::is_member_function_pointer<aggregate_step_function_t<F>>::value>,
std::enable_if_t<std::is_member_function_pointer<aggregate_fin_function_t<F>>::value>>> =
true;
template<class T>
struct member_function_arguments;
template<class O, class R, class... Args>
struct member_function_arguments<R (O::*)(Args...) const> {
using member_function_type = R (O::*)(Args...) const;
using tuple_type = std::tuple<std::decay_t<Args>...>;
using return_type = R;
};
template<class O, class R, class... Args>
struct member_function_arguments<R (O::*)(Args...)> {
using member_function_type = R (O::*)(Args...);
using tuple_type = std::tuple<std::decay_t<Args>...>;
using return_type = R;
};
template<class F, class SFINAE = void>
struct callable_arguments_impl;
template<class F>
struct callable_arguments_impl<F, std::enable_if_t<is_scalar_function_v<F>>> {
using args_tuple = typename member_function_arguments<scalar_call_function_t<F>>::tuple_type;
using return_type = typename member_function_arguments<scalar_call_function_t<F>>::return_type;
};
template<class F>
struct callable_arguments_impl<F, std::enable_if_t<is_aggregate_function_v<F>>> {
using args_tuple = typename member_function_arguments<aggregate_step_function_t<F>>::tuple_type;
using return_type = typename member_function_arguments<aggregate_fin_function_t<F>>::return_type;
};
template<class F>
struct callable_arguments : callable_arguments_impl<F> {};
template<class F, class... Args>
struct function_call {
using function_type = F;
using args_tuple = std::tuple<Args...>;
args_tuple args;
};
template<class T>
struct unpacked_arg {
using type = T;
};
template<class F, class... Args>
struct unpacked_arg<function_call<F, Args...>> {
using type = typename callable_arguments<F>::return_type;
};
template<class T>
using unpacked_arg_t = typename unpacked_arg<T>::type;
template<size_t I, class FnArg, class CallArg>
SQLITE_ORM_CONSTEVAL bool expected_pointer_value() {
static_assert(polyfill::always_false_v<FnArg, CallArg>, "Expected a pointer value for I-th argument");
return false;
}
template<size_t I, class FnArg, class CallArg, class EnableIfTag = void>
constexpr bool is_same_pvt_v = expected_pointer_value<I, FnArg, CallArg>();
// Always allow binding nullptr to a pointer argument
template<size_t I, class PointerArg>
constexpr bool is_same_pvt_v<I, PointerArg, nullptr_t, polyfill::void_t<typename PointerArg::tag>> = true;
#if __cplusplus >= 201703L // C++17 or later
template<size_t I, const char* PointerArg, const char* Binding>
SQLITE_ORM_CONSTEVAL bool assert_same_pointer_type() {
constexpr bool valid = Binding == PointerArg;
static_assert(valid, "Pointer value types of I-th argument do not match");
return valid;
}
template<size_t I, class PointerArg, class Binding>
constexpr bool
is_same_pvt_v<I, PointerArg, Binding, polyfill::void_t<typename PointerArg::tag, typename Binding::tag>> =
assert_same_pointer_type<I, PointerArg::tag::value, Binding::tag::value>();
#else
template<size_t I, class PointerArg, class Binding>
SQLITE_ORM_CONSTEVAL bool assert_same_pointer_type() {
constexpr bool valid = Binding::value == PointerArg::value;
static_assert(valid, "Pointer value types of I-th argument do not match");
return valid;
}
template<size_t I, class PointerArg, class Binding>
constexpr bool
is_same_pvt_v<I, PointerArg, Binding, polyfill::void_t<typename PointerArg::tag, typename Binding::tag>> =
assert_same_pointer_type<I, typename PointerArg::tag, typename Binding::tag>();
#endif
template<size_t I, class FnArg, class CallArg>
SQLITE_ORM_CONSTEVAL bool validate_pointer_value_type(std::false_type) {
return true;
}
template<size_t I, class FnArg, class CallArg>
SQLITE_ORM_CONSTEVAL bool validate_pointer_value_type(std::true_type) {
return is_same_pvt_v<I, FnArg, CallArg>;
}
template<class FnArgs, class CallArgs>
SQLITE_ORM_CONSTEVAL bool validate_pointer_value_types(polyfill::index_constant<size_t(-1)>) {
return true;
}
template<class FnArgs, class CallArgs, size_t I>
SQLITE_ORM_CONSTEVAL bool validate_pointer_value_types(polyfill::index_constant<I>) {
using func_arg_t = std::tuple_element_t<I, FnArgs>;
using passed_arg_t = unpacked_arg_t<std::tuple_element_t<I, CallArgs>>;
#ifdef SQLITE_ORM_RELAXED_CONSTEXPR_SUPPORTED
constexpr bool valid = validate_pointer_value_type<I,
std::tuple_element_t<I, FnArgs>,
unpacked_arg_t<std::tuple_element_t<I, CallArgs>>>(
polyfill::bool_constant < (polyfill::is_specialization_of_v<func_arg_t, pointer_arg>) ||
(polyfill::is_specialization_of_v<passed_arg_t, pointer_binding>) > {});
return validate_pointer_value_types<FnArgs, CallArgs>(polyfill::index_constant<I - 1>{}) && valid;
#else
return validate_pointer_value_types<FnArgs, CallArgs>(polyfill::index_constant<I - 1>{}) &&
validate_pointer_value_type<I,
std::tuple_element_t<I, FnArgs>,
unpacked_arg_t<std::tuple_element_t<I, CallArgs>>>(
polyfill::bool_constant < (polyfill::is_specialization_of_v<func_arg_t, pointer_arg>) ||
(polyfill::is_specialization_of_v<passed_arg_t, pointer_binding>) > {});
#endif
}
}
/**
* Used to call user defined function: `func<MyFunc>(...);`
*/
template<class F, class... Args>
internal::function_call<F, Args...> func(Args... args) {
using args_tuple = std::tuple<Args...>;
using function_args_tuple = typename internal::callable_arguments<F>::args_tuple;
constexpr auto argsCount = std::tuple_size<args_tuple>::value;
constexpr auto functionArgsCount = std::tuple_size<function_args_tuple>::value;
static_assert((argsCount == functionArgsCount &&
!std::is_same<function_args_tuple, std::tuple<arg_values>>::value &&
internal::validate_pointer_value_types<function_args_tuple, args_tuple>(
polyfill::index_constant<std::min<>(functionArgsCount, argsCount) - 1>{})) ||
std::is_same<function_args_tuple, std::tuple<arg_values>>::value,
"Number of arguments does not match");
return {std::make_tuple(std::forward<Args>(args)...)};
}
}
namespace sqlite_orm {
namespace internal {
/**
* Obtains the result type of expressions that form the columns of a select statement.
*
* This is a proxy class used to define what type must have result type depending on select
* arguments (member pointer, aggregate functions, etc). Below you can see specializations
* for different types. E.g. specialization for internal::length_t has `type` int cause
* LENGTH returns INTEGER in sqlite. Every column_result_t must have `type` type that equals
* c++ SELECT return type for T
* DBOs - db_objects_tuple type
* T - C++ type
* SFINAE - sfinae argument
*/
template<class DBOs, class T, class SFINAE = void>
struct column_result_t;
template<class DBOs, class T>
using column_result_of_t = typename column_result_t<DBOs, T>::type;
#ifdef SQLITE_ORM_OPTIONAL_SUPPORTED
template<class DBOs, class T>
struct column_result_t<DBOs, as_optional_t<T>, void> {
using type = std::optional<column_result_of_t<DBOs, T>>;
};
template<class DBOs, class T>
struct column_result_t<DBOs, std::optional<T>, void> {
using type = std::optional<T>;
};
#endif // SQLITE_ORM_OPTIONAL_SUPPORTED
template<class DBOs, class L, class A>
struct column_result_t<DBOs, dynamic_in_t<L, A>, void> {
using type = bool;
};
template<class DBOs, class L, class... Args>
struct column_result_t<DBOs, in_t<L, Args...>, void> {
using type = bool;
};
template<class DBOs, class T>
struct column_result_t<DBOs, T, match_if<std::is_member_pointer, T>> : member_field_type<T> {};
template<class DBOs, class R, class S, class... Args>
struct column_result_t<DBOs, built_in_function_t<R, S, Args...>, void> {
using type = R;
};
template<class DBOs, class R, class S, class... Args>
struct column_result_t<DBOs, built_in_aggregate_function_t<R, S, Args...>, void> {
using type = R;
};
template<class DBOs, class F, class... Args>
struct column_result_t<DBOs, function_call<F, Args...>, void> {
using type = typename callable_arguments<F>::return_type;
};
template<class DBOs, class X, class... Rest, class S>
struct column_result_t<DBOs, built_in_function_t<unique_ptr_result_of<X>, S, X, Rest...>, void> {
using type = std::unique_ptr<column_result_of_t<DBOs, X>>;
};
template<class DBOs, class X, class S>
struct column_result_t<DBOs, built_in_aggregate_function_t<unique_ptr_result_of<X>, S, X>, void> {
using type = std::unique_ptr<column_result_of_t<DBOs, X>>;
};
template<class DBOs, class T>
struct column_result_t<DBOs, count_asterisk_t<T>, void> {
using type = int;
};
template<class DBOs>
struct column_result_t<DBOs, nullptr_t, void> {
using type = nullptr_t;
};
template<class DBOs>
struct column_result_t<DBOs, count_asterisk_without_type, void> {
using type = int;
};
template<class DBOs, class T>
struct column_result_t<DBOs, distinct_t<T>, void> : column_result_t<DBOs, T> {};
template<class DBOs, class T>
struct column_result_t<DBOs, all_t<T>, void> : column_result_t<DBOs, T> {};
template<class DBOs, class L, class R>
struct column_result_t<DBOs, conc_t<L, R>, void> {
using type = std::string;
};
template<class DBOs, class L, class R>
struct column_result_t<DBOs, add_t<L, R>, void> {
using type = double;
};
template<class DBOs, class L, class R>
struct column_result_t<DBOs, sub_t<L, R>, void> {
using type = double;
};
template<class DBOs, class L, class R>
struct column_result_t<DBOs, mul_t<L, R>, void> {
using type = double;
};
template<class DBOs, class L, class R>
struct column_result_t<DBOs, div_t<L, R>, void> {
using type = double;
};
template<class DBOs, class L, class R>
struct column_result_t<DBOs, mod_t<L, R>, void> {
using type = double;
};
template<class DBOs, class L, class R>
struct column_result_t<DBOs, bitwise_shift_left_t<L, R>, void> {
using type = int;
};
template<class DBOs, class L, class R>
struct column_result_t<DBOs, bitwise_shift_right_t<L, R>, void> {
using type = int;
};
template<class DBOs, class L, class R>
struct column_result_t<DBOs, bitwise_and_t<L, R>, void> {
using type = int;
};
template<class DBOs, class L, class R>
struct column_result_t<DBOs, bitwise_or_t<L, R>, void> {
using type = int;
};
template<class DBOs, class T>
struct column_result_t<DBOs, bitwise_not_t<T>, void> {
using type = int;
};
template<class DBOs>
struct column_result_t<DBOs, rowid_t, void> {
using type = int64;
};
template<class DBOs>
struct column_result_t<DBOs, oid_t, void> {
using type = int64;
};
template<class DBOs>
struct column_result_t<DBOs, _rowid_t, void> {
using type = int64;
};
template<class DBOs, class T>
struct column_result_t<DBOs, table_rowid_t<T>, void> {
using type = int64;
};
template<class DBOs, class T>
struct column_result_t<DBOs, table_oid_t<T>, void> {
using type = int64;
};
template<class DBOs, class T>
struct column_result_t<DBOs, table__rowid_t<T>, void> {
using type = int64;
};
template<class DBOs, class T, class C>
struct column_result_t<DBOs, alias_column_t<T, C>, void> : column_result_t<DBOs, C> {};
template<class DBOs, class T, class F>
struct column_result_t<DBOs, column_pointer<T, F>, void> : column_result_t<DBOs, F> {};
template<class DBOs, class... Args>
struct column_result_t<DBOs, columns_t<Args...>, void> {
using type = tuple_cat_t<tuplify_t<column_result_of_t<DBOs, std::decay_t<Args>>>...>;
};
template<class DBOs, class T, class... Args>
struct column_result_t<DBOs, select_t<T, Args...>> : column_result_t<DBOs, T> {};
template<class DBOs, class T>
struct column_result_t<DBOs, T, match_if<is_compound_operator, T>> {
using left_result = column_result_of_t<DBOs, typename T::left_type>;
using right_result = column_result_of_t<DBOs, typename T::right_type>;
static_assert(std::is_same<left_result, right_result>::value,
"Compound subselect queries must return same types");
using type = left_result;
};
template<class DBOs, class T>
struct column_result_t<DBOs, T, match_if<is_binary_condition, T>> {
using type = typename T::result_type;
};
/**
* Result for the most simple queries like `SELECT 1`
*/
template<class DBOs, class T>
struct column_result_t<DBOs, T, match_if<std::is_arithmetic, T>> {
using type = T;
};
/**
* Result for the most simple queries like `SELECT 'ototo'`
*/
template<class DBOs>
struct column_result_t<DBOs, const char*, void> {
using type = std::string;
};
template<class DBOs>
struct column_result_t<DBOs, std::string, void> {
using type = std::string;
};
template<class DBOs, class T, class E>
struct column_result_t<DBOs, as_t<T, E>, void> : column_result_t<DBOs, std::decay_t<E>> {};
template<class DBOs, class T>
struct column_result_t<DBOs, asterisk_t<T>, void>
: storage_traits::storage_mapped_columns<DBOs, mapped_type_proxy_t<T>> {};
template<class DBOs, class T>
struct column_result_t<DBOs, object_t<T>, void> {
using type = T;
};
template<class DBOs, class T, class E>
struct column_result_t<DBOs, cast_t<T, E>, void> {
using type = T;
};
template<class DBOs, class R, class T, class E, class... Args>
struct column_result_t<DBOs, simple_case_t<R, T, E, Args...>, void> {
using type = R;
};
template<class DBOs, class A, class T, class E>
struct column_result_t<DBOs, like_t<A, T, E>, void> {
using type = bool;
};
template<class DBOs, class A, class T>
struct column_result_t<DBOs, glob_t<A, T>, void> {
using type = bool;
};
template<class DBOs, class C>
struct column_result_t<DBOs, negated_condition_t<C>, void> {
using type = bool;
};
template<class DBOs, class T>
struct column_result_t<DBOs, std::reference_wrapper<T>, void> : column_result_t<DBOs, T> {};
}
}
// #include "mapped_type_proxy.h"
// #include "sync_schema_result.h"
// #include "table_info.h"
// #include "storage_impl.h"
// #include "journal_mode.h"
// #include "view.h"
#include "ayu/libs/sqlite/sqlite3.h"
#include <string> // std::string
#include <utility> // std::forward, std::move
#include <tuple> // std::tuple, std::make_tuple
// #include "row_extractor.h"
// #include "error_code.h"
// #include "iterator.h"
#include "ayu/libs/sqlite/sqlite3.h"
#include <memory> // std::shared_ptr, std::unique_ptr, std::make_shared
#include <type_traits> // std::decay
#include <utility> // std::move
#include <iterator> // std::input_iterator_tag
#include <system_error> // std::system_error
#include <functional> // std::bind
// #include "functional/cxx_universal.h"
// #include "statement_finalizer.h"
// #include "error_code.h"
// #include "object_from_column_builder.h"
// #include "storage_lookup.h"
// #include "util.h"
namespace sqlite_orm {
namespace internal {
template<class V>
struct iterator_t {
using view_type = V;
using value_type = typename view_type::mapped_type;
protected:
/**
* shared_ptr is used over unique_ptr here
* so that the iterator can be copyable.
*/
std::shared_ptr<sqlite3_stmt> stmt;
// only null for the default constructed iterator
view_type* view = nullptr;
/**
* shared_ptr is used over unique_ptr here
* so that the iterator can be copyable.
*/
std::shared_ptr<value_type> current;
void extract_value() {
auto& dbObjects = obtain_db_objects(this->view->storage);
this->current = std::make_shared<value_type>();
object_from_column_builder<value_type> builder{*this->current, this->stmt.get()};
pick_table<value_type>(dbObjects).for_each_column(builder);
}
void next() {
this->current.reset();
if(sqlite3_stmt* stmt = this->stmt.get()) {
perform_step(stmt, std::bind(&iterator_t::extract_value, this));
if(!this->current) {
this->stmt.reset();
}
}
}
public:
using difference_type = ptrdiff_t;
using pointer = value_type*;
using reference = value_type&;
using iterator_category = std::input_iterator_tag;
iterator_t(){};
iterator_t(statement_finalizer stmt_, view_type& view_) : stmt{std::move(stmt_)}, view{&view_} {
next();
}
const value_type& operator*() const {
if(!this->stmt || !this->current) {
throw std::system_error{orm_error_code::trying_to_dereference_null_iterator};
}
return *this->current;
}
const value_type* operator->() const {
return &(this->operator*());
}
iterator_t<V>& operator++() {
next();
return *this;
}
void operator++(int) {
this->operator++();
}
bool operator==(const iterator_t& other) const {
return this->current == other.current;
}
bool operator!=(const iterator_t& other) const {
return !(*this == other);
}
};
}
}
// #include "ast_iterator.h"
#include <vector> // std::vector
#include <functional> // std::reference_wrapper
// #include "tuple_helper/tuple_iteration.h"
// #include "type_traits.h"
// #include "conditions.h"
// #include "alias.h"
// #include "select_constraints.h"
// #include "operators.h"
// #include "core_functions.h"
// #include "prepared_statement.h"
#include "ayu/libs/sqlite/sqlite3.h"
#include <memory> // std::unique_ptr
#include <iterator> // std::iterator_traits
#include <string> // std::string
#include <type_traits> // std::integral_constant, std::declval
#include <utility> // std::pair
// #include "functional/cxx_universal.h"
// #include "functional/cxx_type_traits_polyfill.h"
// #include "functional/cxx_functional_polyfill.h"
// #include "tuple_helper/tuple_filter.h"
// #include "connection_holder.h"
#include "ayu/libs/sqlite/sqlite3.h"
#include <atomic>
#include <string> // std::string
// #include "error_code.h"
namespace sqlite_orm {
namespace internal {
struct connection_holder {
connection_holder(std::string filename_) : filename(std::move(filename_)) {}
void retain() {
if(1 == ++this->_retain_count) {
auto rc = sqlite3_open(this->filename.c_str(), &this->db);
if(rc != SQLITE_OK) {
throw_translated_sqlite_error(db);
}
}
}
void release() {
if(0 == --this->_retain_count) {
auto rc = sqlite3_close(this->db);
if(rc != SQLITE_OK) {
throw_translated_sqlite_error(db);
}
}
}
sqlite3* get() const {
return this->db;
}
int retain_count() const {
return this->_retain_count;
}
const std::string filename;
protected:
sqlite3* db = nullptr;
std::atomic_int _retain_count{};
};
struct connection_ref {
connection_ref(connection_holder& holder_) : holder(holder_) {
this->holder.retain();
}
connection_ref(const connection_ref& other) : holder(other.holder) {
this->holder.retain();
}
connection_ref(connection_ref&& other) : holder(other.holder) {
this->holder.retain();
}
~connection_ref() {
this->holder.release();
}
sqlite3* get() const {
return this->holder.get();
}
protected:
connection_holder& holder;
};
}
}
// #include "select_constraints.h"
// #include "values.h"
#include <vector> // std::vector
#include <tuple> // std::tuple
#include <utility> // std::forward
// #include "functional/cxx_universal.h"
// #include "functional/cxx_type_traits_polyfill.h"
namespace sqlite_orm {
namespace internal {
template<class... Args>
struct values_t {
using args_tuple = std::tuple<Args...>;
args_tuple tuple;
};
template<class T>
SQLITE_ORM_INLINE_VAR constexpr bool is_values_v = polyfill::is_specialization_of_v<T, values_t>;
template<class T>
using is_values = polyfill::bool_constant<is_values_v<T>>;
template<class T>
struct dynamic_values_t {
std::vector<T> vector;
};
}
template<class... Args>
internal::values_t<Args...> values(Args... args) {
return {{std::forward<Args>(args)...}};
}
template<class T>
internal::dynamic_values_t<T> values(std::vector<T> vector) {
return {{std::move(vector)}};
}
}
// #include "ast/upsert_clause.h"
#if SQLITE_VERSION_NUMBER >= 3024000
#include <tuple> // std::tuple
#include <utility> // std::forward, std::move
#endif
// #include "../functional/cxx_type_traits_polyfill.h"
namespace sqlite_orm {
namespace internal {
#if SQLITE_VERSION_NUMBER >= 3024000
template<class T, class A>
struct upsert_clause;
template<class... Args>
struct conflict_target {
using args_tuple = std::tuple<Args...>;
args_tuple args;
upsert_clause<args_tuple, std::tuple<>> do_nothing() {
return {std::move(this->args), {}};
}
template<class... ActionsArgs>
upsert_clause<args_tuple, std::tuple<ActionsArgs...>> do_update(ActionsArgs... actions) {
return {std::move(this->args), {std::forward<ActionsArgs>(actions)...}};
}
};
template<class... TargetArgs, class... ActionsArgs>
struct upsert_clause<std::tuple<TargetArgs...>, std::tuple<ActionsArgs...>> {
using target_args_tuple = std::tuple<TargetArgs...>;
using actions_tuple = std::tuple<ActionsArgs...>;
target_args_tuple target_args;
actions_tuple actions;
};
template<class T>
using is_upsert_clause = polyfill::is_specialization_of<T, upsert_clause>;
#else
template<class T>
struct is_upsert_clause : polyfill::bool_constant<false> {};
#endif
}
#if SQLITE_VERSION_NUMBER >= 3024000
/**
* ON CONFLICT upsert clause builder function.
* @example
* storage.insert(into<Employee>(),
* columns(&Employee::id, &Employee::name, &Employee::age, &Employee::address, &Employee::salary),
* values(std::make_tuple(3, "Sofia", 26, "Madrid", 15000.0),
* std::make_tuple(4, "Doja", 26, "LA", 25000.0)),
* on_conflict(&Employee::id).do_update(set(c(&Employee::name) = excluded(&Employee::name),
* c(&Employee::age) = excluded(&Employee::age),
* c(&Employee::address) = excluded(&Employee::address),
* c(&Employee::salary) = excluded(&Employee::salary))));
*/
template<class... Args>
internal::conflict_target<Args...> on_conflict(Args... args) {
return {std::tuple<Args...>(std::forward<Args>(args)...)};
}
#endif
}
// #include "ast/set.h"
#include <tuple> // std::tuple, std::tuple_size
#include <string> // std::string
#include <vector> // std::vector
#include <sstream> // std::stringstream
#include <type_traits> // std::false_type, std::true_type
// #include "../table_name_collector.h"
#include <set> // std::set
#include <string> // std::string
#include <utility> // std::pair, std::move
// #include "functional/cxx_type_traits_polyfill.h"
// #include "type_traits.h"
// #include "mapped_type_proxy.h"
// #include "select_constraints.h"
// #include "alias.h"
// #include "core_functions.h"
// #include "storage_lookup.h"
namespace sqlite_orm {
namespace internal {
struct table_name_collector_base {
using table_name_set = std::set<std::pair<std::string, std::string>>;
table_name_set table_names;
};
template<class DBOs>
struct table_name_collector : table_name_collector_base {
using db_objects_type = DBOs;
const db_objects_type& db_objects;
table_name_collector() = default;
table_name_collector(const db_objects_type& dbObjects) : db_objects{dbObjects} {}
template<class T>
void operator()(const T&) const {}
template<class F, class O>
void operator()(F O::*) {
this->table_names.emplace(lookup_table_name<O>(this->db_objects), "");
}
template<class T, class F>
void operator()(const column_pointer<T, F>&) {
this->table_names.emplace(lookup_table_name<T>(this->db_objects), "");
}
template<class A, class C>
void operator()(const alias_column_t<A, C>&) {
// note: instead of accessing the column, we are interested in the type the column is aliased into
auto tableName = lookup_table_name<mapped_type_proxy_t<A>>(this->db_objects);
this->table_names.emplace(std::move(tableName), alias_extractor<A>::as_alias());
}
template<class T>
void operator()(const count_asterisk_t<T>&) {
auto tableName = lookup_table_name<T>(this->db_objects);
if(!tableName.empty()) {
this->table_names.emplace(std::move(tableName), "");
}
}
template<class T>
void operator()(const asterisk_t<T>&) {
auto tableName = lookup_table_name<mapped_type_proxy_t<T>>(this->db_objects);
table_names.emplace(std::move(tableName), alias_extractor<T>::as_alias());
}
template<class T>
void operator()(const object_t<T>&) {
this->table_names.emplace(lookup_table_name<T>(this->db_objects), "");
}
template<class T>
void operator()(const table_rowid_t<T>&) {
this->table_names.emplace(lookup_table_name<T>(this->db_objects), "");
}
template<class T>
void operator()(const table_oid_t<T>&) {
this->table_names.emplace(lookup_table_name<T>(this->db_objects), "");
}
template<class T>
void operator()(const table__rowid_t<T>&) {
this->table_names.emplace(lookup_table_name<T>(this->db_objects), "");
}
};
template<class DBOs, satisfies<is_db_objects, DBOs> = true>
table_name_collector<DBOs> make_table_name_collector(const DBOs& dbObjects) {
return {dbObjects};
}
}
}
namespace sqlite_orm {
namespace internal {
template<class T, class L>
void iterate_ast(const T& t, L&& lambda);
template<class... Args>
struct set_t {
using assigns_type = std::tuple<Args...>;
assigns_type assigns;
};
template<class T>
struct is_set : std::false_type {};
template<class... Args>
struct is_set<set_t<Args...>> : std::true_type {};
struct dynamic_set_entry {
std::string serialized_value;
};
template<class C>
struct dynamic_set_t {
using context_t = C;
using entry_t = dynamic_set_entry;
using const_iterator = typename std::vector<entry_t>::const_iterator;
dynamic_set_t(const context_t& context_) : context(context_), collector(this->context.db_objects) {}
dynamic_set_t(const dynamic_set_t& other) = default;
dynamic_set_t(dynamic_set_t&& other) = default;
dynamic_set_t& operator=(const dynamic_set_t& other) = default;
dynamic_set_t& operator=(dynamic_set_t&& other) = default;
template<class L, class R>
void push_back(assign_t<L, R> assign) {
auto newContext = this->context;
newContext.skip_table_name = true;
iterate_ast(assign, this->collector);
std::stringstream ss;
ss << serialize(assign.lhs, newContext) << ' ' << assign.serialize() << ' '
<< serialize(assign.rhs, context);
this->entries.push_back({ss.str()});
}
const_iterator begin() const {
return this->entries.begin();
}
const_iterator end() const {
return this->entries.end();
}
void clear() {
this->entries.clear();
this->collector.table_names.clear();
}
std::vector<entry_t> entries;
context_t context;
table_name_collector<typename context_t::db_objects_type> collector;
};
template<class C>
struct is_set<dynamic_set_t<C>> : std::true_type {};
template<class C>
struct is_dynamic_set : std::false_type {};
template<class C>
struct is_dynamic_set<dynamic_set_t<C>> : std::true_type {};
}
/**
* SET keyword used in UPDATE ... SET queries.
* Args must have `assign_t` type. E.g. set(assign(&User::id, 5)) or set(c(&User::id) = 5)
*/
template<class... Args>
internal::set_t<Args...> set(Args... args) {
using arg_tuple = std::tuple<Args...>;
static_assert(std::tuple_size<arg_tuple>::value ==
internal::count_tuple<arg_tuple, internal::is_assign_t>::value,
"set function accepts assign operators only");
return {std::make_tuple(std::forward<Args>(args)...)};
}
/**
* SET keyword used in UPDATE ... SET queries. It is dynamic version. It means use can add amount of arguments now known at compilation time but known at runtime.
*/
template<class S>
internal::dynamic_set_t<internal::serializer_context<typename S::db_objects_type>> dynamic_set(const S& storage) {
internal::serializer_context_builder<S> builder(storage);
return builder();
}
}
namespace sqlite_orm {
namespace internal {
struct prepared_statement_base {
sqlite3_stmt* stmt = nullptr;
connection_ref con;
#ifndef SQLITE_ORM_AGGREGATE_NSDMI_SUPPORTED
prepared_statement_base(sqlite3_stmt* stmt, connection_ref con) : stmt{stmt}, con{std::move(con)} {}
#endif
~prepared_statement_base() {
sqlite3_finalize(this->stmt);
}
std::string sql() const {
// note: sqlite3 internally checks for null before calling
// sqlite3_normalized_sql() or sqlite3_expanded_sql(), so check here, too, even if superfluous
if(const char* sql = sqlite3_sql(this->stmt)) {
return sql;
} else {
return {};
}
}
#if SQLITE_VERSION_NUMBER >= 3014000
std::string expanded_sql() const {
// note: must check return value due to SQLITE_OMIT_TRACE
using char_ptr = std::unique_ptr<char, std::integral_constant<decltype(&sqlite3_free), sqlite3_free>>;
if(char_ptr sql{sqlite3_expanded_sql(this->stmt)}) {
return sql.get();
} else {
return {};
}
}
#endif
#if SQLITE_VERSION_NUMBER >= 3026000 and defined(SQLITE_ENABLE_NORMALIZE)
std::string normalized_sql() const {
if(const char* sql = sqlite3_normalized_sql(this->stmt)) {
return sql;
} else {
return {};
}
}
#endif
#ifdef SQLITE_ORM_STRING_VIEW_SUPPORTED
std::string_view column_name(int index) const {
return sqlite3_column_name(stmt, index);
}
#endif
};
template<class T>
struct prepared_statement_t : prepared_statement_base {
using expression_type = T;
expression_type expression;
prepared_statement_t(T expression_, sqlite3_stmt* stmt_, connection_ref con_) :
prepared_statement_base{stmt_, std::move(con_)}, expression(std::move(expression_)) {}
prepared_statement_t(prepared_statement_t&& prepared_stmt) :
prepared_statement_base{prepared_stmt.stmt, std::move(prepared_stmt.con)},
expression(std::move(prepared_stmt.expression)) {
prepared_stmt.stmt = nullptr;
}
};
template<class T>
SQLITE_ORM_INLINE_VAR constexpr bool is_prepared_statement_v =
polyfill::is_specialization_of_v<T, prepared_statement_t>;
template<class T>
using is_prepared_statement = polyfill::bool_constant<is_prepared_statement_v<T>>;
/**
* T - type of object to obtain from a database
*/
template<class T, class R, class... Args>
struct get_all_t {
using type = T;
using return_type = R;
using conditions_type = std::tuple<Args...>;
conditions_type conditions;
};
template<class T, class R, class... Args>
struct get_all_pointer_t {
using type = T;
using return_type = R;
using conditions_type = std::tuple<Args...>;
conditions_type conditions;
};
#ifdef SQLITE_ORM_OPTIONAL_SUPPORTED
template<class T, class R, class... Args>
struct get_all_optional_t {
using type = T;
using return_type = R;
using conditions_type = std::tuple<Args...>;
conditions_type conditions;
};
#endif // SQLITE_ORM_OPTIONAL_SUPPORTED
template<class S, class... Wargs>
struct update_all_t {
using set_type = S;
using conditions_type = std::tuple<Wargs...>;
static_assert(is_set<S>::value, "update_all_t must have set or dynamic set as the first argument");
set_type set;
conditions_type conditions;
};
template<class T, class... Args>
struct remove_all_t {
using type = T;
using conditions_type = std::tuple<Args...>;
conditions_type conditions;
};
template<class T, class... Ids>
struct get_t {
using type = T;
using ids_type = std::tuple<Ids...>;
ids_type ids;
};
template<class T, class... Ids>
struct get_pointer_t {
using type = T;
using ids_type = std::tuple<Ids...>;
ids_type ids;
};
#ifdef SQLITE_ORM_OPTIONAL_SUPPORTED
template<class T, class... Ids>
struct get_optional_t {
using type = T;
using ids_type = std::tuple<Ids...>;
ids_type ids;
};
#endif // SQLITE_ORM_OPTIONAL_SUPPORTED
template<class T>
struct update_t {
using type = T;
type object;
};
template<class T, class... Ids>
struct remove_t {
using type = T;
using ids_type = std::tuple<Ids...>;
ids_type ids;
};
template<class T>
struct insert_t {
using type = T;
type object;
};
template<class T>
SQLITE_ORM_INLINE_VAR constexpr bool is_insert_v = polyfill::is_specialization_of_v<T, insert_t>;
template<class T>
using is_insert = polyfill::bool_constant<is_insert_v<T>>;
template<class T, class... Cols>
struct insert_explicit {
using type = T;
using columns_type = columns_t<Cols...>;
type obj;
columns_type columns;
};
template<class T>
struct replace_t {
using type = T;
type object;
};
template<class T>
SQLITE_ORM_INLINE_VAR constexpr bool is_replace_v = polyfill::is_specialization_of_v<T, replace_t>;
template<class T>
using is_replace = polyfill::bool_constant<is_replace_v<T>>;
template<class It, class Projection, class O>
struct insert_range_t {
using iterator_type = It;
using transformer_type = Projection;
using object_type = O;
std::pair<iterator_type, iterator_type> range;
transformer_type transformer;
};
template<class T>
SQLITE_ORM_INLINE_VAR constexpr bool is_insert_range_v = polyfill::is_specialization_of_v<T, insert_range_t>;
template<class T>
using is_insert_range = polyfill::bool_constant<is_insert_range_v<T>>;
template<class It, class Projection, class O>
struct replace_range_t {
using iterator_type = It;
using transformer_type = Projection;
using object_type = O;
std::pair<iterator_type, iterator_type> range;
transformer_type transformer;
};
template<class T>
SQLITE_ORM_INLINE_VAR constexpr bool is_replace_range_v = polyfill::is_specialization_of_v<T, replace_range_t>;
template<class T>
using is_replace_range = polyfill::bool_constant<is_replace_range_v<T>>;
template<class... Args>
struct insert_raw_t {
using args_tuple = std::tuple<Args...>;
args_tuple args;
};
template<class T>
SQLITE_ORM_INLINE_VAR constexpr bool is_insert_raw_v = polyfill::is_specialization_of_v<T, insert_raw_t>;
template<class T>
using is_insert_raw = polyfill::bool_constant<is_insert_raw_v<T>>;
template<class... Args>
struct replace_raw_t {
using args_tuple = std::tuple<Args...>;
args_tuple args;
};
template<class T>
SQLITE_ORM_INLINE_VAR constexpr bool is_replace_raw_v = polyfill::is_specialization_of_v<T, replace_raw_t>;
template<class T>
using is_replace_raw = polyfill::bool_constant<is_replace_raw_v<T>>;
struct default_values_t {};
template<class T>
using is_default_values = std::is_same<T, default_values_t>;
enum class conflict_action {
abort,
fail,
ignore,
replace,
rollback,
};
struct insert_constraint {
conflict_action action = conflict_action::abort;
#ifndef SQLITE_ORM_AGGREGATE_NSDMI_SUPPORTED
insert_constraint(conflict_action action) : action{action} {}
#endif
};
template<class T>
using is_insert_constraint = std::is_same<T, insert_constraint>;
}
inline internal::insert_constraint or_rollback() {
return {internal::conflict_action::rollback};
}
inline internal::insert_constraint or_replace() {
return {internal::conflict_action::replace};
}
inline internal::insert_constraint or_ignore() {
return {internal::conflict_action::ignore};
}
inline internal::insert_constraint or_fail() {
return {internal::conflict_action::fail};
}
inline internal::insert_constraint or_abort() {
return {internal::conflict_action::abort};
}
/**
* Use this function to add `DEFAULT VALUES` modifier to raw `INSERT`.
*
* @example
* ```
* storage.insert(into<Singer>(), default_values());
* ```
*/
inline internal::default_values_t default_values() {
return {};
}
/**
* Raw insert statement creation routine. Use this if `insert` with object does not fit you. This insert is designed to be able
* to call any type of `INSERT` query with no limitations.
* @example
* ```sql
* INSERT INTO users (id, name) VALUES(5, 'Little Mix')
* ```
* will be
* ```c++
* auto statement = storage.prepare(insert(into<User>, columns(&User::id, &User::name), values(std::make_tuple(5, "Little Mix"))));
* storage.execute(statement));
* ```
* One more example:
* ```sql
* INSERT INTO singers (name) VALUES ('Sofia Reyes')('Kungs')
* ```
* will be
* ```c++
* auto statement = storage.prepare(insert(into<Singer>(), columns(&Singer::name), values(std::make_tuple("Sofia Reyes"), std::make_tuple("Kungs"))));
* storage.execute(statement));
* ```
* One can use `default_values` to add `DEFAULT VALUES` modifier:
* ```sql
* INSERT INTO users DEFAULT VALUES
* ```
* will be
* ```c++
* auto statement = storage.prepare(insert(into<Singer>(), default_values()));
* storage.execute(statement));
* ```
* Also one can use `INSERT OR ABORT`/`INSERT OR FAIL`/`INSERT OR IGNORE`/`INSERT OR REPLACE`/`INSERT ROLLBACK`:
* ```c++
* auto statement = storage.prepare(insert(or_ignore(), into<Singer>(), columns(&Singer::name), values(std::make_tuple("Sofia Reyes"), std::make_tuple("Kungs"))));
* auto statement2 = storage.prepare(insert(or_rollback(), into<Singer>(), default_values()));
* auto statement3 = storage.prepare(insert(or_abort(), into<User>, columns(&User::id, &User::name), values(std::make_tuple(5, "Little Mix"))));
* ```
*/
template<class... Args>
internal::insert_raw_t<Args...> insert(Args... args) {
using args_tuple = std::tuple<Args...>;
using internal::count_tuple;
using internal::is_columns;
using internal::is_insert_constraint;
using internal::is_into;
using internal::is_select;
using internal::is_upsert_clause;
using internal::is_values;
constexpr int orArgsCount = count_tuple<args_tuple, is_insert_constraint>::value;
static_assert(orArgsCount < 2, "Raw insert must have only one OR... argument");
constexpr int intoArgsCount = count_tuple<args_tuple, is_into>::value;
static_assert(intoArgsCount != 0, "Raw insert must have into<T> argument");
static_assert(intoArgsCount < 2, "Raw insert must have only one into<T> argument");
constexpr int columnsArgsCount = count_tuple<args_tuple, is_columns>::value;
static_assert(columnsArgsCount < 2, "Raw insert must have only one columns(...) argument");
constexpr int valuesArgsCount = count_tuple<args_tuple, is_values>::value;
static_assert(valuesArgsCount < 2, "Raw insert must have only one values(...) argument");
constexpr int defaultValuesCount = count_tuple<args_tuple, internal::is_default_values>::value;
static_assert(defaultValuesCount < 2, "Raw insert must have only one default_values() argument");
constexpr int selectsArgsCount = count_tuple<args_tuple, is_select>::value;
static_assert(selectsArgsCount < 2, "Raw insert must have only one select(...) argument");
constexpr int upsertClausesCount = count_tuple<args_tuple, is_upsert_clause>::value;
static_assert(upsertClausesCount <= 2, "Raw insert can contain 2 instances of upsert clause maximum");
constexpr int argsCount = int(std::tuple_size<args_tuple>::value);
static_assert(argsCount == intoArgsCount + columnsArgsCount + valuesArgsCount + defaultValuesCount +
selectsArgsCount + orArgsCount + upsertClausesCount,
"Raw insert has invalid arguments");
return {{std::forward<Args>(args)...}};
}
/**
* Raw replace statement creation routine. Use this if `replace` with object does not fit you. This replace is designed to be able
* to call any type of `REPLACE` query with no limitations. Actually this is the same query as raw insert except `OR...` option existance.
* @example
* ```sql
* REPLACE INTO users (id, name) VALUES(5, 'Little Mix')
* ```
* will be
* ```c++
* auto statement = storage.prepare(replace(into<User>, columns(&User::id, &User::name), values(std::make_tuple(5, "Little Mix"))));
* storage.execute(statement));
* ```
* One more example:
* ```sql
* REPLACE INTO singers (name) VALUES ('Sofia Reyes')('Kungs')
* ```
* will be
* ```c++
* auto statement = storage.prepare(replace(into<Singer>(), columns(&Singer::name), values(std::make_tuple("Sofia Reyes"), std::make_tuple("Kungs"))));
* storage.execute(statement));
* ```
* One can use `default_values` to add `DEFAULT VALUES` modifier:
* ```sql
* REPLACE INTO users DEFAULT VALUES
* ```
* will be
* ```c++
* auto statement = storage.prepare(replace(into<Singer>(), default_values()));
* storage.execute(statement));
* ```
*/
template<class... Args>
internal::replace_raw_t<Args...> replace(Args... args) {
using args_tuple = std::tuple<Args...>;
using internal::count_tuple;
using internal::is_columns;
using internal::is_into;
using internal::is_values;
constexpr int intoArgsCount = count_tuple<args_tuple, is_into>::value;
static_assert(intoArgsCount != 0, "Raw replace must have into<T> argument");
static_assert(intoArgsCount < 2, "Raw replace must have only one into<T> argument");
constexpr int columnsArgsCount = count_tuple<args_tuple, is_columns>::value;
static_assert(columnsArgsCount < 2, "Raw replace must have only one columns(...) argument");
constexpr int valuesArgsCount = count_tuple<args_tuple, is_values>::value;
static_assert(valuesArgsCount < 2, "Raw replace must have only one values(...) argument");
constexpr int defaultValuesCount = count_tuple<args_tuple, internal::is_default_values>::value;
static_assert(defaultValuesCount < 2, "Raw replace must have only one default_values() argument");
constexpr int selectsArgsCount = count_tuple<args_tuple, internal::is_select>::value;
static_assert(selectsArgsCount < 2, "Raw replace must have only one select(...) argument");
constexpr int argsCount = int(std::tuple_size<args_tuple>::value);
static_assert(argsCount ==
intoArgsCount + columnsArgsCount + valuesArgsCount + defaultValuesCount + selectsArgsCount,
"Raw replace has invalid arguments");
return {{std::forward<Args>(args)...}};
}
/**
* Create a replace range statement.
* The objects in the range are transformed using the specified projection, which defaults to identity projection.
*
* @example
* ```
* std::vector<User> users;
* users.push_back(User{1, "Leony"});
* auto statement = storage.prepare(replace_range(users.begin(), users.end()));
* storage.execute(statement);
* ```
* @example
* ```
* std::vector<std::unique_ptr<User>> userPointers;
* userPointers.push_back(std::make_unique<User>(1, "Eneli"));
* auto statement = storage.prepare(replace_range(userPointers.begin(), userPointers.end(), &std::unique_ptr<User>::operator*));
* storage.execute(statement);
* ```
*/
template<class It, class Projection = polyfill::identity>
auto replace_range(It from, It to, Projection project = {}) {
using O = std::decay_t<decltype(polyfill::invoke(std::declval<Projection>(), *std::declval<It>()))>;
return internal::replace_range_t<It, Projection, O>{{std::move(from), std::move(to)}, std::move(project)};
}
/*
* Create a replace range statement.
* Overload of `replace_range(It, It, Projection)` with explicit object type template parameter.
*/
template<class O, class It, class Projection = polyfill::identity>
internal::replace_range_t<It, Projection, O> replace_range(It from, It to, Projection project = {}) {
return {{std::move(from), std::move(to)}, std::move(project)};
}
/**
* Create an insert range statement.
* The objects in the range are transformed using the specified projection, which defaults to identity projection.
*
* @example
* ```
* std::vector<User> users;
* users.push_back(User{1, "Leony"});
* auto statement = storage.prepare(insert_range(users.begin(), users.end()));
* storage.execute(statement);
* ```
* @example
* ```
* std::vector<std::unique_ptr<User>> userPointers;
* userPointers.push_back(std::make_unique<User>(1, "Eneli"));
* auto statement = storage.prepare(insert_range(userPointers.begin(), userPointers.end(), &std::unique_ptr<User>::operator*));
* storage.execute(statement);
* ```
*/
template<class It, class Projection = polyfill::identity>
auto insert_range(It from, It to, Projection project = {}) {
using O = std::decay_t<decltype(polyfill::invoke(std::declval<Projection>(), *std::declval<It>()))>;
return internal::insert_range_t<It, Projection, O>{{std::move(from), std::move(to)}, std::move(project)};
}
/*
* Create an insert range statement.
* Overload of `insert_range(It, It, Projection)` with explicit object type template parameter.
*/
template<class O, class It, class Projection = polyfill::identity>
internal::insert_range_t<It, Projection, O> insert_range(It from, It to, Projection project = {}) {
return {{std::move(from), std::move(to)}, std::move(project)};
}
/**
* Create a replace statement.
* T is an object type mapped to a storage.
* Usage: storage.replace(myUserInstance);
* Parameter obj is accepted by value. If you want to accept it by ref
* please use std::ref function: storage.replace(std::ref(myUserInstance));
*/
template<class T>
internal::replace_t<T> replace(T obj) {
return {std::move(obj)};
}
/**
* Create an insert statement.
* T is an object type mapped to a storage.
* Usage: storage.insert(myUserInstance);
* Parameter obj is accepted by value. If you want to accept it by ref
* please use std::ref function: storage.insert(std::ref(myUserInstance));
*/
template<class T>
internal::insert_t<T> insert(T obj) {
return {std::move(obj)};
}
/**
* Create an explicit insert statement.
* T is an object type mapped to a storage.
* Cols is columns types aparameter pack. Must contain member pointers
* Usage: storage.insert(myUserInstance, columns(&User::id, &User::name));
* Parameter obj is accepted by value. If you want to accept it by ref
* please use std::ref function: storage.insert(std::ref(myUserInstance), columns(&User::id, &User::name));
*/
template<class T, class... Cols>
internal::insert_explicit<T, Cols...> insert(T obj, internal::columns_t<Cols...> cols) {
return {std::move(obj), std::move(cols)};
}
/**
* Create a remove statement
* T is an object type mapped to a storage.
* Usage: remove<User>(5);
*/
template<class T, class... Ids>
internal::remove_t<T, Ids...> remove(Ids... ids) {
std::tuple<Ids...> idsTuple{std::forward<Ids>(ids)...};
return {std::move(idsTuple)};
}
/**
* Create an update statement.
* T is an object type mapped to a storage.
* Usage: storage.update(myUserInstance);
* Parameter obj is accepted by value. If you want to accept it by ref
* please use std::ref function: storage.update(std::ref(myUserInstance));
*/
template<class T>
internal::update_t<T> update(T obj) {
return {std::move(obj)};
}
/**
* Create a get statement.
* T is an object type mapped to a storage.
* Usage: get<User>(5);
*/
template<class T, class... Ids>
internal::get_t<T, Ids...> get(Ids... ids) {
std::tuple<Ids...> idsTuple{std::forward<Ids>(ids)...};
return {std::move(idsTuple)};
}
/**
* Create a get pointer statement.
* T is an object type mapped to a storage.
* Usage: get_pointer<User>(5);
*/
template<class T, class... Ids>
internal::get_pointer_t<T, Ids...> get_pointer(Ids... ids) {
std::tuple<Ids...> idsTuple{std::forward<Ids>(ids)...};
return {std::move(idsTuple)};
}
#ifdef SQLITE_ORM_OPTIONAL_SUPPORTED
/**
* Create a get optional statement.
* T is an object type mapped to a storage.
* Usage: get_optional<User>(5);
*/
template<class T, class... Ids>
internal::get_optional_t<T, Ids...> get_optional(Ids... ids) {
std::tuple<Ids...> idsTuple{std::forward<Ids>(ids)...};
return {std::move(idsTuple)};
}
#endif // SQLITE_ORM_OPTIONAL_SUPPORTED
/**
* Create a remove all statement.
* T is an object type mapped to a storage.
* Usage: storage.remove_all<User>(...);
*/
template<class T, class... Args>
internal::remove_all_t<T, Args...> remove_all(Args... args) {
using args_tuple = std::tuple<Args...>;
internal::validate_conditions<args_tuple>();
args_tuple conditions{std::forward<Args>(args)...};
return {std::move(conditions)};
}
/**
* Create a get all statement.
* T is an object type mapped to a storage.
* Usage: storage.get_all<User>(...);
*/
template<class T, class... Args>
internal::get_all_t<T, std::vector<T>, Args...> get_all(Args... args) {
using args_tuple = std::tuple<Args...>;
internal::validate_conditions<args_tuple>();
args_tuple conditions{std::forward<Args>(args)...};
return {std::move(conditions)};
}
/**
* Create a get all statement.
* T is an object type mapped to a storage.
* R is a container type. std::vector<T> is default
* Usage: storage.get_all<User>(...);
*/
template<class T, class R, class... Args>
internal::get_all_t<T, R, Args...> get_all(Args... args) {
using args_tuple = std::tuple<Args...>;
internal::validate_conditions<args_tuple>();
args_tuple conditions{std::forward<Args>(args)...};
return {std::move(conditions)};
}
/**
* Create an update all statement.
* Usage: storage.update_all(set(...), ...);
*/
template<class S, class... Wargs>
internal::update_all_t<S, Wargs...> update_all(S set, Wargs... wh) {
static_assert(internal::is_set<S>::value, "first argument in update_all can be either set or dynamic_set");
using args_tuple = std::tuple<Wargs...>;
internal::validate_conditions<args_tuple>();
args_tuple conditions{std::forward<Wargs>(wh)...};
return {std::move(set), std::move(conditions)};
}
/**
* Create a get all pointer statement.
* T is an object type mapped to a storage.
* Usage: storage.get_all_pointer<User>(...);
*/
template<class T, class... Args>
internal::get_all_pointer_t<T, std::vector<std::unique_ptr<T>>, Args...> get_all_pointer(Args... args) {
using args_tuple = std::tuple<Args...>;
internal::validate_conditions<args_tuple>();
args_tuple conditions{std::forward<Args>(args)...};
return {std::move(conditions)};
}
/**
* Create a get all pointer statement.
* T is an object type mapped to a storage.
* R is a container return type. std::vector<std::unique_ptr<T>> is default
* Usage: storage.get_all_pointer<User>(...);
*/
template<class T, class R, class... Args>
internal::get_all_pointer_t<T, R, Args...> get_all_pointer(Args... args) {
using args_tuple = std::tuple<Args...>;
internal::validate_conditions<args_tuple>();
args_tuple conditions{std::forward<Args>(args)...};
return {std::move(conditions)};
}
#ifdef SQLITE_ORM_OPTIONAL_SUPPORTED
/**
* Create a get all optional statement.
* T is an object type mapped to a storage.
* Usage: storage.get_all_optional<User>(...);
*/
template<class T, class... Args>
internal::get_all_optional_t<T, std::vector<std::optional<T>>, Args...> get_all_optional(Args... args) {
using args_tuple = std::tuple<Args...>;
internal::validate_conditions<args_tuple>();
args_tuple conditions{std::forward<Args>(args)...};
return {std::move(conditions)};
}
/**
* Create a get all optional statement.
* T is an object type mapped to a storage.
* R is a container return type. std::vector<std::optional<T>> is default
* Usage: storage.get_all_optional<User>(...);
*/
template<class T, class R, class... Args>
internal::get_all_optional_t<T, R, Args...> get_all_optional(Args... args) {
using args_tuple = std::tuple<Args...>;
internal::validate_conditions<args_tuple>();
args_tuple conditions{std::forward<Args>(args)...};
return {std::move(conditions)};
}
#endif // SQLITE_ORM_OPTIONAL_SUPPORTED
}
// #include "values.h"
// #include "function.h"
// #include "ast/excluded.h"
#include <utility> // std::move
namespace sqlite_orm {
namespace internal {
template<class T>
struct excluded_t {
using expression_type = T;
expression_type expression;
};
}
template<class T>
internal::excluded_t<T> excluded(T expression) {
return {std::move(expression)};
}
}
// #include "ast/upsert_clause.h"
// #include "ast/where.h"
// #include "ast/into.h"
// #include "ast/group_by.h"
// #include "ast/exists.h"
#include <utility> // std::move
// #include "../tags.h"
namespace sqlite_orm {
namespace internal {
template<class T>
struct exists_t : condition_t, negatable_t {
using expression_type = T;
using self = exists_t<expression_type>;
expression_type expression;
exists_t(expression_type expression_) : expression(std::move(expression_)) {}
};
}
/**
* EXISTS(condition).
* Example: storage.select(columns(&Agent::code, &Agent::name, &Agent::workingArea, &Agent::comission),
where(exists(select(asterisk<Customer>(),
where(is_equal(&Customer::grade, 3) and
is_equal(&Agent::code, &Customer::agentCode))))),
order_by(&Agent::comission));
*/
template<class T>
internal::exists_t<T> exists(T expression) {
return {std::move(expression)};
}
}
// #include "ast/set.h"
namespace sqlite_orm {
namespace internal {
/**
* ast_iterator accepts any expression and a callable object
* which will be called for any node of provided expression.
* E.g. if we pass `where(is_equal(5, max(&User::id, 10))` then
* callable object will be called with 5, &User::id and 10.
* ast_iterator is used in finding literals to be bound to
* a statement, and to collect table names.
*
* Note that not all leaves of the expression tree are always visited:
* Column expressions can be more complex, but are passed as a whole to the callable.
* Examples are `column_pointer<>` and `alias_column_t<>`.
*
* To use `ast_iterator` call `iterate_ast(object, callable);`
*
* `T` is an ast element, e.g. where_t
*/
template<class T, class SFINAE = void>
struct ast_iterator {
using node_type = T;
/**
* L is a callable type. Mostly is a templated lambda
*/
template<class L>
void operator()(const T& t, L& lambda) const {
lambda(t);
}
};
/**
* Simplified API
*/
template<class T, class L>
void iterate_ast(const T& t, L&& lambda) {
ast_iterator<T> iterator;
iterator(t, lambda);
}
#ifdef SQLITE_ORM_OPTIONAL_SUPPORTED
template<class T>
struct ast_iterator<as_optional_t<T>, void> {
using node_type = as_optional_t<T>;
template<class L>
void operator()(const node_type& node, L& lambda) const {
iterate_ast(node.value, lambda);
}
};
#endif // SQLITE_ORM_OPTIONAL_SUPPORTED
template<class T>
struct ast_iterator<std::reference_wrapper<T>, void> {
using node_type = std::reference_wrapper<T>;
template<class L>
void operator()(const node_type& expression, L& lambda) const {
iterate_ast(expression.get(), lambda);
}
};
template<class... Args>
struct ast_iterator<group_by_t<Args...>, void> {
using node_type = group_by_t<Args...>;
template<class L>
void operator()(const node_type& expression, L& lambda) const {
iterate_ast(expression.args, lambda);
}
};
template<class T>
struct ast_iterator<excluded_t<T>, void> {
using node_type = excluded_t<T>;
template<class L>
void operator()(const node_type& expression, L& lambda) const {
iterate_ast(expression.expression, lambda);
}
};
template<class T>
struct ast_iterator<T, match_if<is_upsert_clause, T>> {
using node_type = T;
template<class L>
void operator()(const node_type& expression, L& lambda) const {
iterate_ast(expression.actions, lambda);
}
};
template<class C>
struct ast_iterator<where_t<C>, void> {
using node_type = where_t<C>;
template<class L>
void operator()(const node_type& expression, L& lambda) const {
iterate_ast(expression.expression, lambda);
}
};
template<class T>
struct ast_iterator<T, match_if<is_binary_condition, T>> {
using node_type = T;
template<class L>
void operator()(const node_type& binaryCondition, L& lambda) const {
iterate_ast(binaryCondition.l, lambda);
iterate_ast(binaryCondition.r, lambda);
}
};
template<class L, class R, class... Ds>
struct ast_iterator<binary_operator<L, R, Ds...>, void> {
using node_type = binary_operator<L, R, Ds...>;
template<class C>
void operator()(const node_type& binaryOperator, C& lambda) const {
iterate_ast(binaryOperator.lhs, lambda);
iterate_ast(binaryOperator.rhs, lambda);
}
};
template<class... Args>
struct ast_iterator<columns_t<Args...>, void> {
using node_type = columns_t<Args...>;
template<class L>
void operator()(const node_type& cols, L& lambda) const {
iterate_ast(cols.columns, lambda);
}
};
template<class L, class A>
struct ast_iterator<dynamic_in_t<L, A>, void> {
using node_type = dynamic_in_t<L, A>;
template<class C>
void operator()(const node_type& in, C& lambda) const {
iterate_ast(in.left, lambda);
iterate_ast(in.argument, lambda);
}
};
template<class L, class... Args>
struct ast_iterator<in_t<L, Args...>, void> {
using node_type = in_t<L, Args...>;
template<class C>
void operator()(const node_type& in, C& lambda) const {
iterate_ast(in.left, lambda);
iterate_ast(in.argument, lambda);
}
};
template<class T>
struct ast_iterator<std::vector<T>, void> {
using node_type = std::vector<T>;
template<class L>
void operator()(const node_type& vec, L& lambda) const {
for(auto& i: vec) {
iterate_ast(i, lambda);
}
}
};
template<>
struct ast_iterator<std::vector<char>, void> {
using node_type = std::vector<char>;
template<class L>
void operator()(const node_type& vec, L& lambda) const {
lambda(vec);
}
};
template<class T>
struct ast_iterator<T, match_if<is_compound_operator, T>> {
using node_type = T;
template<class L>
void operator()(const node_type& c, L& lambda) const {
iterate_ast(c.left, lambda);
iterate_ast(c.right, lambda);
}
};
template<class T>
struct ast_iterator<into_t<T>, void> {
using node_type = into_t<T>;
template<class L>
void operator()(const node_type& /*node*/, L& /*lambda*/) const {
//..
}
};
template<class... Args>
struct ast_iterator<insert_raw_t<Args...>, void> {
using node_type = insert_raw_t<Args...>;
template<class L>
void operator()(const node_type& node, L& lambda) const {
iterate_ast(node.args, lambda);
}
};
template<class... Args>
struct ast_iterator<replace_raw_t<Args...>, void> {
using node_type = replace_raw_t<Args...>;
template<class L>
void operator()(const node_type& node, L& lambda) const {
iterate_ast(node.args, lambda);
}
};
template<class T, class... Args>
struct ast_iterator<select_t<T, Args...>, void> {
using node_type = select_t<T, Args...>;
template<class L>
void operator()(const node_type& sel, L& lambda) const {
iterate_ast(sel.col, lambda);
iterate_ast(sel.conditions, lambda);
}
};
template<class T, class R, class... Args>
struct ast_iterator<get_all_t<T, R, Args...>, void> {
using node_type = get_all_t<T, R, Args...>;
template<class L>
void operator()(const node_type& get, L& lambda) const {
iterate_ast(get.conditions, lambda);
}
};
template<class T, class... Args>
struct ast_iterator<get_all_pointer_t<T, Args...>, void> {
using node_type = get_all_pointer_t<T, Args...>;
template<class L>
void operator()(const node_type& get, L& lambda) const {
iterate_ast(get.conditions, lambda);
}
};
#ifdef SQLITE_ORM_OPTIONAL_SUPPORTED
template<class T, class... Args>
struct ast_iterator<get_all_optional_t<T, Args...>, void> {
using node_type = get_all_optional_t<T, Args...>;
template<class L>
void operator()(const node_type& get, L& lambda) const {
iterate_ast(get.conditions, lambda);
}
};
#endif // SQLITE_ORM_OPTIONAL_SUPPORTED
template<class S, class... Wargs>
struct ast_iterator<update_all_t<S, Wargs...>, void> {
using node_type = update_all_t<S, Wargs...>;
template<class L>
void operator()(const node_type& u, L& lambda) const {
iterate_ast(u.set, lambda);
iterate_ast(u.conditions, lambda);
}
};
template<class T, class... Args>
struct ast_iterator<remove_all_t<T, Args...>, void> {
using node_type = remove_all_t<T, Args...>;
template<class L>
void operator()(const node_type& r, L& lambda) const {
iterate_ast(r.conditions, lambda);
}
};
template<class... Args>
struct ast_iterator<set_t<Args...>, void> {
using node_type = set_t<Args...>;
template<class L>
void operator()(const node_type& node, L& lambda) const {
iterate_ast(node.assigns, lambda);
}
};
template<class S>
struct ast_iterator<dynamic_set_t<S>, void> {
using node_type = dynamic_set_t<S>;
template<class L>
void operator()(const node_type& node, L& lambda) const {
iterate_ast(node.entries, lambda);
}
};
template<class... Args>
struct ast_iterator<std::tuple<Args...>, void> {
using node_type = std::tuple<Args...>;
template<class L>
void operator()(const node_type& node, L& lambda) const {
iterate_tuple(node, [&lambda](auto& v) {
iterate_ast(v, lambda);
});
}
};
template<class T, class... Args>
struct ast_iterator<group_by_with_having<T, Args...>, void> {
using node_type = group_by_with_having<T, Args...>;
template<class L>
void operator()(const node_type& node, L& lambda) const {
iterate_ast(node.args, lambda);
iterate_ast(node.expression, lambda);
}
};
template<class T>
struct ast_iterator<having_t<T>, void> {
using node_type = having_t<T>;
template<class L>
void operator()(const node_type& node, L& lambda) const {
iterate_ast(node.expression, lambda);
}
};
template<class T, class E>
struct ast_iterator<cast_t<T, E>, void> {
using node_type = cast_t<T, E>;
template<class L>
void operator()(const node_type& c, L& lambda) const {
iterate_ast(c.expression, lambda);
}
};
template<class T>
struct ast_iterator<exists_t<T>, void> {
using node_type = exists_t<T>;
template<class L>
void operator()(const node_type& node, L& lambda) const {
iterate_ast(node.expression, lambda);
}
};
template<class A, class T, class E>
struct ast_iterator<like_t<A, T, E>, void> {
using node_type = like_t<A, T, E>;
template<class L>
void operator()(const node_type& lk, L& lambda) const {
iterate_ast(lk.arg, lambda);
iterate_ast(lk.pattern, lambda);
lk.arg3.apply([&lambda](auto& value) {
iterate_ast(value, lambda);
});
}
};
template<class A, class T>
struct ast_iterator<glob_t<A, T>, void> {
using node_type = glob_t<A, T>;
template<class L>
void operator()(const node_type& lk, L& lambda) const {
iterate_ast(lk.arg, lambda);
iterate_ast(lk.pattern, lambda);
}
};
template<class A, class T>
struct ast_iterator<between_t<A, T>, void> {
using node_type = between_t<A, T>;
template<class L>
void operator()(const node_type& b, L& lambda) const {
iterate_ast(b.expr, lambda);
iterate_ast(b.b1, lambda);
iterate_ast(b.b2, lambda);
}
};
template<class T>
struct ast_iterator<named_collate<T>, void> {
using node_type = named_collate<T>;
template<class L>
void operator()(const node_type& col, L& lambda) const {
iterate_ast(col.expr, lambda);
}
};
template<class C>
struct ast_iterator<negated_condition_t<C>, void> {
using node_type = negated_condition_t<C>;
template<class L>
void operator()(const node_type& neg, L& lambda) const {
iterate_ast(neg.c, lambda);
}
};
template<class T>
struct ast_iterator<is_null_t<T>, void> {
using node_type = is_null_t<T>;
template<class L>
void operator()(const node_type& i, L& lambda) const {
iterate_ast(i.t, lambda);
}
};
template<class T>
struct ast_iterator<is_not_null_t<T>, void> {
using node_type = is_not_null_t<T>;
template<class L>
void operator()(const node_type& i, L& lambda) const {
iterate_ast(i.t, lambda);
}
};
template<class F, class... Args>
struct ast_iterator<function_call<F, Args...>, void> {
using node_type = function_call<F, Args...>;
template<class L>
void operator()(const node_type& f, L& lambda) const {
iterate_ast(f.args, lambda);
}
};
template<class R, class S, class... Args>
struct ast_iterator<built_in_function_t<R, S, Args...>, void> {
using node_type = built_in_function_t<R, S, Args...>;
template<class L>
void operator()(const node_type& node, L& lambda) const {
iterate_ast(node.args, lambda);
}
};
template<class R, class S, class... Args>
struct ast_iterator<built_in_aggregate_function_t<R, S, Args...>, void> {
using node_type = built_in_aggregate_function_t<R, S, Args...>;
template<class L>
void operator()(const node_type& node, L& lambda) const {
iterate_ast(node.args, lambda);
}
};
template<class F, class W>
struct ast_iterator<filtered_aggregate_function<F, W>, void> {
using node_type = filtered_aggregate_function<F, W>;
template<class L>
void operator()(const node_type& node, L& lambda) const {
iterate_ast(node.function, lambda);
iterate_ast(node.where, lambda);
}
};
template<class Join>
struct ast_iterator<Join, match_if<is_constrained_join, Join>> {
using node_type = Join;
template<class L>
void operator()(const node_type& join, L& lambda) const {
iterate_ast(join.constraint, lambda);
}
};
template<class T>
struct ast_iterator<on_t<T>, void> {
using node_type = on_t<T>;
template<class L>
void operator()(const node_type& on, L& lambda) const {
iterate_ast(on.arg, lambda);
}
};
// note: not strictly necessary as there's no binding support for USING;
// we provide it nevertheless, in line with on_t.
template<class T>
struct ast_iterator<T, std::enable_if_t<polyfill::is_specialization_of_v<T, using_t>>> {
using node_type = T;
template<class L>
void operator()(const node_type& o, L& lambda) const {
iterate_ast(o.column, lambda);
}
};
template<class R, class T, class E, class... Args>
struct ast_iterator<simple_case_t<R, T, E, Args...>, void> {
using node_type = simple_case_t<R, T, E, Args...>;
template<class L>
void operator()(const node_type& c, L& lambda) const {
c.case_expression.apply([&lambda](auto& c_) {
iterate_ast(c_, lambda);
});
iterate_tuple(c.args, [&lambda](auto& pair) {
iterate_ast(pair.first, lambda);
iterate_ast(pair.second, lambda);
});
c.else_expression.apply([&lambda](auto& el) {
iterate_ast(el, lambda);
});
}
};
template<class T, class E>
struct ast_iterator<as_t<T, E>, void> {
using node_type = as_t<T, E>;
template<class L>
void operator()(const node_type& a, L& lambda) const {
iterate_ast(a.expression, lambda);
}
};
template<class T, bool OI>
struct ast_iterator<limit_t<T, false, OI, void>, void> {
using node_type = limit_t<T, false, OI, void>;
template<class L>
void operator()(const node_type& a, L& lambda) const {
iterate_ast(a.lim, lambda);
}
};
template<class T, class O>
struct ast_iterator<limit_t<T, true, false, O>, void> {
using node_type = limit_t<T, true, false, O>;
template<class L>
void operator()(const node_type& a, L& lambda) const {
iterate_ast(a.lim, lambda);
a.off.apply([&lambda](auto& value) {
iterate_ast(value, lambda);
});
}
};
template<class T, class O>
struct ast_iterator<limit_t<T, true, true, O>, void> {
using node_type = limit_t<T, true, true, O>;
template<class L>
void operator()(const node_type& a, L& lambda) const {
a.off.apply([&lambda](auto& value) {
iterate_ast(value, lambda);
});
iterate_ast(a.lim, lambda);
}
};
template<class T>
struct ast_iterator<distinct_t<T>, void> {
using node_type = distinct_t<T>;
template<class L>
void operator()(const node_type& a, L& lambda) const {
iterate_ast(a.value, lambda);
}
};
template<class T>
struct ast_iterator<all_t<T>, void> {
using node_type = all_t<T>;
template<class L>
void operator()(const node_type& a, L& lambda) const {
iterate_ast(a.value, lambda);
}
};
template<class T>
struct ast_iterator<bitwise_not_t<T>, void> {
using node_type = bitwise_not_t<T>;
template<class L>
void operator()(const node_type& a, L& lambda) const {
iterate_ast(a.argument, lambda);
}
};
template<class... Args>
struct ast_iterator<values_t<Args...>, void> {
using node_type = values_t<Args...>;
template<class L>
void operator()(const node_type& node, L& lambda) const {
iterate_ast(node.tuple, lambda);
}
};
template<class T>
struct ast_iterator<dynamic_values_t<T>, void> {
using node_type = dynamic_values_t<T>;
template<class L>
void operator()(const node_type& node, L& lambda) const {
iterate_ast(node.vector, lambda);
}
};
/**
* Column alias or literal: skipped
*/
template<class T>
struct ast_iterator<T,
std::enable_if_t<polyfill::disjunction_v<polyfill::is_specialization_of<T, alias_holder>,
polyfill::is_specialization_of<T, literal_holder>,
is_column_alias<T>>>> {
using node_type = T;
template<class L>
void operator()(const node_type& /*node*/, L& /*lambda*/) const {}
};
template<class E>
struct ast_iterator<order_by_t<E>, void> {
using node_type = order_by_t<E>;
template<class L>
void operator()(const node_type& node, L& lambda) const {
iterate_ast(node.expression, lambda);
}
};
template<class T>
struct ast_iterator<collate_t<T>, void> {
using node_type = collate_t<T>;
template<class L>
void operator()(const node_type& node, L& lambda) const {
iterate_ast(node.expr, lambda);
}
};
}
}
// #include "prepared_statement.h"
// #include "connection_holder.h"
// #include "util.h"
namespace sqlite_orm {
namespace internal {
/**
* This class does not related to SQL view. This is a container like class which is returned by
* by storage_t::iterate function. This class contains STL functions:
* - size_t size()
* - bool empty()
* - iterator end()
* - iterator begin()
* All these functions are not right const cause all of them may open SQLite connections.
*/
template<class T, class S, class... Args>
struct view_t {
using mapped_type = T;
using storage_type = S;
using self = view_t<T, S, Args...>;
storage_type& storage;
connection_ref connection;
get_all_t<T, std::vector<T>, Args...> args;
view_t(storage_type& stor, decltype(connection) conn, Args&&... args_) :
storage(stor), connection(std::move(conn)), args{std::make_tuple(std::forward<Args>(args_)...)} {}
size_t size() const {
return this->storage.template count<T>();
}
bool empty() const {
return !this->size();
}
iterator_t<self> begin() {
using context_t = serializer_context<typename storage_type::db_objects_type>;
context_t context{obtain_db_objects(this->storage)};
context.skip_table_name = false;
context.replace_bindable_with_question = true;
statement_finalizer stmt{prepare_stmt(this->connection.get(), serialize(this->args, context))};
iterate_ast(this->args.conditions, conditional_binder{stmt.get()});
return {std::move(stmt), *this};
}
iterator_t<self> end() {
return {};
}
};
}
}
// #include "ast_iterator.h"
// #include "storage_base.h"
#include "ayu/libs/sqlite/sqlite3.h"
#include <functional> // std::function, std::bind
#include <string> // std::string
#include <sstream> // std::stringstream
#include <utility> // std::move
#include <system_error> // std::system_error
#include <vector> // std::vector
#include <memory> // std::make_unique, std::unique_ptr
#include <map> // std::map
#include <type_traits> // std::decay, std::is_same
#include <algorithm> // std::find_if
// #include "functional/cxx_universal.h"
// #include "functional/static_magic.h"
// #include "tuple_helper/tuple_iteration.h"
// #include "pragma.h"
#include "ayu/libs/sqlite/sqlite3.h"
#include <string> // std::string
#include <functional> // std::function
#include <memory> // std::shared_ptr
#include <vector> // std::vector
#include <sstream>
// #include "error_code.h"
// #include "row_extractor.h"
// #include "journal_mode.h"
// #include "connection_holder.h"
// #include "util.h"
// #include "serializing_util.h"
#include <type_traits> // std::index_sequence
#include <tuple>
#include <array>
#include <string>
#include <ostream>
#include <utility> // std::exchange, std::tuple_size
// #include "functional/cxx_universal.h"
// ::size_t
// #include "functional/cxx_type_traits_polyfill.h"
// #include "tuple_helper/tuple_iteration.h"
// #include "error_code.h"
// #include "serializer_context.h"
// #include "serialize_result_type.h"
// #include "util.h"
namespace sqlite_orm {
namespace internal {
template<class O>
struct order_by_t;
template<class T, class DBOs>
std::string serialize(const T&, const serializer_context<DBOs>&);
template<class T, class Ctx>
std::string serialize_order_by(const T&, const Ctx&);
inline void stream_sql_escaped(std::ostream& os, serialize_arg_type str, char char2Escape) {
for(size_t offset = 0, next; true; offset = next + 1) {
next = str.find(char2Escape, offset);
if(next == str.npos) {
os.write(str.data() + offset, str.size() - offset);
break;
}
os.write(str.data() + offset, next - offset + 1);
os.write(&char2Escape, 1);
}
}
inline void stream_identifier(std::ostream& ss,
serialize_arg_type qualifier,
serialize_arg_type identifier,
serialize_arg_type alias) {
constexpr char quoteChar = '"';
constexpr char qualified[] = {quoteChar, '.', '\0'};
constexpr char aliased[] = {' ', quoteChar, '\0'};
// note: In practice, escaping double quotes in identifiers is arguably overkill,
// but since the SQLite grammar allows it, it's better to be safe than sorry.
if(!qualifier.empty()) {
ss << quoteChar;
stream_sql_escaped(ss, qualifier, quoteChar);
ss << qualified;
}
{
ss << quoteChar;
stream_sql_escaped(ss, identifier, quoteChar);
ss << quoteChar;
}
if(!alias.empty()) {
ss << aliased;
stream_sql_escaped(ss, alias, quoteChar);
ss << quoteChar;
}
}
inline void stream_identifier(std::ostream& ss, const std::string& identifier, const std::string& alias) {
return stream_identifier(ss, "", identifier, alias);
}
inline void stream_identifier(std::ostream& ss, const std::string& identifier) {
return stream_identifier(ss, "", identifier, "");
}
template<typename Tpl, size_t... Is>
void stream_identifier(std::ostream& ss, const Tpl& tpl, std::index_sequence<Is...>) {
static_assert(sizeof...(Is) > 0 && sizeof...(Is) <= 3, "");
return stream_identifier(ss, std::get<Is>(tpl)...);
}
template<typename Tpl, std::enable_if_t<polyfill::is_detected_v<type_t, std::tuple_size<Tpl>>, bool> = true>
void stream_identifier(std::ostream& ss, const Tpl& tpl) {
return stream_identifier(ss, tpl, std::make_index_sequence<std::tuple_size<Tpl>::value>{});
}
enum class stream_as {
conditions_tuple,
actions_tuple,
expressions_tuple,
dynamic_expressions,
serialized,
identifier,
identifiers,
values_placeholders,
table_columns,
non_generated_columns,
field_values_excluding,
mapped_columns_expressions,
column_constraints,
};
template<stream_as mode>
struct streaming {
template<class... Ts>
auto operator()(const Ts&... ts) const {
return std::forward_as_tuple(*this, ts...);
}
template<size_t... Idx>
constexpr std::index_sequence<1u + Idx...> offset_index(std::index_sequence<Idx...>) const {
return {};
}
};
constexpr streaming<stream_as::conditions_tuple> streaming_conditions_tuple{};
constexpr streaming<stream_as::actions_tuple> streaming_actions_tuple{};
constexpr streaming<stream_as::expressions_tuple> streaming_expressions_tuple{};
constexpr streaming<stream_as::dynamic_expressions> streaming_dynamic_expressions{};
constexpr streaming<stream_as::serialized> streaming_serialized{};
constexpr streaming<stream_as::identifier> streaming_identifier{};
constexpr streaming<stream_as::identifiers> streaming_identifiers{};
constexpr streaming<stream_as::values_placeholders> streaming_values_placeholders{};
constexpr streaming<stream_as::table_columns> streaming_table_column_names{};
constexpr streaming<stream_as::non_generated_columns> streaming_non_generated_column_names{};
constexpr streaming<stream_as::field_values_excluding> streaming_field_values_excluding{};
constexpr streaming<stream_as::mapped_columns_expressions> streaming_mapped_columns_expressions{};
constexpr streaming<stream_as::column_constraints> streaming_column_constraints{};
// serialize and stream a tuple of condition expressions;
// space + space-separated
template<class T, class Ctx>
std::ostream& operator<<(std::ostream& ss,
std::tuple<const streaming<stream_as::conditions_tuple>&, T, Ctx> tpl) {
const auto& conditions = get<1>(tpl);
auto& context = get<2>(tpl);
iterate_tuple(conditions, [&ss, &context](auto& c) {
ss << " " << serialize(c, context);
});
return ss;
}
// serialize and stream a tuple of action expressions;
// space-separated
template<class T, class Ctx>
std::ostream& operator<<(std::ostream& ss, std::tuple<const streaming<stream_as::actions_tuple>&, T, Ctx> tpl) {
const auto& actions = get<1>(tpl);
auto& context = get<2>(tpl);
iterate_tuple(actions, [&ss, &context, first = true](auto& action) mutable {
constexpr std::array<const char*, 2> sep = {" ", ""};
ss << sep[std::exchange(first, false)] << serialize(action, context);
});
return ss;
}
// serialize and stream a tuple of expressions;
// comma-separated
template<class T, class Ctx>
std::ostream& operator<<(std::ostream& ss,
std::tuple<const streaming<stream_as::expressions_tuple>&, T, Ctx> tpl) {
const auto& args = get<1>(tpl);
auto& context = get<2>(tpl);
iterate_tuple(args, [&ss, &context, first = true](auto& arg) mutable {
constexpr std::array<const char*, 2> sep = {", ", ""};
ss << sep[std::exchange(first, false)] << serialize(arg, context);
});
return ss;
}
// serialize and stream multi_order_by arguments;
// comma-separated
template<class... Os, class Ctx>
std::ostream& operator<<(
std::ostream& ss,
std::tuple<const streaming<stream_as::expressions_tuple>&, const std::tuple<order_by_t<Os>...>&, Ctx> tpl) {
const auto& args = get<1>(tpl);
auto& context = get<2>(tpl);
iterate_tuple(args, [&ss, &context, first = true](auto& arg) mutable {
constexpr std::array<const char*, 2> sep = {", ", ""};
ss << sep[std::exchange(first, false)] << serialize_order_by(arg, context);
});
return ss;
}
// serialize and stream a vector of expressions;
// comma-separated
template<class C, class Ctx>
std::ostream& operator<<(std::ostream& ss,
std::tuple<const streaming<stream_as::dynamic_expressions>&, C, Ctx> tpl) {
const auto& args = get<1>(tpl);
auto& context = get<2>(tpl);
constexpr std::array<const char*, 2> sep = {", ", ""};
for(size_t i = 0, first = true; i < args.size(); ++i) {
ss << sep[std::exchange(first, false)] << serialize(args[i], context);
}
return ss;
}
// stream a vector of already serialized strings;
// comma-separated
template<class C>
std::ostream& operator<<(std::ostream& ss, std::tuple<const streaming<stream_as::serialized>&, C> tpl) {
const auto& strings = get<1>(tpl);
constexpr std::array<const char*, 2> sep = {", ", ""};
for(size_t i = 0, first = true; i < strings.size(); ++i) {
ss << sep[std::exchange(first, false)] << strings[i];
}
return ss;
}
// stream an identifier described by a variadic string pack, which is one of:
// 1. identifier
// 2. identifier, alias
// 3. qualifier, identifier, alias
template<class... Strings>
std::ostream& operator<<(std::ostream& ss,
std::tuple<const streaming<stream_as::identifier>&, Strings...> tpl) {
stream_identifier(ss, tpl, streaming_identifier.offset_index(std::index_sequence_for<Strings...>{}));
return ss;
}
// stream a container of identifiers described by a string or a tuple, which is one of:
// 1. identifier
// 1. tuple(identifier)
// 2. tuple(identifier, alias), pair(identifier, alias)
// 3. tuple(qualifier, identifier, alias)
//
// comma-separated
template<class C>
std::ostream& operator<<(std::ostream& ss, std::tuple<const streaming<stream_as::identifiers>&, C> tpl) {
const auto& identifiers = get<1>(tpl);
constexpr std::array<const char*, 2> sep = {", ", ""};
bool first = true;
for(auto& identifier: identifiers) {
ss << sep[std::exchange(first, false)];
stream_identifier(ss, identifier);
}
return ss;
}
// stream placeholders as part of a values clause
template<class... Ts>
std::ostream& operator<<(std::ostream& ss,
std::tuple<const streaming<stream_as::values_placeholders>&, Ts...> tpl) {
const size_t& columnsCount = get<1>(tpl);
const ptrdiff_t& valuesCount = get<2>(tpl);
if(!valuesCount || !columnsCount) {
return ss;
}
std::string result;
result.reserve((1 + (columnsCount * 1) + (columnsCount * 2 - 2) + 1) * valuesCount + (valuesCount * 2 - 2));
constexpr std::array<const char*, 2> sep = {", ", ""};
for(ptrdiff_t i = 0, first = true; i < valuesCount; ++i) {
result += sep[std::exchange(first, false)];
result += "(";
for(size_t i = 0, first = true; i < columnsCount; ++i) {
result += sep[std::exchange(first, false)];
result += "?";
}
result += ")";
}
ss << result;
return ss;
}
// stream a table's column identifiers, possibly qualified;
// comma-separated
template<class Table>
std::ostream& operator<<(std::ostream& ss,
std::tuple<const streaming<stream_as::table_columns>&, Table, const bool&> tpl) {
const auto& table = get<1>(tpl);
const bool& qualified = get<2>(tpl);
table.for_each_column([&ss, &tableName = qualified ? table.name : std::string{}, first = true](
const column_identifier& column) mutable {
constexpr std::array<const char*, 2> sep = {", ", ""};
ss << sep[std::exchange(first, false)];
stream_identifier(ss, tableName, column.name, std::string{});
});
return ss;
}
// stream a table's non-generated column identifiers, unqualified;
// comma-separated
template<class Table>
std::ostream& operator<<(std::ostream& ss,
std::tuple<const streaming<stream_as::non_generated_columns>&, Table> tpl) {
const auto& table = get<1>(tpl);
table.template for_each_column_excluding<is_generated_always>(
[&ss, first = true](const column_identifier& column) mutable {
constexpr std::array<const char*, 2> sep = {", ", ""};
ss << sep[std::exchange(first, false)];
stream_identifier(ss, column.name);
});
return ss;
}
// stream a table's non-generated column identifiers, unqualified;
// comma-separated
template<class PredFnCls, class L, class Ctx, class Obj>
std::ostream&
operator<<(std::ostream& ss,
std::tuple<const streaming<stream_as::field_values_excluding>&, PredFnCls, L, Ctx, Obj> tpl) {
using check_if_excluded = polyfill::remove_cvref_t<std::tuple_element_t<1, decltype(tpl)>>;
auto& excluded = get<2>(tpl);
auto& context = get<3>(tpl);
auto& object = get<4>(tpl);
using object_type = polyfill::remove_cvref_t<decltype(object)>;
auto& table = pick_table<object_type>(context.db_objects);
table.template for_each_column_excluding<check_if_excluded>(call_as_template_base<column_field>(
[&ss, &excluded, &context, &object, first = true](auto& column) mutable {
if(excluded(column)) {
return;
}
constexpr std::array<const char*, 2> sep = {", ", ""};
ss << sep[std::exchange(first, false)]
<< serialize(polyfill::invoke(column.member_pointer, object), context);
}));
return ss;
}
// stream a tuple of mapped columns (which are member pointers or column pointers);
// comma-separated
template<class T, class Ctx>
std::ostream& operator<<(std::ostream& ss,
std::tuple<const streaming<stream_as::mapped_columns_expressions>&, T, Ctx> tpl) {
const auto& columns = get<1>(tpl);
auto& context = get<2>(tpl);
iterate_tuple(columns, [&ss, &context, first = true](auto& colRef) mutable {
const std::string* columnName = find_column_name(context.db_objects, colRef);
if(!columnName) {
throw std::system_error{orm_error_code::column_not_found};
}
constexpr std::array<const char*, 2> sep = {", ", ""};
ss << sep[std::exchange(first, false)];
stream_identifier(ss, *columnName);
});
return ss;
}
template<class... Op, class Ctx>
std::ostream& operator<<(std::ostream& ss,
std::tuple<const streaming<stream_as::column_constraints>&,
const column_constraints<Op...>&,
const bool&,
Ctx> tpl) {
const auto& column = get<1>(tpl);
const bool& isNotNull = get<2>(tpl);
auto& context = get<3>(tpl);
using constraints_type = constraints_type_t<column_constraints<Op...>>;
constexpr size_t constraintsCount = std::tuple_size<constraints_type>::value;
if(constraintsCount) {
std::vector<std::string> constraintsStrings;
constraintsStrings.reserve(constraintsCount);
int primaryKeyIndex = -1;
int autoincrementIndex = -1;
int tupleIndex = 0;
iterate_tuple(column.constraints,
[&constraintsStrings, &primaryKeyIndex, &autoincrementIndex, &tupleIndex, &context](
auto& constraint) {
using constraint_type = std::decay_t<decltype(constraint)>;
constraintsStrings.push_back(serialize(constraint, context));
if(is_primary_key_v<constraint_type>) {
primaryKeyIndex = tupleIndex;
} else if(is_autoincrement_v<constraint_type>) {
autoincrementIndex = tupleIndex;
}
++tupleIndex;
});
if(primaryKeyIndex != -1 && autoincrementIndex != -1 && autoincrementIndex < primaryKeyIndex) {
iter_swap(constraintsStrings.begin() + primaryKeyIndex,
constraintsStrings.begin() + autoincrementIndex);
}
for(auto& str: constraintsStrings) {
ss << str << ' ';
}
}
if(isNotNull) {
ss << "NOT NULL ";
}
return ss;
}
}
}
namespace sqlite_orm {
namespace internal {
struct storage_base;
template<class T>
int getPragmaCallback(void* data, int argc, char** argv, char** x) {
return extract_single_value<T>(data, argc, argv, x);
}
template<>
inline int getPragmaCallback<std::vector<std::string>>(void* data, int argc, char** argv, char**) {
auto& res = *(std::vector<std::string>*)data;
res.reserve(argc);
for(decltype(argc) i = 0; i < argc; ++i) {
auto rowString = row_extractor<std::string>().extract(argv[i]);
res.push_back(std::move(rowString));
}
return 0;
}
struct pragma_t {
using get_connection_t = std::function<internal::connection_ref()>;
pragma_t(get_connection_t get_connection_) : get_connection(std::move(get_connection_)) {}
void busy_timeout(int value) {
this->set_pragma("busy_timeout", value);
}
int busy_timeout() {
return this->get_pragma<int>("busy_timeout");
}
sqlite_orm::journal_mode journal_mode() {
return this->get_pragma<sqlite_orm::journal_mode>("journal_mode");
}
void journal_mode(sqlite_orm::journal_mode value) {
this->_journal_mode = -1;
this->set_pragma("journal_mode", value);
this->_journal_mode = static_cast<decltype(this->_journal_mode)>(value);
}
/**
* https://www.sqlite.org/pragma.html#pragma_application_id
*/
int application_id() {
return this->get_pragma<int>("application_id");
}
/**
* https://www.sqlite.org/pragma.html#pragma_application_id
*/
void application_id(int value) {
this->set_pragma("application_id", value);
}
int synchronous() {
return this->get_pragma<int>("synchronous");
}
void synchronous(int value) {
this->_synchronous = -1;
this->set_pragma("synchronous", value);
this->_synchronous = value;
}
int user_version() {
return this->get_pragma<int>("user_version");
}
void user_version(int value) {
this->set_pragma("user_version", value);
}
int auto_vacuum() {
return this->get_pragma<int>("auto_vacuum");
}
void auto_vacuum(int value) {
this->set_pragma("auto_vacuum", value);
}
std::vector<std::string> integrity_check() {
return this->get_pragma<std::vector<std::string>>("integrity_check");
}
template<class T>
std::vector<std::string> integrity_check(T table_name) {
std::ostringstream ss;
ss << "integrity_check(" << table_name << ")" << std::flush;
return this->get_pragma<std::vector<std::string>>(ss.str());
}
std::vector<std::string> integrity_check(int n) {
std::ostringstream ss;
ss << "integrity_check(" << n << ")" << std::flush;
return this->get_pragma<std::vector<std::string>>(ss.str());
}
// will include generated columns in response as opposed to table_info
std::vector<sqlite_orm::table_xinfo> table_xinfo(const std::string& tableName) const {
auto connection = this->get_connection();
std::vector<sqlite_orm::table_xinfo> result;
std::ostringstream ss;
ss << "PRAGMA "
"table_xinfo("
<< streaming_identifier(tableName) << ")" << std::flush;
perform_exec(
connection.get(),
ss.str(),
[](void* data, int argc, char** argv, char**) -> int {
auto& res = *(std::vector<sqlite_orm::table_xinfo>*)data;
if(argc) {
auto index = 0;
auto cid = std::atoi(argv[index++]);
std::string name = argv[index++];
std::string type = argv[index++];
bool notnull = !!std::atoi(argv[index++]);
std::string dflt_value = argv[index] ? argv[index] : "";
++index;
auto pk = std::atoi(argv[index++]);
auto hidden = std::atoi(argv[index++]);
res.emplace_back(cid,
std::move(name),
std::move(type),
notnull,
std::move(dflt_value),
pk,
hidden);
}
return 0;
},
&result);
return result;
}
std::vector<sqlite_orm::table_info> table_info(const std::string& tableName) const {
auto connection = this->get_connection();
std::ostringstream ss;
ss << "PRAGMA "
"table_info("
<< streaming_identifier(tableName) << ")" << std::flush;
std::vector<sqlite_orm::table_info> result;
perform_exec(
connection.get(),
ss.str(),
[](void* data, int argc, char** argv, char**) -> int {
auto& res = *(std::vector<sqlite_orm::table_info>*)data;
if(argc) {
auto index = 0;
auto cid = std::atoi(argv[index++]);
std::string name = argv[index++];
std::string type = argv[index++];
bool notnull = !!std::atoi(argv[index++]);
std::string dflt_value = argv[index] ? argv[index] : "";
++index;
auto pk = std::atoi(argv[index++]);
res.emplace_back(cid, std::move(name), std::move(type), notnull, std::move(dflt_value), pk);
}
return 0;
},
&result);
return result;
}
private:
friend struct storage_base;
int _synchronous = -1;
signed char _journal_mode = -1; // if != -1 stores static_cast<sqlite_orm::journal_mode>(journal_mode)
get_connection_t get_connection;
template<class T>
T get_pragma(const std::string& name) {
auto connection = this->get_connection();
T result;
perform_exec(connection.get(), "PRAGMA " + name, getPragmaCallback<T>, &result);
return result;
}
/**
* Yevgeniy Zakharov: I wanted to refactor this function with statements and value bindings
* but it turns out that bindings in pragma statements are not supported.
*/
template<class T>
void set_pragma(const std::string& name, const T& value, sqlite3* db = nullptr) {
auto con = this->get_connection();
if(!db) {
db = con.get();
}
std::stringstream ss;
ss << "PRAGMA " << name << " = " << value << std::flush;
perform_void_exec(db, ss.str());
}
void set_pragma(const std::string& name, const sqlite_orm::journal_mode& value, sqlite3* db = nullptr) {
auto con = this->get_connection();
if(!db) {
db = con.get();
}
std::stringstream ss;
ss << "PRAGMA " << name << " = " << to_string(value) << std::flush;
perform_void_exec(db, ss.str());
}
};
}
}
// #include "limit_accessor.h"
#include "ayu/libs/sqlite/sqlite3.h"
#include <map> // std::map
#include <functional> // std::function
#include <memory> // std::shared_ptr
// #include "connection_holder.h"
namespace sqlite_orm {
namespace internal {
struct limit_accessor {
using get_connection_t = std::function<connection_ref()>;
limit_accessor(get_connection_t get_connection_) : get_connection(std::move(get_connection_)) {}
int length() {
return this->get(SQLITE_LIMIT_LENGTH);
}
void length(int newValue) {
this->set(SQLITE_LIMIT_LENGTH, newValue);
}
int sql_length() {
return this->get(SQLITE_LIMIT_SQL_LENGTH);
}
void sql_length(int newValue) {
this->set(SQLITE_LIMIT_SQL_LENGTH, newValue);
}
int column() {
return this->get(SQLITE_LIMIT_COLUMN);
}
void column(int newValue) {
this->set(SQLITE_LIMIT_COLUMN, newValue);
}
int expr_depth() {
return this->get(SQLITE_LIMIT_EXPR_DEPTH);
}
void expr_depth(int newValue) {
this->set(SQLITE_LIMIT_EXPR_DEPTH, newValue);
}
int compound_select() {
return this->get(SQLITE_LIMIT_COMPOUND_SELECT);
}
void compound_select(int newValue) {
this->set(SQLITE_LIMIT_COMPOUND_SELECT, newValue);
}
int vdbe_op() {
return this->get(SQLITE_LIMIT_VDBE_OP);
}
void vdbe_op(int newValue) {
this->set(SQLITE_LIMIT_VDBE_OP, newValue);
}
int function_arg() {
return this->get(SQLITE_LIMIT_FUNCTION_ARG);
}
void function_arg(int newValue) {
this->set(SQLITE_LIMIT_FUNCTION_ARG, newValue);
}
int attached() {
return this->get(SQLITE_LIMIT_ATTACHED);
}
void attached(int newValue) {
this->set(SQLITE_LIMIT_ATTACHED, newValue);
}
int like_pattern_length() {
return this->get(SQLITE_LIMIT_LIKE_PATTERN_LENGTH);
}
void like_pattern_length(int newValue) {
this->set(SQLITE_LIMIT_LIKE_PATTERN_LENGTH, newValue);
}
int variable_number() {
return this->get(SQLITE_LIMIT_VARIABLE_NUMBER);
}
void variable_number(int newValue) {
this->set(SQLITE_LIMIT_VARIABLE_NUMBER, newValue);
}
int trigger_depth() {
return this->get(SQLITE_LIMIT_TRIGGER_DEPTH);
}
void trigger_depth(int newValue) {
this->set(SQLITE_LIMIT_TRIGGER_DEPTH, newValue);
}
#if SQLITE_VERSION_NUMBER >= 3008007
int worker_threads() {
return this->get(SQLITE_LIMIT_WORKER_THREADS);
}
void worker_threads(int newValue) {
this->set(SQLITE_LIMIT_WORKER_THREADS, newValue);
}
#endif
protected:
get_connection_t get_connection;
friend struct storage_base;
/**
* Stores limit set between connections.
*/
std::map<int, int> limits;
int get(int id) {
auto connection = this->get_connection();
return sqlite3_limit(connection.get(), id, -1);
}
void set(int id, int newValue) {
this->limits[id] = newValue;
auto connection = this->get_connection();
sqlite3_limit(connection.get(), id, newValue);
}
};
}
}
// #include "transaction_guard.h"
#include <functional> // std::function
#include <utility> // std::move
// #include "connection_holder.h"
namespace sqlite_orm {
namespace internal {
/**
* Class used as a guard for a transaction. Calls `ROLLBACK` in destructor.
* Has explicit `commit()` and `rollback()` functions. After explicit function is fired
* guard won't do anything in d-tor. Also you can set `commit_on_destroy` to true to
* make it call `COMMIT` on destroy.
*
* Note: The guard's destructor is explicitly marked as potentially throwing,
* so exceptions that occur during commit or rollback are propagated to the caller.
*/
struct transaction_guard_t {
/**
* This is a public lever to tell a guard what it must do in its destructor
* if `gotta_fire` is true
*/
bool commit_on_destroy = false;
transaction_guard_t(connection_ref connection_,
std::function<void()> commit_func_,
std::function<void()> rollback_func_) :
connection(std::move(connection_)),
commit_func(std::move(commit_func_)), rollback_func(std::move(rollback_func_)) {}
transaction_guard_t(transaction_guard_t&& other) :
commit_on_destroy(other.commit_on_destroy), connection(std::move(other.connection)),
commit_func(std::move(other.commit_func)), rollback_func(std::move(other.rollback_func)),
gotta_fire(other.gotta_fire) {
other.gotta_fire = false;
}
~transaction_guard_t() noexcept(false) {
if(this->gotta_fire) {
if(this->commit_on_destroy) {
this->commit_func();
} else {
this->rollback_func();
}
}
}
transaction_guard_t& operator=(transaction_guard_t&&) = delete;
/**
* Call `COMMIT` explicitly. After this call
* guard will not call `COMMIT` or `ROLLBACK`
* in its destructor.
*/
void commit() {
this->gotta_fire = false;
this->commit_func();
}
/**
* Call `ROLLBACK` explicitly. After this call
* guard will not call `COMMIT` or `ROLLBACK`
* in its destructor.
*/
void rollback() {
this->gotta_fire = false;
this->rollback_func();
}
protected:
connection_ref connection;
std::function<void()> commit_func;
std::function<void()> rollback_func;
bool gotta_fire = true;
};
}
}
// #include "row_extractor.h"
// #include "connection_holder.h"
// #include "backup.h"
#include "ayu/libs/sqlite/sqlite3.h"
#include <system_error> // std::system_error
#include <string> // std::string
#include <memory>
#include <utility> // std::move, std::exchange
// #include "error_code.h"
// #include "connection_holder.h"
namespace sqlite_orm {
namespace internal {
/**
* A backup class. Don't construct it as is, call storage.make_backup_from or storage.make_backup_to instead.
* An instance of this class represents a wrapper around sqlite3_backup pointer. Use this class
* to have maximum control on a backup operation. In case you need a single backup in one line you
* can skip creating a backup_t instance and just call storage.backup_from or storage.backup_to function.
*/
struct backup_t {
backup_t(connection_ref to_,
const std::string& zDestName,
connection_ref from_,
const std::string& zSourceName,
std::unique_ptr<connection_holder> holder_) :
handle(sqlite3_backup_init(to_.get(), zDestName.c_str(), from_.get(), zSourceName.c_str())),
holder(std::move(holder_)), to(to_), from(from_) {
if(!this->handle) {
throw std::system_error{orm_error_code::failed_to_init_a_backup};
}
}
backup_t(backup_t&& other) :
handle(std::exchange(other.handle, nullptr)), holder(std::move(other.holder)), to(other.to),
from(other.from) {}
~backup_t() {
if(this->handle) {
(void)sqlite3_backup_finish(this->handle);
}
}
/**
* Calls sqlite3_backup_step with pages argument
*/
int step(int pages) {
return sqlite3_backup_step(this->handle, pages);
}
/**
* Returns sqlite3_backup_remaining result
*/
int remaining() const {
return sqlite3_backup_remaining(this->handle);
}
/**
* Returns sqlite3_backup_pagecount result
*/
int pagecount() const {
return sqlite3_backup_pagecount(this->handle);
}
protected:
sqlite3_backup* handle = nullptr;
std::unique_ptr<connection_holder> holder;
connection_ref to;
connection_ref from;
};
}
}
// #include "function.h"
// #include "values_to_tuple.h"
#include "ayu/libs/sqlite/sqlite3.h"
#include <type_traits> // std::index_sequence, std::make_index_sequence
#include <tuple> // std::tuple, std::tuple_size, std::get
// #include "functional/cxx_universal.h"
// #include "row_extractor.h"
// #include "arg_values.h"
#include "ayu/libs/sqlite/sqlite3.h"
// #include "row_extractor.h"
namespace sqlite_orm {
struct arg_value {
arg_value() : arg_value(nullptr) {}
arg_value(sqlite3_value* value_) : value(value_) {}
template<class T>
T get() const {
return row_extractor<T>().extract(this->value);
}
bool is_null() const {
auto type = sqlite3_value_type(this->value);
return type == SQLITE_NULL;
}
bool is_text() const {
auto type = sqlite3_value_type(this->value);
return type == SQLITE_TEXT;
}
bool is_integer() const {
auto type = sqlite3_value_type(this->value);
return type == SQLITE_INTEGER;
}
bool is_float() const {
auto type = sqlite3_value_type(this->value);
return type == SQLITE_FLOAT;
}
bool is_blob() const {
auto type = sqlite3_value_type(this->value);
return type == SQLITE_BLOB;
}
bool empty() const {
return this->value == nullptr;
}
private:
sqlite3_value* value = nullptr;
};
struct arg_values {
struct iterator {
iterator(const arg_values& container_, int index_) :
container(container_), index(index_),
currentValue(index_ < int(container_.size()) ? container_[index_] : arg_value()) {}
iterator& operator++() {
++this->index;
if(this->index < int(this->container.size())) {
this->currentValue = this->container[this->index];
} else {
this->currentValue = {};
}
return *this;
}
iterator operator++(int) {
auto res = *this;
++this->index;
if(this->index < int(this->container.size())) {
this->currentValue = this->container[this->index];
} else {
this->currentValue = {};
}
return res;
}
arg_value operator*() const {
if(this->index < int(this->container.size()) && this->index >= 0) {
return this->currentValue;
} else {
throw std::system_error{orm_error_code::index_is_out_of_bounds};
}
}
arg_value* operator->() const {
return &this->currentValue;
}
bool operator==(const iterator& other) const {
return &other.container == &this->container && other.index == this->index;
}
bool operator!=(const iterator& other) const {
return !(*this == other);
}
private:
const arg_values& container;
int index = 0;
mutable arg_value currentValue;
};
arg_values() : arg_values(0, nullptr) {}
arg_values(int argsCount_, sqlite3_value** values_) : argsCount(argsCount_), values(values_) {}
size_t size() const {
return this->argsCount;
}
bool empty() const {
return 0 == this->argsCount;
}
arg_value operator[](int index) const {
if(index < this->argsCount && index >= 0) {
sqlite3_value* value = this->values[index];
return {value};
} else {
throw std::system_error{orm_error_code::index_is_out_of_bounds};
}
}
arg_value at(int index) const {
return this->operator[](index);
}
iterator begin() const {
return {*this, 0};
}
iterator end() const {
return {*this, this->argsCount};
}
private:
int argsCount = 0;
sqlite3_value** values = nullptr;
};
}
namespace sqlite_orm {
namespace internal {
struct values_to_tuple {
template<class Tpl>
void operator()(sqlite3_value** values, Tpl& tuple, int /*argsCount*/) const {
(*this)(values, tuple, std::make_index_sequence<std::tuple_size<Tpl>::value>{});
}
void operator()(sqlite3_value** values, std::tuple<arg_values>& tuple, int argsCount) const {
std::get<0>(tuple) = arg_values(argsCount, values);
}
private:
#ifdef SQLITE_ORM_FOLD_EXPRESSIONS_SUPPORTED
template<class Tpl, size_t... Idx>
void operator()(sqlite3_value** values, Tpl& tuple, std::index_sequence<Idx...>) const {
(this->extract(values[Idx], std::get<Idx>(tuple)), ...);
}
#else
template<class Tpl, size_t I, size_t... Idx>
void operator()(sqlite3_value** values, Tpl& tuple, std::index_sequence<I, Idx...>) const {
this->extract(values[I], std::get<I>(tuple));
(*this)(values, tuple, std::index_sequence<Idx...>{});
}
template<class Tpl, size_t... Idx>
void operator()(sqlite3_value** /*values*/, Tpl&, std::index_sequence<Idx...>) const {}
#endif
template<class T>
void extract(sqlite3_value* value, T& t) const {
t = row_extractor<T>{}.extract(value);
}
};
}
}
// #include "arg_values.h"
// #include "util.h"
// #include "serializing_util.h"
namespace sqlite_orm {
namespace internal {
struct storage_base {
using collating_function = std::function<int(int, const void*, int, const void*)>;
std::function<void(sqlite3*)> on_open;
pragma_t pragma;
limit_accessor limit;
transaction_guard_t transaction_guard() {
this->begin_transaction();
return {this->get_connection(),
std::bind(&storage_base::commit, this),
std::bind(&storage_base::rollback, this)};
}
void drop_index(const std::string& indexName) {
std::stringstream ss;
ss << "DROP INDEX " << quote_identifier(indexName) << std::flush;
perform_void_exec(this->get_connection().get(), ss.str());
}
void drop_trigger(const std::string& triggerName) {
std::stringstream ss;
ss << "DROP TRIGGER " << quote_identifier(triggerName) << std::flush;
perform_void_exec(this->get_connection().get(), ss.str());
}
void vacuum() {
perform_void_exec(this->get_connection().get(), "VACUUM");
}
/**
* Drops table with given name.
*/
void drop_table(const std::string& tableName) {
this->drop_table_internal(this->get_connection().get(), tableName);
}
/**
* Rename table named `from` to `to`.
*/
void rename_table(const std::string& from, const std::string& to) {
this->rename_table(this->get_connection().get(), from, to);
}
protected:
void rename_table(sqlite3* db, const std::string& oldName, const std::string& newName) const {
std::stringstream ss;
ss << "ALTER TABLE " << streaming_identifier(oldName) << " RENAME TO " << streaming_identifier(newName)
<< std::flush;
perform_void_exec(db, ss.str());
}
/**
* Checks whether table exists in db. Doesn't check storage itself - works only with actual database.
* Note: table can be not mapped to a storage
* @return true if table with a given name exists in db, false otherwise.
*/
bool table_exists(const std::string& tableName) {
auto con = this->get_connection();
return this->table_exists(con.get(), tableName);
}
bool table_exists(sqlite3* db, const std::string& tableName) const {
bool result = false;
std::stringstream ss;
ss << "SELECT COUNT(*) FROM sqlite_master WHERE type = " << streaming_identifier("table")
<< " AND name = " << quote_string_literal(tableName) << std::flush;
perform_exec(
db,
ss.str(),
[](void* data, int argc, char** argv, char** /*azColName*/) -> int {
auto& res = *(bool*)data;
if(argc) {
res = !!std::atoi(argv[0]);
}
return 0;
},
&result);
return result;
}
void add_generated_cols(std::vector<const table_xinfo*>& columnsToAdd,
const std::vector<table_xinfo>& storageTableInfo) {
// iterate through storage columns
for(const table_xinfo& storageColumnInfo: storageTableInfo) {
if(storageColumnInfo.hidden) {
columnsToAdd.push_back(&storageColumnInfo);
}
}
}
public:
/**
* sqlite3_changes function.
*/
int changes() {
auto con = this->get_connection();
return sqlite3_changes(con.get());
}
/**
* sqlite3_total_changes function.
*/
int total_changes() {
auto con = this->get_connection();
return sqlite3_total_changes(con.get());
}
int64 last_insert_rowid() {
auto con = this->get_connection();
return sqlite3_last_insert_rowid(con.get());
}
int busy_timeout(int ms) {
auto con = this->get_connection();
return sqlite3_busy_timeout(con.get(), ms);
}
/**
* Returns libsqlite3 version, not sqlite_orm
*/
std::string libversion() {
return sqlite3_libversion();
}
bool transaction(const std::function<bool()>& f) {
auto guard = this->transaction_guard();
return guard.commit_on_destroy = f();
}
std::string current_timestamp() {
auto con = this->get_connection();
return this->current_timestamp(con.get());
}
#if SQLITE_VERSION_NUMBER >= 3007010
/**
* \fn db_release_memory
* \brief Releases freeable memory of database. It is function can/should be called periodically by
* application, if application has less memory usage constraint. \note sqlite3_db_release_memory added
* in 3.7.10 https://sqlite.org/changes.html
*/
int db_release_memory() {
auto con = this->get_connection();
return sqlite3_db_release_memory(con.get());
}
#endif
/**
* Returns existing permanent table names in database. Doesn't check storage itself - works only with
* actual database.
* @return Returns list of tables in database.
*/
std::vector<std::string> table_names() {
auto con = this->get_connection();
std::vector<std::string> tableNames;
using data_t = std::vector<std::string>;
perform_exec(
con.get(),
"SELECT name FROM sqlite_master WHERE type='table'",
[](void* data, int argc, char** argv, char** /*columnName*/) -> int {
auto& tableNames_ = *(data_t*)data;
for(int i = 0; i < argc; ++i) {
if(argv[i]) {
tableNames_.emplace_back(argv[i]);
}
}
return 0;
},
&tableNames);
return tableNames;
}
void open_forever() {
this->isOpenedForever = true;
this->connection->retain();
if(1 == this->connection->retain_count()) {
this->on_open_internal(this->connection->get());
}
}
/**
* Call this to create user defined scalar function. Can be called at any time no matter connection is opened or no.
* T - function class. T must have operator() overload and static name function like this:
* ```
* struct SqrtFunction {
*
* double operator()(double arg) const {
* return std::sqrt(arg);
* }
*
* static const char *name() {
* return "SQRT";
* }
* };
* ```
*
* Note: Currently, a function's name must not contain white-space characters, because it doesn't get quoted.
*/
template<class F>
void create_scalar_function() {
static_assert(is_scalar_function_v<F>, "F can't be an aggregate function");
std::stringstream ss;
ss << F::name() << std::flush;
auto name = ss.str();
using args_tuple = typename callable_arguments<F>::args_tuple;
using return_type = typename callable_arguments<F>::return_type;
constexpr auto argsCount = std::is_same<args_tuple, std::tuple<arg_values>>::value
? -1
: int(std::tuple_size<args_tuple>::value);
this->scalarFunctions.emplace_back(new user_defined_scalar_function_t{
std::move(name),
argsCount,
[]() -> int* {
return (int*)(new F());
},
/* call = */
[](sqlite3_context* context, void* functionVoidPointer, int argsCount, sqlite3_value** values) {
auto& function = *static_cast<F*>(functionVoidPointer);
args_tuple argsTuple;
values_to_tuple{}(values, argsTuple, argsCount);
auto result = call(function, std::move(argsTuple));
statement_binder<return_type>().result(context, result);
},
delete_function_callback<F>,
});
if(this->connection->retain_count() > 0) {
sqlite3* db = this->connection->get();
try_to_create_function(db,
static_cast<user_defined_scalar_function_t&>(*this->scalarFunctions.back()));
}
}
/**
* Call this to create user defined aggregate function. Can be called at any time no matter connection is opened or no.
* T - function class. T must have step member function, fin member function and static name function like this:
* ```
* struct MeanFunction {
* double total = 0;
* int count = 0;
*
* void step(double value) {
* total += value;
* ++count;
* }
*
* int fin() const {
* return total / count;
* }
*
* static std::string name() {
* return "MEAN";
* }
* };
* ```
*
* Note: Currently, a function's name must not contain white-space characters, because it doesn't get quoted.
*/
template<class F>
void create_aggregate_function() {
static_assert(is_aggregate_function_v<F>, "F can't be a scalar function");
std::stringstream ss;
ss << F::name() << std::flush;
auto name = ss.str();
using args_tuple = typename callable_arguments<F>::args_tuple;
using return_type = typename callable_arguments<F>::return_type;
constexpr auto argsCount = std::is_same<args_tuple, std::tuple<arg_values>>::value
? -1
: int(std::tuple_size<args_tuple>::value);
this->aggregateFunctions.emplace_back(new user_defined_aggregate_function_t{
std::move(name),
argsCount,
/* create = */
[]() -> int* {
return (int*)(new F());
},
/* step = */
[](sqlite3_context*, void* functionVoidPointer, int argsCount, sqlite3_value** values) {
auto& function = *static_cast<F*>(functionVoidPointer);
args_tuple argsTuple;
values_to_tuple{}(values, argsTuple, argsCount);
call(function, &F::step, std::move(argsTuple));
},
/* finalCall = */
[](sqlite3_context* context, void* functionVoidPointer) {
auto& function = *static_cast<F*>(functionVoidPointer);
auto result = function.fin();
statement_binder<return_type>().result(context, result);
},
delete_function_callback<F>,
});
if(this->connection->retain_count() > 0) {
sqlite3* db = this->connection->get();
try_to_create_function(
db,
static_cast<user_defined_aggregate_function_t&>(*this->aggregateFunctions.back()));
}
}
/**
* Use it to delete scalar function you created before. Can be called at any time no matter connection is open or no.
*/
template<class F>
void delete_scalar_function() {
static_assert(is_scalar_function_v<F>, "F cannot be an aggregate function");
std::stringstream ss;
ss << F::name() << std::flush;
this->delete_function_impl(ss.str(), this->scalarFunctions);
}
/**
* Use it to delete aggregate function you created before. Can be called at any time no matter connection is open or no.
*/
template<class F>
void delete_aggregate_function() {
static_assert(is_aggregate_function_v<F>, "F cannot be a scalar function");
std::stringstream ss;
ss << F::name() << std::flush;
this->delete_function_impl(ss.str(), this->aggregateFunctions);
}
template<class C>
void create_collation() {
collating_function func = [](int leftLength, const void* lhs, int rightLength, const void* rhs) {
C collatingObject;
return collatingObject(leftLength, lhs, rightLength, rhs);
};
std::stringstream ss;
ss << C::name() << std::flush;
this->create_collation(ss.str(), std::move(func));
}
void create_collation(const std::string& name, collating_function f) {
collating_function* function = nullptr;
const auto functionExists = bool(f);
if(functionExists) {
function = &(collatingFunctions[name] = std::move(f));
} else {
collatingFunctions.erase(name);
}
// create collations if db is open
if(this->connection->retain_count() > 0) {
sqlite3* db = this->connection->get();
auto resultCode = sqlite3_create_collation(db,
name.c_str(),
SQLITE_UTF8,
function,
functionExists ? collate_callback : nullptr);
if(resultCode != SQLITE_OK) {
throw_translated_sqlite_error(db);
}
}
}
template<class C>
void delete_collation() {
std::stringstream ss;
ss << C::name() << std::flush;
this->create_collation(ss.str(), {});
}
void begin_transaction() {
this->begin_transaction_internal("BEGIN TRANSACTION");
}
void begin_deferred_transaction() {
this->begin_transaction_internal("BEGIN DEFERRED TRANSACTION");
}
void begin_immediate_transaction() {
this->begin_transaction_internal("BEGIN IMMEDIATE TRANSACTION");
}
void begin_exclusive_transaction() {
this->begin_transaction_internal("BEGIN EXCLUSIVE TRANSACTION");
}
void commit() {
sqlite3* db = this->connection->get();
perform_void_exec(db, "COMMIT");
this->connection->release();
if(this->connection->retain_count() < 0) {
throw std::system_error{orm_error_code::no_active_transaction};
}
}
void rollback() {
sqlite3* db = this->connection->get();
perform_void_exec(db, "ROLLBACK");
this->connection->release();
if(this->connection->retain_count() < 0) {
throw std::system_error{orm_error_code::no_active_transaction};
}
}
void backup_to(const std::string& filename) {
auto backup = this->make_backup_to(filename);
backup.step(-1);
}
void backup_to(storage_base& other) {
auto backup = this->make_backup_to(other);
backup.step(-1);
}
void backup_from(const std::string& filename) {
auto backup = this->make_backup_from(filename);
backup.step(-1);
}
void backup_from(storage_base& other) {
auto backup = this->make_backup_from(other);
backup.step(-1);
}
backup_t make_backup_to(const std::string& filename) {
auto holder = std::make_unique<connection_holder>(filename);
connection_ref conRef{*holder};
return {conRef, "main", this->get_connection(), "main", std::move(holder)};
}
backup_t make_backup_to(storage_base& other) {
return {other.get_connection(), "main", this->get_connection(), "main", {}};
}
backup_t make_backup_from(const std::string& filename) {
auto holder = std::make_unique<connection_holder>(filename);
connection_ref conRef{*holder};
return {this->get_connection(), "main", conRef, "main", std::move(holder)};
}
backup_t make_backup_from(storage_base& other) {
return {this->get_connection(), "main", other.get_connection(), "main", {}};
}
const std::string& filename() const {
return this->connection->filename;
}
/**
* Checks whether connection to database is opened right now.
* Returns always `true` for in memory databases.
*/
bool is_opened() const {
return this->connection->retain_count() > 0;
}
/*
* returning false when there is a transaction in place
* otherwise true; function is not const because it has to call get_connection()
*/
bool get_autocommit() {
auto con = this->get_connection();
return sqlite3_get_autocommit(con.get());
}
int busy_handler(std::function<int(int)> handler) {
_busy_handler = std::move(handler);
if(this->is_opened()) {
if(_busy_handler) {
return sqlite3_busy_handler(this->connection->get(), busy_handler_callback, this);
} else {
return sqlite3_busy_handler(this->connection->get(), nullptr, nullptr);
}
} else {
return SQLITE_OK;
}
}
protected:
storage_base(std::string filename, int foreignKeysCount) :
pragma(std::bind(&storage_base::get_connection, this)),
limit(std::bind(&storage_base::get_connection, this)),
inMemory(filename.empty() || filename == ":memory:"),
connection(std::make_unique<connection_holder>(std::move(filename))),
cachedForeignKeysCount(foreignKeysCount) {
if(this->inMemory) {
this->connection->retain();
this->on_open_internal(this->connection->get());
}
}
storage_base(const storage_base& other) :
on_open(other.on_open), pragma(std::bind(&storage_base::get_connection, this)),
limit(std::bind(&storage_base::get_connection, this)), inMemory(other.inMemory),
connection(std::make_unique<connection_holder>(other.connection->filename)),
cachedForeignKeysCount(other.cachedForeignKeysCount) {
if(this->inMemory) {
this->connection->retain();
this->on_open_internal(this->connection->get());
}
}
~storage_base() {
if(this->isOpenedForever) {
this->connection->release();
}
if(this->inMemory) {
this->connection->release();
}
}
void begin_transaction_internal(const std::string& query) {
this->connection->retain();
if(1 == this->connection->retain_count()) {
this->on_open_internal(this->connection->get());
}
sqlite3* db = this->connection->get();
perform_void_exec(db, query);
}
connection_ref get_connection() {
connection_ref res{*this->connection};
if(1 == this->connection->retain_count()) {
this->on_open_internal(this->connection->get());
}
return res;
}
#if SQLITE_VERSION_NUMBER >= 3006019
void foreign_keys(sqlite3* db, bool value) {
std::stringstream ss;
ss << "PRAGMA foreign_keys = " << value << std::flush;
perform_void_exec(db, ss.str());
}
bool foreign_keys(sqlite3* db) {
bool result = false;
perform_exec(db, "PRAGMA foreign_keys", extract_single_value<bool>, &result);
return result;
}
#endif
void on_open_internal(sqlite3* db) {
#if SQLITE_VERSION_NUMBER >= 3006019
if(this->cachedForeignKeysCount) {
this->foreign_keys(db, true);
}
#endif
if(this->pragma._synchronous != -1) {
this->pragma.synchronous(this->pragma._synchronous);
}
if(this->pragma._journal_mode != -1) {
this->pragma.set_pragma("journal_mode", static_cast<journal_mode>(this->pragma._journal_mode), db);
}
for(auto& p: this->collatingFunctions) {
auto resultCode =
sqlite3_create_collation(db, p.first.c_str(), SQLITE_UTF8, &p.second, collate_callback);
if(resultCode != SQLITE_OK) {
throw_translated_sqlite_error(db);
}
}
for(auto& p: this->limit.limits) {
sqlite3_limit(db, p.first, p.second);
}
if(_busy_handler) {
sqlite3_busy_handler(this->connection->get(), busy_handler_callback, this);
}
for(auto& functionPointer: this->scalarFunctions) {
try_to_create_function(db, static_cast<user_defined_scalar_function_t&>(*functionPointer));
}
for(auto& functionPointer: this->aggregateFunctions) {
try_to_create_function(db, static_cast<user_defined_aggregate_function_t&>(*functionPointer));
}
if(this->on_open) {
this->on_open(db);
}
}
void delete_function_impl(const std::string& name,
std::vector<std::unique_ptr<user_defined_function_base>>& functionsVector) const {
auto it = find_if(functionsVector.begin(), functionsVector.end(), [&name](auto& functionPointer) {
return functionPointer->name == name;
});
if(it != functionsVector.end()) {
functionsVector.erase(it);
it = functionsVector.end();
if(this->connection->retain_count() > 0) {
sqlite3* db = this->connection->get();
auto resultCode = sqlite3_create_function_v2(db,
name.c_str(),
0,
SQLITE_UTF8,
nullptr,
nullptr,
nullptr,
nullptr,
nullptr);
if(resultCode != SQLITE_OK) {
throw_translated_sqlite_error(db);
}
}
} else {
throw std::system_error{orm_error_code::function_not_found};
}
}
void try_to_create_function(sqlite3* db, user_defined_scalar_function_t& function) {
auto resultCode = sqlite3_create_function_v2(db,
function.name.c_str(),
function.argumentsCount,
SQLITE_UTF8,
&function,
scalar_function_callback,
nullptr,
nullptr,
nullptr);
if(resultCode != SQLITE_OK) {
throw_translated_sqlite_error(db);
}
}
void try_to_create_function(sqlite3* db, user_defined_aggregate_function_t& function) {
auto resultCode = sqlite3_create_function(db,
function.name.c_str(),
function.argumentsCount,
SQLITE_UTF8,
&function,
nullptr,
aggregate_function_step_callback,
aggregate_function_final_callback);
if(resultCode != SQLITE_OK) {
throw_translated_sqlite_error(resultCode);
}
}
static void
aggregate_function_step_callback(sqlite3_context* context, int argsCount, sqlite3_value** values) {
auto functionVoidPointer = sqlite3_user_data(context);
auto functionPointer = static_cast<user_defined_aggregate_function_t*>(functionVoidPointer);
auto aggregateContextVoidPointer = sqlite3_aggregate_context(context, sizeof(int**));
auto aggregateContextIntPointer = static_cast<int**>(aggregateContextVoidPointer);
if(*aggregateContextIntPointer == nullptr) {
*aggregateContextIntPointer = functionPointer->create();
}
functionPointer->step(context, *aggregateContextIntPointer, argsCount, values);
}
static void aggregate_function_final_callback(sqlite3_context* context) {
auto functionVoidPointer = sqlite3_user_data(context);
auto functionPointer = static_cast<user_defined_aggregate_function_t*>(functionVoidPointer);
auto aggregateContextVoidPointer = sqlite3_aggregate_context(context, sizeof(int**));
auto aggregateContextIntPointer = static_cast<int**>(aggregateContextVoidPointer);
functionPointer->finalCall(context, *aggregateContextIntPointer);
functionPointer->destroy(*aggregateContextIntPointer);
}
static void scalar_function_callback(sqlite3_context* context, int argsCount, sqlite3_value** values) {
auto functionVoidPointer = sqlite3_user_data(context);
auto functionPointer = static_cast<user_defined_scalar_function_t*>(functionVoidPointer);
std::unique_ptr<int, void (*)(int*)> callablePointer(functionPointer->create(),
functionPointer->destroy);
if(functionPointer->argumentsCount != -1 && functionPointer->argumentsCount != argsCount) {
throw std::system_error{orm_error_code::arguments_count_does_not_match};
}
functionPointer->run(context, functionPointer, argsCount, values);
}
template<class F>
static void delete_function_callback(int* pointer) {
auto voidPointer = static_cast<void*>(pointer);
auto fPointer = static_cast<F*>(voidPointer);
delete fPointer;
}
std::string current_timestamp(sqlite3* db) {
std::string result;
perform_exec(db, "SELECT CURRENT_TIMESTAMP", extract_single_value<std::string>, &result);
return result;
}
void drop_table_internal(sqlite3* db, const std::string& tableName) {
std::stringstream ss;
ss << "DROP TABLE " << streaming_identifier(tableName) << std::flush;
perform_void_exec(db, ss.str());
}
static int collate_callback(void* arg, int leftLen, const void* lhs, int rightLen, const void* rhs) {
auto& f = *(collating_function*)arg;
return f(leftLen, lhs, rightLen, rhs);
}
static int busy_handler_callback(void* selfPointer, int triesCount) {
auto& storage = *static_cast<storage_base*>(selfPointer);
if(storage._busy_handler) {
return storage._busy_handler(triesCount);
} else {
return 0;
}
}
bool calculate_remove_add_columns(std::vector<const table_xinfo*>& columnsToAdd,
std::vector<table_xinfo>& storageTableInfo,
std::vector<table_xinfo>& dbTableInfo) const {
bool notEqual = false;
// iterate through storage columns
for(size_t storageColumnInfoIndex = 0; storageColumnInfoIndex < storageTableInfo.size();
++storageColumnInfoIndex) {
// get storage's column info
auto& storageColumnInfo = storageTableInfo[storageColumnInfoIndex];
auto& columnName = storageColumnInfo.name;
// search for a column in db eith the same name
auto dbColumnInfoIt = std::find_if(dbTableInfo.begin(), dbTableInfo.end(), [&columnName](auto& ti) {
return ti.name == columnName;
});
if(dbColumnInfoIt != dbTableInfo.end()) {
auto& dbColumnInfo = *dbColumnInfoIt;
auto columnsAreEqual =
dbColumnInfo.name == storageColumnInfo.name &&
dbColumnInfo.notnull == storageColumnInfo.notnull &&
(!dbColumnInfo.dflt_value.empty()) == (!storageColumnInfo.dflt_value.empty()) &&
dbColumnInfo.pk == storageColumnInfo.pk &&
(dbColumnInfo.hidden == 0) == (storageColumnInfo.hidden == 0);
if(!columnsAreEqual) {
notEqual = true;
break;
}
dbTableInfo.erase(dbColumnInfoIt);
storageTableInfo.erase(storageTableInfo.begin() +
static_cast<ptrdiff_t>(storageColumnInfoIndex));
--storageColumnInfoIndex;
} else {
columnsToAdd.push_back(&storageColumnInfo);
}
}
return notEqual;
}
const bool inMemory;
bool isOpenedForever = false;
std::unique_ptr<connection_holder> connection;
std::map<std::string, collating_function> collatingFunctions;
const int cachedForeignKeysCount;
std::function<int(int)> _busy_handler;
std::vector<std::unique_ptr<user_defined_function_base>> scalarFunctions;
std::vector<std::unique_ptr<user_defined_function_base>> aggregateFunctions;
};
}
}
// #include "prepared_statement.h"
// #include "expression_object_type.h"
#include <type_traits> // std::decay
#include <functional> // std::reference_wrapper
// #include "prepared_statement.h"
namespace sqlite_orm {
namespace internal {
template<class T, class SFINAE = void>
struct expression_object_type;
template<class T>
struct expression_object_type<update_t<T>> : std::decay<T> {};
template<class T>
struct expression_object_type<update_t<std::reference_wrapper<T>>> : std::decay<T> {};
template<class T>
struct expression_object_type<replace_t<T>> : std::decay<T> {};
template<class T>
struct expression_object_type<replace_t<std::reference_wrapper<T>>> : std::decay<T> {};
template<class It, class L, class O>
struct expression_object_type<replace_range_t<It, L, O>> {
using type = typename replace_range_t<It, L, O>::object_type;
};
template<class It, class L, class O>
struct expression_object_type<replace_range_t<std::reference_wrapper<It>, L, O>> {
using type = typename replace_range_t<std::reference_wrapper<It>, L, O>::object_type;
};
template<class T, class... Ids>
struct expression_object_type<remove_t<T, Ids...>> {
using type = T;
};
template<class T, class... Ids>
struct expression_object_type<remove_t<std::reference_wrapper<T>, Ids...>> {
using type = T;
};
template<class T>
struct expression_object_type<insert_t<T>> : std::decay<T> {};
template<class T>
struct expression_object_type<insert_t<std::reference_wrapper<T>>> : std::decay<T> {};
template<class It, class L, class O>
struct expression_object_type<insert_range_t<It, L, O>> {
using type = typename insert_range_t<It, L, O>::object_type;
};
template<class It, class L, class O>
struct expression_object_type<insert_range_t<std::reference_wrapper<It>, L, O>> {
using type = typename insert_range_t<std::reference_wrapper<It>, L, O>::object_type;
};
template<class T, class... Cols>
struct expression_object_type<insert_explicit<T, Cols...>> : std::decay<T> {};
template<class T, class... Cols>
struct expression_object_type<insert_explicit<std::reference_wrapper<T>, Cols...>> : std::decay<T> {};
template<class T>
struct get_ref_t {
template<class O>
auto& operator()(O& t) const {
return t;
}
};
template<class T>
struct get_ref_t<std::reference_wrapper<T>> {
template<class O>
auto& operator()(O& t) const {
return t.get();
}
};
template<class T>
auto& get_ref(T& t) {
using arg_type = std::decay_t<T>;
get_ref_t<arg_type> g;
return g(t);
}
template<class T>
struct get_object_t;
template<class T>
struct get_object_t<const T> : get_object_t<T> {};
template<class T>
auto& get_object(T& t) {
using expression_type = std::decay_t<T>;
get_object_t<expression_type> obj;
return obj(t);
}
template<class T>
struct get_object_t<replace_t<T>> {
using expression_type = replace_t<T>;
template<class O>
auto& operator()(O& e) const {
return get_ref(e.object);
}
};
template<class T>
struct get_object_t<insert_t<T>> {
using expression_type = insert_t<T>;
template<class O>
auto& operator()(O& e) const {
return get_ref(e.object);
}
};
template<class T>
struct get_object_t<update_t<T>> {
using expression_type = update_t<T>;
template<class O>
auto& operator()(O& e) const {
return get_ref(e.object);
}
};
}
}
// #include "statement_serializer.h"
#include <sstream> // std::stringstream
#include <string> // std::string
#include <type_traits> // std::enable_if, std::remove_pointer
#include <vector> // std::vector
#include <algorithm> // std::iter_swap
#ifndef SQLITE_ORM_OMITS_CODECVT
#include <codecvt> // std::codecvt_utf8_utf16
#endif // SQLITE_ORM_OMITS_CODECVT
#include <memory>
#include <array>
// #include "functional/cxx_string_view.h"
// #include "functional/cxx_optional.h"
// #include "functional/cxx_universal.h"
// #include "functional/cxx_functional_polyfill.h"
// #include "functional/mpl.h"
// #include "tuple_helper/tuple_filter.h"
// #include "ast/upsert_clause.h"
// #include "ast/excluded.h"
// #include "ast/group_by.h"
// #include "ast/into.h"
// #include "core_functions.h"
// #include "constraints.h"
// #include "conditions.h"
// #include "column.h"
// #include "indexed_column.h"
// #include "function.h"
// #include "prepared_statement.h"
// #include "rowid.h"
// #include "pointer_value.h"
// #include "type_printer.h"
// #include "field_printer.h"
// #include "literal.h"
// #include "table_name_collector.h"
// #include "column_names_getter.h"
#include <type_traits> // std::is_base_of
#include <string> // std::string
#include <vector> // std::vector
#include <functional> // std::reference_wrapper
#include <system_error>
#include <utility> // std::move
// #include "tuple_helper/tuple_traits.h"
// #include "tuple_helper/tuple_iteration.h"
// #include "error_code.h"
// #include "mapped_type_proxy.h"
// #include "alias_traits.h"
// #include "select_constraints.h"
// #include "storage_lookup.h"
// pick_table
// #include "serializer_context.h"
// #include "util.h"
namespace sqlite_orm {
namespace internal {
template<class T, class DBOs>
std::string serialize(const T&, const serializer_context<DBOs>&);
template<class T, class Ctx>
std::vector<std::string>& collect_table_column_names(std::vector<std::string>& collectedExpressions,
bool definedOrder,
const Ctx& context) {
if(definedOrder) {
auto& table = pick_table<mapped_type_proxy_t<T>>(context.db_objects);
collectedExpressions.reserve(collectedExpressions.size() + table.count_columns_amount());
table.for_each_column([qualified = !context.skip_table_name,
&tableName = table.name,
&collectedExpressions](const column_identifier& column) {
if(is_alias_v<T>) {
collectedExpressions.push_back(quote_identifier(alias_extractor<T>::extract()) + "." +
quote_identifier(column.name));
} else if(qualified) {
collectedExpressions.push_back(quote_identifier(tableName) + "." +
quote_identifier(column.name));
} else {
collectedExpressions.push_back(quote_identifier(column.name));
}
});
} else {
collectedExpressions.reserve(collectedExpressions.size() + 1);
if(is_alias_v<T>) {
collectedExpressions.push_back(quote_identifier(alias_extractor<T>::extract()) + ".*");
} else if(!context.skip_table_name) {
const basic_table& table = pick_table<mapped_type_proxy_t<T>>(context.db_objects);
collectedExpressions.push_back(quote_identifier(table.name) + ".*");
} else {
collectedExpressions.emplace_back("*");
}
}
return collectedExpressions;
}
/** @short Column expression collector.
*/
struct column_names_getter {
/**
* The default implementation simply serializes the passed argument.
*/
template<class E, class Ctx>
std::vector<std::string>& operator()(const E& t, const Ctx& context) {
auto columnExpression = serialize(t, context);
if(columnExpression.empty()) {
throw std::system_error{orm_error_code::column_not_found};
}
collectedExpressions.reserve(collectedExpressions.size() + 1);
collectedExpressions.push_back(std::move(columnExpression));
return collectedExpressions;
}
template<class T, class Ctx>
std::vector<std::string>& operator()(const std::reference_wrapper<T>& expression, const Ctx& context) {
return (*this)(expression.get(), context);
}
template<class T, class Ctx>
std::vector<std::string>& operator()(const asterisk_t<T>& expression, const Ctx& context) {
return collect_table_column_names<T>(collectedExpressions, expression.defined_order, context);
}
template<class T, class Ctx>
std::vector<std::string>& operator()(const object_t<T>& expression, const Ctx& context) {
return collect_table_column_names<T>(collectedExpressions, expression.defined_order, context);
}
template<class... Args, class Ctx>
std::vector<std::string>& operator()(const columns_t<Args...>& cols, const Ctx& context) {
collectedExpressions.reserve(collectedExpressions.size() + cols.count);
iterate_tuple(cols.columns, [this, &context](auto& colExpr) {
(*this)(colExpr, context);
});
// note: `capacity() > size()` can occur in case `asterisk_t<>` does spell out the columns in defined order
if(mpl::instantiate<check_if_tuple_has_template<asterisk_t>,
typename columns_t<Args...>::columns_type>::value &&
collectedExpressions.capacity() > collectedExpressions.size()) {
collectedExpressions.shrink_to_fit();
}
return collectedExpressions;
}
std::vector<std::string> collectedExpressions;
};
template<class T, class Ctx>
std::vector<std::string> get_column_names(const T& t, const Ctx& context) {
column_names_getter serializer;
return serializer(t, context);
}
}
}
// #include "order_by_serializer.h"
#include <string> // std::string
#include <sstream> // std::stringstream
namespace sqlite_orm {
namespace internal {
template<class T, class SFINAE = void>
struct order_by_serializer;
template<class T, class Ctx>
std::string serialize_order_by(const T& t, const Ctx& context) {
order_by_serializer<T> serializer;
return serializer(t, context);
}
template<class O>
struct order_by_serializer<order_by_t<O>, void> {
using statement_type = order_by_t<O>;
template<class Ctx>
std::string operator()(const statement_type& orderBy, const Ctx& context) const {
std::stringstream ss;
auto newContext = context;
newContext.skip_table_name = false;
ss << serialize(orderBy.expression, newContext);
if(!orderBy._collate_argument.empty()) {
ss << " COLLATE " << orderBy._collate_argument;
}
switch(orderBy.asc_desc) {
case 1:
ss << " ASC";
break;
case -1:
ss << " DESC";
break;
}
return ss.str();
}
};
template<class C>
struct order_by_serializer<dynamic_order_by_t<C>, void> {
using statement_type = dynamic_order_by_t<C>;
template<class Ctx>
std::string operator()(const statement_type& orderBy, const Ctx&) const {
std::stringstream ss;
ss << static_cast<std::string>(orderBy) << " ";
int index = 0;
for(const dynamic_order_by_entry_t& entry: orderBy) {
if(index > 0) {
ss << ", ";
}
ss << entry.name;
if(!entry._collate_argument.empty()) {
ss << " COLLATE " << entry._collate_argument;
}
switch(entry.asc_desc) {
case 1:
ss << " ASC";
break;
case -1:
ss << " DESC";
break;
}
++index;
};
return ss.str();
}
};
}
}
// #include "serializing_util.h"
// #include "statement_binder.h"
// #include "values.h"
// #include "triggers.h"
// #include "table_type_of.h"
// #include "index.h"
// #include "util.h"
namespace sqlite_orm {
namespace internal {
template<class T, class SFINAE = void>
struct statement_serializer;
template<class T, class DBOs>
std::string serialize(const T& t, const serializer_context<DBOs>& context) {
statement_serializer<T> serializer;
return serializer(t, context);
}
/**
* Serializer for bindable types.
*/
template<class T>
struct statement_serializer<T, match_if<is_bindable, T>> {
using statement_type = T;
template<class Ctx>
std::string operator()(const T& statement, const Ctx& context) const {
if(context.replace_bindable_with_question) {
return "?";
} else {
return this->do_serialize(statement);
}
}
private:
template<class X,
std::enable_if_t<is_printable_v<X> && !std::is_base_of<std::string, X>::value
#ifndef SQLITE_ORM_OMITS_CODECVT
&& !std::is_base_of<std::wstring, X>::value
#endif
,
bool> = true>
std::string do_serialize(const X& c) const {
static_assert(std::is_same<X, T>::value, "");
// implementation detail: utilizing field_printer
return field_printer<X>{}(c);
}
std::string do_serialize(const std::string& c) const {
// implementation detail: utilizing field_printer
return quote_string_literal(field_printer<std::string>{}(c));
}
std::string do_serialize(const char* c) const {
return quote_string_literal(c);
}
#ifndef SQLITE_ORM_OMITS_CODECVT
std::string do_serialize(const std::wstring& c) const {
// implementation detail: utilizing field_printer
return quote_string_literal(field_printer<std::wstring>{}(c));
}
std::string do_serialize(const wchar_t* c) const {
std::wstring_convert<std::codecvt_utf8_utf16<wchar_t>> converter;
return quote_string_literal(converter.to_bytes(c));
}
#endif
#ifdef SQLITE_ORM_STRING_VIEW_SUPPORTED
std::string do_serialize(const std::string_view& c) const {
return quote_string_literal(std::string(c));
}
#ifndef SQLITE_ORM_OMITS_CODECVT
std::string do_serialize(const std::wstring_view& c) const {
std::wstring_convert<std::codecvt_utf8_utf16<wchar_t>> converter;
return quote_string_literal(converter.to_bytes(c.data(), c.data() + c.size()));
}
#endif
#endif
/**
* Specialization for binary data (std::vector<char>).
*/
std::string do_serialize(const std::vector<char>& t) const {
return quote_blob_literal(field_printer<std::vector<char>>{}(t));
}
template<class P, class PT, class D>
std::string do_serialize(const pointer_binding<P, PT, D>&) const {
// always serialize null (security reasons)
return field_printer<nullptr_t>{}(nullptr);
}
};
/**
* Serializer for literal values.
*/
template<class T>
struct statement_serializer<T, match_specialization_of<T, literal_holder>> {
using statement_type = T;
template<class Ctx>
std::string operator()(const T& literal, const Ctx& context) const {
static_assert(is_bindable_v<type_t<T>>, "A literal value must be also bindable");
Ctx literalCtx = context;
literalCtx.replace_bindable_with_question = false;
statement_serializer<type_t<T>> serializer{};
return serializer(literal.value, literalCtx);
}
};
template<class F, class W>
struct statement_serializer<filtered_aggregate_function<F, W>, void> {
using statement_type = filtered_aggregate_function<F, W>;
template<class Ctx>
std::string operator()(const statement_type& statement, const Ctx& context) {
std::stringstream ss;
ss << serialize(statement.function, context);
ss << " FILTER (WHERE " << serialize(statement.where, context) << ")";
return ss.str();
}
};
template<class T>
struct statement_serializer<excluded_t<T>, void> {
using statement_type = excluded_t<T>;
template<class Ctx>
std::string operator()(const statement_type& statement, const Ctx& context) const {
std::stringstream ss;
ss << "excluded.";
if(auto* columnName = find_column_name(context.db_objects, statement.expression)) {
ss << streaming_identifier(*columnName);
} else {
throw std::system_error{orm_error_code::column_not_found};
}
return ss.str();
}
};
#ifdef SQLITE_ORM_OPTIONAL_SUPPORTED
template<class T>
struct statement_serializer<as_optional_t<T>, void> {
using statement_type = as_optional_t<T>;
template<class Ctx>
std::string operator()(const statement_type& statement, const Ctx& context) const {
return serialize(statement.value, context);
}
};
#endif // SQLITE_ORM_OPTIONAL_SUPPORTED
template<class T>
struct statement_serializer<std::reference_wrapper<T>, void> {
using statement_type = std::reference_wrapper<T>;
template<class Ctx>
std::string operator()(const statement_type& s, const Ctx& context) const {
return serialize(s.get(), context);
}
};
template<class T>
struct statement_serializer<alias_holder<T>, void> {
using statement_type = alias_holder<T>;
template<class Ctx>
std::string operator()(const statement_type&, const Ctx&) {
std::stringstream ss;
ss << streaming_identifier(T::get());
return ss.str();
}
};
template<char... C>
struct statement_serializer<column_alias<C...>, void> {
using statement_type = column_alias<C...>;
template<class Ctx>
std::string operator()(const statement_type&, const Ctx&) {
std::stringstream ss;
ss << streaming_identifier(statement_type::get());
return ss.str();
}
};
template<class T>
struct statement_serializer<T, match_if<is_upsert_clause, T>> {
using statement_type = T;
template<class Ctx>
std::string operator()(const statement_type& statement, const Ctx& context) const {
std::stringstream ss;
ss << "ON CONFLICT";
iterate_tuple(statement.target_args, [&ss, &context](auto& value) {
using value_type = std::decay_t<decltype(value)>;
auto needParenthesis = std::is_member_pointer<value_type>::value;
ss << ' ';
if(needParenthesis) {
ss << '(';
}
ss << serialize(value, context);
if(needParenthesis) {
ss << ')';
}
});
ss << ' ' << "DO";
if(std::tuple_size<typename statement_type::actions_tuple>::value == 0) {
ss << " NOTHING";
} else {
auto updateContext = context;
updateContext.use_parentheses = false;
ss << " UPDATE " << streaming_actions_tuple(statement.actions, updateContext);
}
return ss.str();
}
};
template<class R, class S, class... Args>
struct statement_serializer<built_in_function_t<R, S, Args...>, void> {
using statement_type = built_in_function_t<R, S, Args...>;
template<class Ctx>
std::string operator()(const statement_type& statement, const Ctx& context) const {
std::stringstream ss;
if(context.use_parentheses) {
ss << '(';
}
ss << statement.serialize() << "(" << streaming_expressions_tuple(statement.args, context) << ")";
if(context.use_parentheses) {
ss << ')';
}
return ss.str();
}
};
template<class R, class S, class... Args>
struct statement_serializer<built_in_aggregate_function_t<R, S, Args...>, void>
: statement_serializer<built_in_function_t<R, S, Args...>, void> {};
template<class F, class... Args>
struct statement_serializer<function_call<F, Args...>, void> {
using statement_type = function_call<F, Args...>;
template<class Ctx>
std::string operator()(const statement_type& statement, const Ctx& context) const {
std::stringstream ss;
ss << F::name() << "(" << streaming_expressions_tuple(statement.args, context) << ")";
return ss.str();
}
};
template<class T, class E>
struct statement_serializer<as_t<T, E>, void> {
using statement_type = as_t<T, E>;
template<class Ctx>
std::string operator()(const statement_type& c, const Ctx& context) const {
std::stringstream ss;
ss << serialize(c.expression, context) + " AS " << streaming_identifier(alias_extractor<T>::extract());
return ss.str();
}
};
template<class T, class P>
struct statement_serializer<alias_column_t<T, P>, void> {
using statement_type = alias_column_t<T, P>;
template<class Ctx>
std::string operator()(const statement_type& c, const Ctx& context) const {
std::stringstream ss;
if(!context.skip_table_name) {
ss << streaming_identifier(alias_extractor<T>::extract()) << ".";
}
auto newContext = context;
newContext.skip_table_name = true;
ss << serialize(c.column, newContext);
return ss.str();
}
};
template<class E>
struct statement_serializer<
E,
std::enable_if_t<polyfill::disjunction_v<std::is_member_pointer<E>, is_column_pointer<E>>>> {
using statement_type = E;
template<class Ctx>
std::string operator()(const statement_type& e, const Ctx& context) const {
std::stringstream ss;
if(auto* columnName = find_column_name(context.db_objects, e)) {
ss << streaming_identifier(
!context.skip_table_name ? lookup_table_name<table_type_of_t<E>>(context.db_objects) : "",
*columnName,
"");
} else {
throw std::system_error{orm_error_code::column_not_found};
}
return ss.str();
}
};
template<>
struct statement_serializer<rowid_t, void> {
using statement_type = rowid_t;
template<class Ctx>
std::string operator()(const statement_type& s, const Ctx&) const {
return static_cast<std::string>(s);
}
};
template<>
struct statement_serializer<oid_t, void> {
using statement_type = oid_t;
template<class Ctx>
std::string operator()(const statement_type& s, const Ctx&) const {
return static_cast<std::string>(s);
}
};
template<>
struct statement_serializer<_rowid_t, void> {
using statement_type = _rowid_t;
template<class Ctx>
std::string operator()(const statement_type& s, const Ctx&) const {
return static_cast<std::string>(s);
}
};
template<class O>
struct statement_serializer<table_rowid_t<O>, void> {
using statement_type = table_rowid_t<O>;
template<class Ctx>
std::string operator()(const statement_type& s, const Ctx& context) const {
std::stringstream ss;
if(!context.skip_table_name) {
ss << streaming_identifier(lookup_table_name<O>(context.db_objects)) << ".";
}
ss << static_cast<std::string>(s);
return ss.str();
}
};
template<class O>
struct statement_serializer<table_oid_t<O>, void> {
using statement_type = table_oid_t<O>;
template<class Ctx>
std::string operator()(const statement_type& s, const Ctx& context) const {
std::stringstream ss;
if(!context.skip_table_name) {
ss << streaming_identifier(lookup_table_name<O>(context.db_objects)) << ".";
}
ss << static_cast<std::string>(s);
return ss.str();
}
};
template<class O>
struct statement_serializer<table__rowid_t<O>, void> {
using statement_type = table__rowid_t<O>;
template<class Ctx>
std::string operator()(const statement_type& s, const Ctx& context) const {
std::stringstream ss;
if(!context.skip_table_name) {
ss << streaming_identifier(lookup_table_name<O>(context.db_objects)) << ".";
}
ss << static_cast<std::string>(s);
return ss.str();
}
};
template<class L, class R, class... Ds>
struct statement_serializer<binary_operator<L, R, Ds...>, void> {
using statement_type = binary_operator<L, R, Ds...>;
template<class Ctx>
std::string operator()(const statement_type& statement, const Ctx& context) const {
auto lhs = serialize(statement.lhs, context);
auto rhs = serialize(statement.rhs, context);
std::stringstream ss;
if(context.use_parentheses) {
ss << '(';
}
ss << lhs << " " << statement.serialize() << " " << rhs;
if(context.use_parentheses) {
ss << ')';
}
return ss.str();
}
};
template<class T>
struct statement_serializer<count_asterisk_t<T>, void> {
using statement_type = count_asterisk_t<T>;
template<class Ctx>
std::string operator()(const statement_type&, const Ctx& context) const {
return serialize(count_asterisk_without_type{}, context);
}
};
template<>
struct statement_serializer<count_asterisk_without_type, void> {
using statement_type = count_asterisk_without_type;
template<class Ctx>
std::string operator()(const statement_type& c, const Ctx&) const {
std::stringstream ss;
auto functionName = c.serialize();
ss << functionName << "(*)";
return ss.str();
}
};
template<class T>
struct statement_serializer<distinct_t<T>, void> {
using statement_type = distinct_t<T>;
template<class Ctx>
std::string operator()(const statement_type& c, const Ctx& context) const {
std::stringstream ss;
auto expr = serialize(c.value, context);
ss << static_cast<std::string>(c) << "(" << expr << ")";
return ss.str();
}
};
template<class T>
struct statement_serializer<all_t<T>, void> {
using statement_type = all_t<T>;
template<class Ctx>
std::string operator()(const statement_type& c, const Ctx& context) const {
std::stringstream ss;
auto expr = serialize(c.value, context);
ss << static_cast<std::string>(c) << "(" << expr << ")";
return ss.str();
}
};
template<class T, class E>
struct statement_serializer<cast_t<T, E>, void> {
using statement_type = cast_t<T, E>;
template<class Ctx>
std::string operator()(const statement_type& c, const Ctx& context) const {
std::stringstream ss;
ss << static_cast<std::string>(c) << " (";
ss << serialize(c.expression, context) << " AS " << type_printer<T>().print() << ")";
return ss.str();
}
};
template<class T>
struct statement_serializer<T, match_if<is_compound_operator, T>> {
using statement_type = T;
template<class Ctx>
std::string operator()(const statement_type& c, const Ctx& context) const {
std::stringstream ss;
ss << serialize(c.left, context) << " ";
ss << static_cast<std::string>(c) << " ";
ss << serialize(c.right, context);
return ss.str();
}
};
template<class R, class T, class E, class... Args>
struct statement_serializer<simple_case_t<R, T, E, Args...>, void> {
using statement_type = simple_case_t<R, T, E, Args...>;
template<class Ctx>
std::string operator()(const statement_type& c, const Ctx& context) const {
std::stringstream ss;
ss << "CASE ";
c.case_expression.apply([&ss, context](auto& c_) {
ss << serialize(c_, context) << " ";
});
iterate_tuple(c.args, [&ss, context](auto& pair) {
ss << "WHEN " << serialize(pair.first, context) << " ";
ss << "THEN " << serialize(pair.second, context) << " ";
});
c.else_expression.apply([&ss, context](auto& el) {
ss << "ELSE " << serialize(el, context) << " ";
});
ss << "END";
return ss.str();
}
};
template<class T>
struct statement_serializer<is_null_t<T>, void> {
using statement_type = is_null_t<T>;
template<class Ctx>
std::string operator()(const statement_type& c, const Ctx& context) const {
std::stringstream ss;
ss << serialize(c.t, context) << " " << static_cast<std::string>(c);
return ss.str();
}
};
template<class T>
struct statement_serializer<is_not_null_t<T>, void> {
using statement_type = is_not_null_t<T>;
template<class Ctx>
std::string operator()(const statement_type& c, const Ctx& context) const {
std::stringstream ss;
ss << serialize(c.t, context) << " " << static_cast<std::string>(c);
return ss.str();
}
};
template<class T>
struct statement_serializer<bitwise_not_t<T>, void> {
using statement_type = bitwise_not_t<T>;
template<class Ctx>
std::string operator()(const statement_type& statement, const Ctx& context) const {
std::stringstream ss;
ss << statement.serialize() << " ";
auto cString = serialize(statement.argument, context);
ss << " (" << cString << " )";
return ss.str();
}
};
template<class T>
struct statement_serializer<negated_condition_t<T>, void> {
using statement_type = negated_condition_t<T>;
template<class Ctx>
std::string operator()(const statement_type& c, const Ctx& context) const {
std::stringstream ss;
ss << static_cast<std::string>(c) << " ";
auto cString = serialize(c.c, context);
ss << " (" << cString << " )";
return ss.str();
}
};
template<class T>
struct statement_serializer<T, match_if<is_binary_condition, T>> {
using statement_type = T;
template<class Ctx>
std::string operator()(const statement_type& c, const Ctx& context) const {
auto leftString = serialize(c.l, context);
auto rightString = serialize(c.r, context);
std::stringstream ss;
if(context.use_parentheses) {
ss << "(";
}
ss << leftString << " " << static_cast<std::string>(c) << " " << rightString;
if(context.use_parentheses) {
ss << ")";
}
return ss.str();
}
};
template<class T>
struct statement_serializer<named_collate<T>, void> {
using statement_type = named_collate<T>;
template<class Ctx>
std::string operator()(const statement_type& c, const Ctx& context) const {
auto newContext = context;
newContext.use_parentheses = false;
auto res = serialize(c.expr, newContext);
return res + " " + static_cast<std::string>(c);
}
};
template<class T>
struct statement_serializer<collate_t<T>, void> {
using statement_type = collate_t<T>;
template<class Ctx>
std::string operator()(const statement_type& c, const Ctx& context) const {
auto newContext = context;
newContext.use_parentheses = false;
auto res = serialize(c.expr, newContext);
return res + " " + static_cast<std::string>(c);
}
};
template<class L, class A>
struct statement_serializer<dynamic_in_t<L, A>, void> {
using statement_type = dynamic_in_t<L, A>;
template<class Ctx>
std::string operator()(const statement_type& statement, const Ctx& context) const {
std::stringstream ss;
auto leftString = serialize(statement.left, context);
ss << leftString << " ";
if(!statement.negative) {
ss << "IN";
} else {
ss << "NOT IN";
}
ss << " ";
if(is_compound_operator_v<A>) {
ss << '(';
}
auto newContext = context;
newContext.use_parentheses = true;
ss << serialize(statement.argument, newContext);
if(is_compound_operator_v<A>) {
ss << ')';
}
return ss.str();
}
};
template<class L, class E>
struct statement_serializer<dynamic_in_t<L, std::vector<E>>, void> {
using statement_type = dynamic_in_t<L, std::vector<E>>;
template<class Ctx>
std::string operator()(const statement_type& statement, const Ctx& context) const {
std::stringstream ss;
auto leftString = serialize(statement.left, context);
ss << leftString << " ";
if(!statement.negative) {
ss << "IN";
} else {
ss << "NOT IN";
}
ss << " (" << streaming_dynamic_expressions(statement.argument, context) << ")";
return ss.str();
}
};
template<class L, class... Args>
struct statement_serializer<in_t<L, Args...>, void> {
using statement_type = in_t<L, Args...>;
template<class Ctx>
std::string operator()(const statement_type& statement, const Ctx& context) const {
std::stringstream ss;
auto leftString = serialize(statement.left, context);
ss << leftString << " ";
if(!statement.negative) {
ss << "IN";
} else {
ss << "NOT IN";
}
ss << " ";
using args_type = std::tuple<Args...>;
constexpr bool theOnlySelect =
std::tuple_size<args_type>::value == 1 && is_select_v<std::tuple_element_t<0, args_type>>;
if(!theOnlySelect) {
ss << "(";
}
ss << streaming_expressions_tuple(statement.argument, context);
if(!theOnlySelect) {
ss << ")";
}
return ss.str();
}
};
template<class A, class T, class E>
struct statement_serializer<like_t<A, T, E>, void> {
using statement_type = like_t<A, T, E>;
template<class Ctx>
std::string operator()(const statement_type& c, const Ctx& context) const {
std::stringstream ss;
ss << serialize(c.arg, context) << " ";
ss << static_cast<std::string>(c) << " ";
ss << serialize(c.pattern, context);
c.arg3.apply([&ss, &context](auto& value) {
ss << " ESCAPE " << serialize(value, context);
});
return ss.str();
}
};
template<class A, class T>
struct statement_serializer<glob_t<A, T>, void> {
using statement_type = glob_t<A, T>;
template<class Ctx>
std::string operator()(const statement_type& c, const Ctx& context) const {
std::stringstream ss;
ss << serialize(c.arg, context) << " ";
ss << static_cast<std::string>(c) << " ";
ss << serialize(c.pattern, context);
return ss.str();
}
};
template<class A, class T>
struct statement_serializer<between_t<A, T>, void> {
using statement_type = between_t<A, T>;
template<class Ctx>
std::string operator()(const statement_type& c, const Ctx& context) const {
std::stringstream ss;
auto expr = serialize(c.expr, context);
ss << expr << " " << static_cast<std::string>(c) << " ";
ss << serialize(c.b1, context);
ss << " AND ";
ss << serialize(c.b2, context);
return ss.str();
}
};
template<class T>
struct statement_serializer<exists_t<T>, void> {
using statement_type = exists_t<T>;
template<class Ctx>
std::string operator()(const statement_type& statement, const Ctx& context) const {
std::stringstream ss;
auto newContext = context;
newContext.use_parentheses = true;
ss << "EXISTS " << serialize(statement.expression, newContext);
return ss.str();
}
};
template<>
struct statement_serializer<autoincrement_t, void> {
using statement_type = autoincrement_t;
template<class Ctx>
std::string operator()(const statement_type&, const Ctx&) const {
return "AUTOINCREMENT";
}
};
template<>
struct statement_serializer<conflict_clause_t, void> {
using statement_type = conflict_clause_t;
template<class Ctx>
std::string operator()(const statement_type& statement, const Ctx&) const {
switch(statement) {
case conflict_clause_t::rollback:
return "ROLLBACK";
case conflict_clause_t::abort:
return "ABORT";
case conflict_clause_t::fail:
return "FAIL";
case conflict_clause_t::ignore:
return "IGNORE";
case conflict_clause_t::replace:
return "REPLACE";
}
return {};
}
};
template<class T>
struct statement_serializer<primary_key_with_autoincrement<T>, void> {
using statement_type = primary_key_with_autoincrement<T>;
template<class Ctx>
std::string operator()(const statement_type& statement, const Ctx& context) const {
return serialize(statement.primary_key, context) + " AUTOINCREMENT";
}
};
template<class... Cs>
struct statement_serializer<primary_key_t<Cs...>, void> {
using statement_type = primary_key_t<Cs...>;
template<class Ctx>
std::string operator()(const statement_type& statement, const Ctx& context) const {
std::stringstream ss;
ss << "PRIMARY KEY";
switch(statement.options.asc_option) {
case statement_type::order_by::ascending:
ss << " ASC";
break;
case statement_type::order_by::descending:
ss << " DESC";
break;
default:
break;
}
if(statement.options.conflict_clause_is_on) {
ss << " ON CONFLICT " << serialize(statement.options.conflict_clause, context);
}
using columns_tuple = typename statement_type::columns_tuple;
const size_t columnsCount = std::tuple_size<columns_tuple>::value;
if(columnsCount) {
ss << "(" << streaming_mapped_columns_expressions(statement.columns, context) << ")";
}
return ss.str();
}
};
template<class... Args>
struct statement_serializer<unique_t<Args...>, void> {
using statement_type = unique_t<Args...>;
template<class Ctx>
std::string operator()(const statement_type& c, const Ctx& context) const {
std::stringstream ss;
ss << static_cast<std::string>(c);
using columns_tuple = typename statement_type::columns_tuple;
const size_t columnsCount = std::tuple_size<columns_tuple>::value;
if(columnsCount) {
ss << "(" << streaming_mapped_columns_expressions(c.columns, context) << ")";
}
return ss.str();
}
};
template<>
struct statement_serializer<collate_constraint_t, void> {
using statement_type = collate_constraint_t;
template<class Ctx>
std::string operator()(const statement_type& c, const Ctx&) const {
return static_cast<std::string>(c);
}
};
template<class T>
struct statement_serializer<default_t<T>, void> {
using statement_type = default_t<T>;
template<class Ctx>
std::string operator()(const statement_type& c, const Ctx& context) const {
return static_cast<std::string>(c) + " (" + serialize(c.value, context) + ")";
}
};
template<class... Cs, class... Rs>
struct statement_serializer<foreign_key_t<std::tuple<Cs...>, std::tuple<Rs...>>, void> {
using statement_type = foreign_key_t<std::tuple<Cs...>, std::tuple<Rs...>>;
template<class Ctx>
std::string operator()(const statement_type& fk, const Ctx& context) const {
std::stringstream ss;
ss << "FOREIGN KEY(" << streaming_mapped_columns_expressions(fk.columns, context) << ") REFERENCES ";
{
using references_type_t = typename std::decay_t<decltype(fk)>::references_type;
using first_reference_t = std::tuple_element_t<0, references_type_t>;
using first_reference_mapped_type = table_type_of_t<first_reference_t>;
auto refTableName = lookup_table_name<first_reference_mapped_type>(context.db_objects);
ss << streaming_identifier(refTableName);
}
ss << "(" << streaming_mapped_columns_expressions(fk.references, context) << ")";
if(fk.on_update) {
ss << ' ' << static_cast<std::string>(fk.on_update) << " " << fk.on_update._action;
}
if(fk.on_delete) {
ss << ' ' << static_cast<std::string>(fk.on_delete) << " " << fk.on_delete._action;
}
return ss.str();
}
};
template<class T>
struct statement_serializer<check_t<T>, void> {
using statement_type = check_t<T>;
template<class Ctx>
std::string operator()(const statement_type& statement, const Ctx& context) const {
std::stringstream ss;
ss << "CHECK (" << serialize(statement.expression, context) << ")";
return ss.str();
}
};
#if SQLITE_VERSION_NUMBER >= 3031000
template<class T>
struct statement_serializer<generated_always_t<T>, void> {
using statement_type = generated_always_t<T>;
template<class Ctx>
std::string operator()(const statement_type& statement, const Ctx& context) const {
std::stringstream ss;
if(statement.full) {
ss << "GENERATED ALWAYS ";
}
ss << "AS (";
ss << serialize(statement.expression, context) << ")";
switch(statement.storage) {
case basic_generated_always::storage_type::not_specified:
//..
break;
case basic_generated_always::storage_type::virtual_:
ss << " VIRTUAL";
break;
case basic_generated_always::storage_type::stored:
ss << " STORED";
break;
}
return ss.str();
}
};
#endif
template<class G, class S, class... Op>
struct statement_serializer<column_t<G, S, Op...>, void> {
using statement_type = column_t<G, S, Op...>;
template<class Ctx>
std::string operator()(const statement_type& column, const Ctx& context) const {
using column_type = statement_type;
std::stringstream ss;
ss << streaming_identifier(column.name) << " " << type_printer<field_type_t<column_type>>().print()
<< " "
<< streaming_column_constraints(
call_as_template_base<column_constraints>(polyfill::identity{})(column),
column.is_not_null(),
context);
return ss.str();
}
};
template<class T, class... Args>
struct statement_serializer<remove_all_t<T, Args...>, void> {
using statement_type = remove_all_t<T, Args...>;
template<class Ctx>
std::string operator()(const statement_type& rem, const Ctx& context) const {
auto& table = pick_table<T>(context.db_objects);
std::stringstream ss;
ss << "DELETE FROM " << streaming_identifier(table.name)
<< streaming_conditions_tuple(rem.conditions, context);
return ss.str();
}
};
template<class T>
struct statement_serializer<replace_t<T>, void> {
using statement_type = replace_t<T>;
template<class Ctx>
std::string operator()(const statement_type& statement, const Ctx& context) const {
using expression_type = std::decay_t<decltype(statement)>;
using object_type = typename expression_object_type<expression_type>::type;
auto& table = pick_table<object_type>(context.db_objects);
std::stringstream ss;
ss << "REPLACE INTO " << streaming_identifier(table.name) << " ("
<< streaming_non_generated_column_names(table) << ")"
<< " VALUES ("
<< streaming_field_values_excluding(check_if<is_generated_always>{},
empty_callable<std::false_type>(), // don't exclude
context,
get_ref(statement.object))
<< ")";
return ss.str();
}
};
template<class T, class... Cols>
struct statement_serializer<insert_explicit<T, Cols...>, void> {
using statement_type = insert_explicit<T, Cols...>;
template<class Ctx>
std::string operator()(const statement_type& ins, const Ctx& context) const {
constexpr size_t colsCount = std::tuple_size<std::tuple<Cols...>>::value;
static_assert(colsCount > 0, "Use insert or replace with 1 argument instead");
using expression_type = std::decay_t<decltype(ins)>;
using object_type = typename expression_object_type<expression_type>::type;
auto& table = pick_table<object_type>(context.db_objects);
std::stringstream ss;
ss << "INSERT INTO " << streaming_identifier(table.name) << " ";
ss << "(" << streaming_mapped_columns_expressions(ins.columns.columns, context) << ") "
<< "VALUES (";
iterate_tuple(ins.columns.columns,
[&ss, &context, &object = get_ref(ins.obj), first = true](auto& memberPointer) mutable {
using member_pointer_type = std::decay_t<decltype(memberPointer)>;
static_assert(!is_setter_v<member_pointer_type>,
"Unable to use setter within insert explicit");
constexpr std::array<const char*, 2> sep = {", ", ""};
ss << sep[std::exchange(first, false)]
<< serialize(polyfill::invoke(memberPointer, object), context);
});
ss << ")";
return ss.str();
}
};
template<class T>
struct statement_serializer<update_t<T>, void> {
using statement_type = update_t<T>;
template<class Ctx>
std::string operator()(const statement_type& statement, const Ctx& context) const {
using expression_type = std::decay_t<decltype(statement)>;
using object_type = typename expression_object_type<expression_type>::type;
auto& table = pick_table<object_type>(context.db_objects);
std::stringstream ss;
ss << "UPDATE " << streaming_identifier(table.name) << " SET ";
table.template for_each_column_excluding<mpl::disjunction_fn<is_primary_key, is_generated_always>>(
[&table, &ss, &context, &object = get_ref(statement.object), first = true](auto& column) mutable {
if(table.exists_in_composite_primary_key(column)) {
return;
}
constexpr std::array<const char*, 2> sep = {", ", ""};
ss << sep[std::exchange(first, false)] << streaming_identifier(column.name) << " = "
<< serialize(polyfill::invoke(column.member_pointer, object), context);
});
ss << " WHERE ";
table.for_each_column(
[&table, &context, &ss, &object = get_ref(statement.object), first = true](auto& column) mutable {
if(!column.template is<is_primary_key>() && !table.exists_in_composite_primary_key(column)) {
return;
}
constexpr std::array<const char*, 2> sep = {" AND ", ""};
ss << sep[std::exchange(first, false)] << streaming_identifier(column.name) << " = "
<< serialize(polyfill::invoke(column.member_pointer, object), context);
});
return ss.str();
}
};
template<class C>
struct statement_serializer<dynamic_set_t<C>, void> {
using statement_type = dynamic_set_t<C>;
template<class Ctx>
std::string operator()(const statement_type& statement, const Ctx&) const {
std::stringstream ss;
ss << "SET ";
int index = 0;
for(const dynamic_set_entry& entry: statement) {
if(index > 0) {
ss << ", ";
}
ss << entry.serialized_value;
++index;
}
return ss.str();
}
};
template<class... Args>
struct statement_serializer<set_t<Args...>, void> {
using statement_type = set_t<Args...>;
template<class Ctx>
std::string operator()(const statement_type& statement, const Ctx& context) const {
std::stringstream ss;
ss << "SET ";
auto leftContext = context;
leftContext.skip_table_name = true;
iterate_tuple(statement.assigns, [&ss, &context, &leftContext, first = true](auto& value) mutable {
constexpr std::array<const char*, 2> sep = {", ", ""};
ss << sep[std::exchange(first, false)] << serialize(value.lhs, leftContext) << ' '
<< value.serialize() << ' ' << serialize(value.rhs, context);
});
return ss.str();
}
};
template<class Ctx, class... Args>
std::set<std::pair<std::string, std::string>> collect_table_names(const set_t<Args...>& set, const Ctx& ctx) {
auto collector = make_table_name_collector(ctx.db_objects);
iterate_ast(set, collector);
return std::move(collector.table_names);
}
template<class Ctx, class C>
const std::set<std::pair<std::string, std::string>>& collect_table_names(const dynamic_set_t<C>& set,
const Ctx&) {
return set.collector.table_names;
}
template<class Ctx, class T, satisfies<is_select, T> = true>
std::set<std::pair<std::string, std::string>> collect_table_names(const T& sel, const Ctx& ctx) {
auto collector = make_table_name_collector(ctx.db_objects);
iterate_ast(sel.col, collector);
iterate_ast(sel.conditions, collector);
return std::move(collector.table_names);
}
template<class Ctx, class T, satisfies<is_table, T> = true>
std::set<std::pair<std::string, std::string>> collect_table_names(const T& table, const Ctx&) {
return {{table.name, ""}};
}
template<class S, class... Wargs>
struct statement_serializer<update_all_t<S, Wargs...>, void> {
using statement_type = update_all_t<S, Wargs...>;
template<class Ctx>
std::string operator()(const statement_type& statement, const Ctx& context) const {
const auto& tableNames = collect_table_names(statement.set, context);
if(tableNames.empty()) {
throw std::system_error{orm_error_code::no_tables_specified};
}
const std::string& tableName = tableNames.begin()->first;
std::stringstream ss;
ss << "UPDATE " << streaming_identifier(tableName) << ' ' << serialize(statement.set, context)
<< streaming_conditions_tuple(statement.conditions, context);
return ss.str();
}
};
template<class T>
struct statement_serializer<insert_t<T>, void> {
using statement_type = insert_t<T>;
template<class Ctx>
std::string operator()(const statement_type& statement, const Ctx& context) const {
using object_type = typename expression_object_type<statement_type>::type;
auto& table = pick_table<object_type>(context.db_objects);
using is_without_rowid = typename std::decay_t<decltype(table)>::is_without_rowid;
std::vector<std::reference_wrapper<const std::string>> columnNames;
table.template for_each_column_excluding<
mpl::conjunction<mpl::not_<mpl::always<is_without_rowid>>,
mpl::disjunction_fn<is_primary_key, is_generated_always>>>(
[&table, &columnNames](auto& column) {
if(table.exists_in_composite_primary_key(column)) {
return;
}
columnNames.push_back(cref(column.name));
});
const size_t columnNamesCount = columnNames.size();
std::stringstream ss;
ss << "INSERT INTO " << streaming_identifier(table.name) << " ";
if(columnNamesCount) {
ss << "(" << streaming_identifiers(columnNames) << ")";
} else {
ss << "DEFAULT";
}
ss << " VALUES";
if(columnNamesCount) {
ss << " ("
<< streaming_field_values_excluding(
mpl::conjunction<mpl::not_<mpl::always<is_without_rowid>>,
mpl::disjunction_fn<is_primary_key, is_generated_always>>{},
[&table](auto& column) {
return table.exists_in_composite_primary_key(column);
},
context,
get_ref(statement.object))
<< ")";
}
return ss.str();
}
};
template<class T>
struct statement_serializer<into_t<T>, void> {
using statement_type = into_t<T>;
template<class Ctx>
std::string operator()(const statement_type&, const Ctx& context) const {
auto& table = pick_table<T>(context.db_objects);
std::stringstream ss;
ss << "INTO " << streaming_identifier(table.name);
return ss.str();
}
};
template<class... Args>
struct statement_serializer<columns_t<Args...>, void> {
using statement_type = columns_t<Args...>;
template<class Ctx>
std::string operator()(const statement_type& statement, const Ctx& context) const {
std::stringstream ss;
if(context.use_parentheses) {
ss << '(';
}
// note: pass `statement` itself
ss << streaming_serialized(get_column_names(statement, context));
if(context.use_parentheses) {
ss << ')';
}
return ss.str();
}
};
template<class T>
struct statement_serializer<T, std::enable_if_t<polyfill::disjunction_v<is_insert_raw<T>, is_replace_raw<T>>>> {
using statement_type = T;
template<class Ctx>
std::string operator()(const statement_type& statement, const Ctx& context) const {
std::stringstream ss;
if(is_insert_raw_v<T>) {
ss << "INSERT";
} else {
ss << "REPLACE";
}
iterate_tuple(statement.args, [&context, &ss](auto& value) {
using value_type = std::decay_t<decltype(value)>;
ss << ' ';
if(is_columns_v<value_type>) {
auto newContext = context;
newContext.skip_table_name = true;
newContext.use_parentheses = true;
ss << serialize(value, newContext);
} else if(is_values_v<value_type> || is_select_v<value_type>) {
auto newContext = context;
newContext.use_parentheses = false;
ss << serialize(value, newContext);
} else {
ss << serialize(value, context);
}
});
return ss.str();
}
};
template<class T, class... Ids>
struct statement_serializer<remove_t<T, Ids...>, void> {
using statement_type = remove_t<T, Ids...>;
template<class Ctx>
std::string operator()(const statement_type& statement, const Ctx& context) const {
auto& table = pick_table<T>(context.db_objects);
std::stringstream ss;
ss << "DELETE FROM " << streaming_identifier(table.name) << " "
<< "WHERE ";
std::vector<std::string> idsStrings;
idsStrings.reserve(std::tuple_size<typename statement_type::ids_type>::value);
iterate_tuple(statement.ids, [&idsStrings, &context](auto& idValue) {
idsStrings.push_back(serialize(idValue, context));
});
table.for_each_primary_key_column([&table, &ss, &idsStrings, index = 0](auto& memberPointer) mutable {
auto* columnName = table.find_column_name(memberPointer);
if(!columnName) {
throw std::system_error{orm_error_code::column_not_found};
}
constexpr std::array<const char*, 2> sep = {" AND ", ""};
ss << sep[index == 0] << streaming_identifier(*columnName) << " = " << idsStrings[index];
++index;
});
return ss.str();
}
};
template<class It, class L, class O>
struct statement_serializer<replace_range_t<It, L, O>, void> {
using statement_type = replace_range_t<It, L, O>;
template<class Ctx>
std::string operator()(const statement_type& rep, const Ctx& context) const {
using expression_type = std::decay_t<decltype(rep)>;
using object_type = typename expression_object_type<expression_type>::type;
auto& table = pick_table<object_type>(context.db_objects);
std::stringstream ss;
ss << "REPLACE INTO " << streaming_identifier(table.name) << " ("
<< streaming_non_generated_column_names(table) << ")";
const auto valuesCount = std::distance(rep.range.first, rep.range.second);
const auto columnsCount = table.non_generated_columns_count();
ss << " VALUES " << streaming_values_placeholders(columnsCount, valuesCount);
return ss.str();
}
};
template<class It, class L, class O>
struct statement_serializer<insert_range_t<It, L, O>, void> {
using statement_type = insert_range_t<It, L, O>;
template<class Ctx>
std::string operator()(const statement_type& statement, const Ctx& context) const {
using object_type = typename expression_object_type<statement_type>::type;
auto& table = pick_table<object_type>(context.db_objects);
using is_without_rowid = typename std::decay_t<decltype(table)>::is_without_rowid;
std::vector<std::reference_wrapper<const std::string>> columnNames;
table.template for_each_column_excluding<
mpl::conjunction<mpl::not_<mpl::always<is_without_rowid>>,
mpl::disjunction_fn<is_primary_key, is_generated_always>>>(
[&table, &columnNames](auto& column) {
if(table.exists_in_composite_primary_key(column)) {
return;
}
columnNames.push_back(cref(column.name));
});
const size_t valuesCount = std::distance(statement.range.first, statement.range.second);
const size_t columnNamesCount = columnNames.size();
std::stringstream ss;
ss << "INSERT INTO " << streaming_identifier(table.name) << " ";
if(columnNamesCount) {
ss << "(" << streaming_identifiers(columnNames) << ")";
} else {
ss << "DEFAULT";
}
ss << " VALUES ";
if(columnNamesCount) {
ss << streaming_values_placeholders(columnNamesCount, valuesCount);
} else if(valuesCount != 1) {
throw std::system_error{orm_error_code::cannot_use_default_value};
}
return ss.str();
}
};
template<class T, class Ctx>
std::string serialize_get_all_impl(const T& get, const Ctx& context) {
using primary_type = type_t<T>;
auto& table = pick_table<primary_type>(context.db_objects);
auto tableNames = collect_table_names(table, context);
std::stringstream ss;
ss << "SELECT " << streaming_table_column_names(table, true) << " FROM "
<< streaming_identifiers(tableNames) << streaming_conditions_tuple(get.conditions, context);
return ss.str();
}
#ifdef SQLITE_ORM_OPTIONAL_SUPPORTED
template<class T, class R, class... Args>
struct statement_serializer<get_all_optional_t<T, R, Args...>, void> {
using statement_type = get_all_optional_t<T, R, Args...>;
template<class Ctx>
std::string operator()(const statement_type& get, const Ctx& context) const {
return serialize_get_all_impl(get, context);
}
};
#endif // SQLITE_ORM_OPTIONAL_SUPPORTED
template<class T, class R, class... Args>
struct statement_serializer<get_all_pointer_t<T, R, Args...>, void> {
using statement_type = get_all_pointer_t<T, R, Args...>;
template<class Ctx>
std::string operator()(const statement_type& get, const Ctx& context) const {
return serialize_get_all_impl(get, context);
}
};
template<class T, class R, class... Args>
struct statement_serializer<get_all_t<T, R, Args...>, void> {
using statement_type = get_all_t<T, R, Args...>;
template<class Ctx>
std::string operator()(const statement_type& get, const Ctx& context) const {
return serialize_get_all_impl(get, context);
}
};
template<class T, class Ctx>
std::string serialize_get_impl(const T&, const Ctx& context) {
using primary_type = type_t<T>;
auto& table = pick_table<primary_type>(context.db_objects);
std::stringstream ss;
ss << "SELECT " << streaming_table_column_names(table, false) << " FROM "
<< streaming_identifier(table.name) << " WHERE ";
auto primaryKeyColumnNames = table.primary_key_column_names();
if(primaryKeyColumnNames.empty()) {
throw std::system_error{orm_error_code::table_has_no_primary_key_column};
}
for(size_t i = 0; i < primaryKeyColumnNames.size(); ++i) {
if(i > 0) {
ss << " AND ";
}
ss << streaming_identifier(primaryKeyColumnNames[i]) << " = ?";
}
return ss.str();
}
template<class T, class... Ids>
struct statement_serializer<get_t<T, Ids...>, void> {
using statement_type = get_t<T, Ids...>;
template<class Ctx>
std::string operator()(const statement_type& get, const Ctx& context) const {
return serialize_get_impl(get, context);
}
};
template<class T, class... Ids>
struct statement_serializer<get_pointer_t<T, Ids...>, void> {
using statement_type = get_pointer_t<T, Ids...>;
template<class Ctx>
std::string operator()(const statement_type& statement, const Ctx& context) const {
return serialize_get_impl(statement, context);
}
};
template<>
struct statement_serializer<conflict_action, void> {
using statement_type = conflict_action;
template<class Ctx>
std::string operator()(const statement_type& statement, const Ctx&) const {
switch(statement) {
case conflict_action::replace:
return "REPLACE";
case conflict_action::abort:
return "ABORT";
case conflict_action::fail:
return "FAIL";
case conflict_action::ignore:
return "IGNORE";
case conflict_action::rollback:
return "ROLLBACK";
}
return {};
}
};
template<>
struct statement_serializer<insert_constraint, void> {
using statement_type = insert_constraint;
template<class Ctx>
std::string operator()(const statement_type& statement, const Ctx& context) const {
return "OR " + serialize(statement.action, context);
}
};
#ifdef SQLITE_ORM_OPTIONAL_SUPPORTED
template<class T, class... Ids>
struct statement_serializer<get_optional_t<T, Ids...>, void> {
using statement_type = get_optional_t<T, Ids...>;
template<class Ctx>
std::string operator()(const statement_type& get, const Ctx& context) const {
return serialize_get_impl(get, context);
}
};
#endif // SQLITE_ORM_OPTIONAL_SUPPORTED
template<class T, class... Args>
struct statement_serializer<select_t<T, Args...>, void> {
using statement_type = select_t<T, Args...>;
template<class Ctx>
std::string operator()(const statement_type& sel, Ctx context) const {
context.skip_table_name = false;
std::stringstream ss;
if(!is_compound_operator_v<T>) {
if(!sel.highest_level && context.use_parentheses) {
ss << "(";
}
ss << "SELECT ";
}
if(get_distinct(sel.col)) {
ss << static_cast<std::string>(distinct(0)) << " ";
}
ss << streaming_serialized(get_column_names(sel.col, context));
using conditions_tuple = typename statement_type::conditions_type;
constexpr bool hasExplicitFrom = tuple_has<is_from, conditions_tuple>::value;
if(!hasExplicitFrom) {
auto tableNames = collect_table_names(sel, context);
using joins_index_sequence = filter_tuple_sequence_t<conditions_tuple, is_constrained_join>;
// deduplicate table names of constrained join statements
iterate_tuple(sel.conditions, joins_index_sequence{}, [&tableNames, &context](auto& join) {
using original_join_type = typename std::decay_t<decltype(join)>::type;
using cross_join_type = mapped_type_proxy_t<original_join_type>;
std::pair<const std::string&, std::string> tableNameWithAlias{
lookup_table_name<cross_join_type>(context.db_objects),
alias_extractor<original_join_type>::as_alias()};
tableNames.erase(tableNameWithAlias);
});
if(!tableNames.empty() && !is_compound_operator_v<T>) {
ss << " FROM " << streaming_identifiers(tableNames);
}
}
ss << streaming_conditions_tuple(sel.conditions, context);
if(!is_compound_operator_v<T>) {
if(!sel.highest_level && context.use_parentheses) {
ss << ")";
}
}
return ss.str();
}
};
template<class T>
struct statement_serializer<indexed_column_t<T>, void> {
using statement_type = indexed_column_t<T>;
template<class Ctx>
std::string operator()(const statement_type& statement, const Ctx& context) const {
std::stringstream ss;
ss << serialize(statement.column_or_expression, context);
if(!statement._collation_name.empty()) {
ss << " COLLATE " << statement._collation_name;
}
if(statement._order) {
switch(statement._order) {
case -1:
ss << " DESC";
break;
case 1:
ss << " ASC";
break;
default:
throw std::system_error{orm_error_code::incorrect_order};
}
}
return ss.str();
}
};
template<class T, class... Cols>
struct statement_serializer<index_t<T, Cols...>, void> {
using statement_type = index_t<T, Cols...>;
template<class Ctx>
std::string operator()(const statement_type& statement, const Ctx& context) const {
std::stringstream ss;
ss << "CREATE ";
if(statement.unique) {
ss << "UNIQUE ";
}
using indexed_type = typename std::decay_t<decltype(statement)>::table_mapped_type;
ss << "INDEX IF NOT EXISTS " << streaming_identifier(statement.name) << " ON "
<< streaming_identifier(lookup_table_name<indexed_type>(context.db_objects));
std::vector<std::string> columnNames;
std::string whereString;
iterate_tuple(statement.elements, [&columnNames, &context, &whereString](auto& value) {
using value_type = std::decay_t<decltype(value)>;
if(!is_where_v<value_type>) {
auto newContext = context;
newContext.use_parentheses = false;
auto whereString = serialize(value, newContext);
columnNames.push_back(std::move(whereString));
} else {
auto columnName = serialize(value, context);
whereString = std::move(columnName);
}
});
ss << " (" << streaming_serialized(columnNames) << ")";
if(!whereString.empty()) {
ss << ' ' << whereString;
}
return ss.str();
}
};
template<class... Args>
struct statement_serializer<from_t<Args...>, void> {
using statement_type = from_t<Args...>;
template<class Ctx>
std::string operator()(const statement_type&, const Ctx& context) const {
using tuple = std::tuple<Args...>;
std::stringstream ss;
ss << "FROM ";
iterate_tuple<tuple>([&context, &ss, first = true](auto* item) mutable {
using from_type = std::remove_pointer_t<decltype(item)>;
constexpr std::array<const char*, 2> sep = {", ", ""};
ss << sep[std::exchange(first, false)]
<< streaming_identifier(lookup_table_name<mapped_type_proxy_t<from_type>>(context.db_objects),
alias_extractor<from_type>::as_alias());
});
return ss.str();
}
};
template<class T>
struct statement_serializer<old_t<T>, void> {
using statement_type = old_t<T>;
template<class Ctx>
std::string operator()(const statement_type& statement, const Ctx& context) const {
std::stringstream ss;
ss << "OLD.";
auto newContext = context;
newContext.skip_table_name = true;
ss << serialize(statement.expression, newContext);
return ss.str();
}
};
template<class T>
struct statement_serializer<new_t<T>, void> {
using statement_type = new_t<T>;
template<class Ctx>
std::string operator()(const statement_type& statement, const Ctx& context) const {
std::stringstream ss;
ss << "NEW.";
auto newContext = context;
newContext.skip_table_name = true;
ss << serialize(statement.expression, newContext);
return ss.str();
}
};
template<>
struct statement_serializer<raise_t, void> {
using statement_type = raise_t;
template<class Ctx>
std::string operator()(const statement_type& statement, const Ctx& context) const {
switch(statement.type) {
case raise_t::type_t::ignore:
return "RAISE(IGNORE)";
case raise_t::type_t::rollback:
return "RAISE(ROLLBACK, " + serialize(statement.message, context) + ")";
case raise_t::type_t::abort:
return "RAISE(ABORT, " + serialize(statement.message, context) + ")";
case raise_t::type_t::fail:
return "RAISE(FAIL, " + serialize(statement.message, context) + ")";
}
return {};
}
};
template<>
struct statement_serializer<trigger_timing, void> {
using statement_type = trigger_timing;
template<class Ctx>
std::string operator()(const statement_type& statement, const Ctx&) const {
switch(statement) {
case trigger_timing::trigger_before:
return "BEFORE";
case trigger_timing::trigger_after:
return "AFTER";
case trigger_timing::trigger_instead_of:
return "INSTEAD OF";
}
return {};
}
};
template<>
struct statement_serializer<trigger_type, void> {
using statement_type = trigger_type;
template<class Ctx>
std::string operator()(const statement_type& statement, const Ctx&) const {
switch(statement) {
case trigger_type::trigger_delete:
return "DELETE";
case trigger_type::trigger_insert:
return "INSERT";
case trigger_type::trigger_update:
return "UPDATE";
}
return {};
}
};
template<>
struct statement_serializer<trigger_type_base_t, void> {
using statement_type = trigger_type_base_t;
template<class Ctx>
std::string operator()(const statement_type& statement, const Ctx& context) const {
std::stringstream ss;
ss << serialize(statement.timing, context) << " " << serialize(statement.type, context);
return ss.str();
}
};
template<class... Cs>
struct statement_serializer<trigger_update_type_t<Cs...>, void> {
using statement_type = trigger_update_type_t<Cs...>;
template<class Ctx>
std::string operator()(const statement_type& statement, const Ctx& context) const {
std::stringstream ss;
ss << serialize(statement.timing, context) << " UPDATE OF "
<< streaming_mapped_columns_expressions(statement.columns, context);
return ss.str();
}
};
template<class T, class W, class Trigger>
struct statement_serializer<trigger_base_t<T, W, Trigger>, void> {
using statement_type = trigger_base_t<T, W, Trigger>;
template<class Ctx>
std::string operator()(const statement_type& statement, const Ctx& context) const {
std::stringstream ss;
ss << serialize(statement.type_base, context);
ss << " ON " << streaming_identifier(lookup_table_name<T>(context.db_objects));
if(statement.do_for_each_row) {
ss << " FOR EACH ROW";
}
statement.container_when.apply([&ss, &context](auto& value) {
ss << " WHEN " << serialize(value, context);
});
return ss.str();
}
};
template<class... S>
struct statement_serializer<trigger_t<S...>, void> {
using statement_type = trigger_t<S...>;
template<class Ctx>
std::string operator()(const statement_type& statement, const Ctx& context) const {
std::stringstream ss;
ss << "CREATE ";
ss << "TRIGGER IF NOT EXISTS " << streaming_identifier(statement.name) << " "
<< serialize(statement.base, context);
ss << " BEGIN ";
iterate_tuple(statement.elements, [&ss, &context](auto& element) {
using element_type = std::decay_t<decltype(element)>;
if(is_select_v<element_type>) {
auto newContext = context;
newContext.use_parentheses = false;
ss << serialize(element, newContext);
} else {
ss << serialize(element, context);
}
ss << ";";
});
ss << " END";
return ss.str();
}
};
template<class T>
struct statement_serializer<where_t<T>, void> {
using statement_type = where_t<T>;
template<class Ctx>
std::string operator()(const statement_type& statement, const Ctx& context) const {
std::stringstream ss;
ss << statement.serialize() << " ";
auto whereString = serialize(statement.expression, context);
ss << '(' << whereString << ')';
return ss.str();
}
};
template<class O>
struct statement_serializer<order_by_t<O>, void> {
using statement_type = order_by_t<O>;
template<class Ctx>
std::string operator()(const statement_type& orderBy, const Ctx& context) const {
std::stringstream ss;
ss << static_cast<std::string>(orderBy) << " ";
ss << serialize_order_by(orderBy, context);
return ss.str();
}
};
template<class C>
struct statement_serializer<dynamic_order_by_t<C>, void> {
using statement_type = dynamic_order_by_t<C>;
template<class Ctx>
std::string operator()(const statement_type& orderBy, const Ctx& context) const {
return serialize_order_by(orderBy, context);
}
};
template<class... Args>
struct statement_serializer<multi_order_by_t<Args...>, void> {
using statement_type = multi_order_by_t<Args...>;
template<class Ctx>
std::string operator()(const statement_type& orderBy, const Ctx& context) const {
std::stringstream ss;
ss << static_cast<std::string>(orderBy) << " " << streaming_expressions_tuple(orderBy.args, context);
return ss.str();
}
};
template<class Join>
struct statement_serializer<
Join,
std::enable_if_t<polyfill::disjunction_v<polyfill::is_specialization_of<Join, cross_join_t>,
polyfill::is_specialization_of<Join, natural_join_t>>>> {
using statement_type = Join;
template<class Ctx>
std::string operator()(const statement_type& join, const Ctx& context) const {
std::stringstream ss;
ss << static_cast<std::string>(join) << " "
<< streaming_identifier(lookup_table_name<type_t<Join>>(context.db_objects));
return ss.str();
}
};
template<class Join>
struct statement_serializer<Join, match_if<is_constrained_join, Join>> {
using statement_type = Join;
template<class Ctx>
std::string operator()(const statement_type& join, const Ctx& context) const {
std::stringstream ss;
ss << static_cast<std::string>(join) << " "
<< streaming_identifier(lookup_table_name<mapped_type_proxy_t<type_t<Join>>>(context.db_objects),
alias_extractor<type_t<Join>>::as_alias())
<< " " << serialize(join.constraint, context);
return ss.str();
}
};
template<class T>
struct statement_serializer<on_t<T>, void> {
using statement_type = on_t<T>;
template<class Ctx>
std::string operator()(const statement_type& on, const Ctx& context) const {
std::stringstream ss;
auto newContext = context;
newContext.skip_table_name = false;
ss << static_cast<std::string>(on) << " " << serialize(on.arg, newContext) << " ";
return ss.str();
}
};
template<class T, class... Args>
struct statement_serializer<group_by_with_having<T, Args...>, void> {
using statement_type = group_by_with_having<T, Args...>;
template<class Ctx>
std::string operator()(const statement_type& statement, const Ctx& context) const {
std::stringstream ss;
auto newContext = context;
newContext.skip_table_name = false;
ss << "GROUP BY " << streaming_expressions_tuple(statement.args, newContext) << " HAVING "
<< serialize(statement.expression, context);
return ss.str();
}
};
template<class... Args>
struct statement_serializer<group_by_t<Args...>, void> {
using statement_type = group_by_t<Args...>;
template<class Ctx>
std::string operator()(const statement_type& statement, const Ctx& context) const {
std::stringstream ss;
auto newContext = context;
newContext.skip_table_name = false;
ss << "GROUP BY " << streaming_expressions_tuple(statement.args, newContext);
return ss.str();
}
};
template<class T>
struct statement_serializer<having_t<T>, void> {
using statement_type = having_t<T>;
template<class Ctx>
std::string operator()(const statement_type& statement, const Ctx& context) const {
std::stringstream ss;
auto newContext = context;
newContext.skip_table_name = false;
ss << "HAVING " << serialize(statement.expression, newContext);
return ss.str();
}
};
/**
* HO - has offset
* OI - offset is implicit
*/
template<class T, bool HO, bool OI, class O>
struct statement_serializer<limit_t<T, HO, OI, O>, void> {
using statement_type = limit_t<T, HO, OI, O>;
template<class Ctx>
std::string operator()(const statement_type& limt, const Ctx& context) const {
auto newContext = context;
newContext.skip_table_name = false;
std::stringstream ss;
ss << static_cast<std::string>(limt) << " ";
if(HO) {
if(OI) {
limt.off.apply([&newContext, &ss](auto& value) {
ss << serialize(value, newContext);
});
ss << ", ";
ss << serialize(limt.lim, newContext);
} else {
ss << serialize(limt.lim, newContext) << " OFFSET ";
limt.off.apply([&newContext, &ss](auto& value) {
ss << serialize(value, newContext);
});
}
} else {
ss << serialize(limt.lim, newContext);
}
return ss.str();
}
};
template<>
struct statement_serializer<default_values_t, void> {
using statement_type = default_values_t;
template<class Ctx>
std::string operator()(const statement_type&, const Ctx&) const {
return "DEFAULT VALUES";
}
};
template<class T, class M>
struct statement_serializer<using_t<T, M>, void> {
using statement_type = using_t<T, M>;
template<class Ctx>
std::string operator()(const statement_type& statement, const Ctx& context) const {
auto newContext = context;
newContext.skip_table_name = true;
return static_cast<std::string>(statement) + " (" + serialize(statement.column, newContext) + ")";
}
};
template<class... Args>
struct statement_serializer<std::tuple<Args...>, void> {
using statement_type = std::tuple<Args...>;
template<class Ctx>
std::string operator()(const statement_type& statement, const Ctx& context) const {
std::stringstream ss;
if(context.use_parentheses) {
ss << '(';
}
ss << streaming_expressions_tuple(statement, context);
if(context.use_parentheses) {
ss << ')';
}
return ss.str();
}
};
template<class... Args>
struct statement_serializer<values_t<Args...>, void> {
using statement_type = values_t<Args...>;
template<class Ctx>
std::string operator()(const statement_type& statement, const Ctx& context) const {
std::stringstream ss;
if(context.use_parentheses) {
ss << '(';
}
ss << "VALUES ";
{
Ctx tupleContext = context;
tupleContext.use_parentheses = true;
ss << streaming_expressions_tuple(statement.tuple, tupleContext);
}
if(context.use_parentheses) {
ss << ')';
}
return ss.str();
}
};
template<class T>
struct statement_serializer<dynamic_values_t<T>, void> {
using statement_type = dynamic_values_t<T>;
template<class Ctx>
std::string operator()(const statement_type& statement, const Ctx& context) const {
std::stringstream ss;
if(context.use_parentheses) {
ss << '(';
}
ss << "VALUES " << streaming_dynamic_expressions(statement.vector, context);
if(context.use_parentheses) {
ss << ')';
}
return ss.str();
}
};
}
}
// #include "triggers.h"
// #include "object_from_column_builder.h"
// #include "table.h"
// #include "column.h"
// #include "index.h"
// #include "util.h"
// #include "serializing_util.h"
namespace sqlite_orm {
namespace internal {
template<class S, class E, class SFINAE = void>
SQLITE_ORM_INLINE_VAR constexpr bool is_preparable_v = false;
template<class S, class E>
SQLITE_ORM_INLINE_VAR constexpr bool
is_preparable_v<S, E, polyfill::void_t<decltype(std::declval<S>().prepare(std::declval<E>()))>> = true;
/**
* Storage class itself. Create an instanse to use it as an interfacto to sqlite db by calling `make_storage`
* function.
*/
template<class... DBO>
struct storage_t : storage_base {
using self = storage_t<DBO...>;
using db_objects_type = db_objects_tuple<DBO...>;
/**
* @param filename database filename.
* @param dbObjects db_objects_tuple
*/
storage_t(std::string filename, db_objects_type dbObjects) :
storage_base{std::move(filename), foreign_keys_count(dbObjects)}, db_objects{std::move(dbObjects)} {}
private:
db_objects_type db_objects;
/**
* Obtain a storage_t's const db_objects_tuple.
*
* @note Historically, `serializer_context_builder` was declared friend, along with
* a few other library stock objects, in order to limit access to the db_objects_tuple.
* However, one could gain access to a storage_t's db_objects_tuple through
* `serializer_context_builder`, hence leading the whole friend declaration mambo-jumbo
* ad absurdum.
* Providing a free function is way better and cleaner.
*
* Hence, friend was replaced by `obtain_db_objects()` and `pick_const_impl()`.
*/
friend const db_objects_type& obtain_db_objects(const self& storage) noexcept {
return storage.db_objects;
}
template<class Table>
void create_table(sqlite3* db, const std::string& tableName, const Table& table) {
using table_type = std::decay_t<decltype(table)>;
using context_t = serializer_context<db_objects_type>;
std::stringstream ss;
context_t context{this->db_objects};
ss << "CREATE TABLE " << streaming_identifier(tableName) << " ( "
<< streaming_expressions_tuple(table.elements, context) << ")";
if(table_type::is_without_rowid_v) {
ss << " WITHOUT ROWID";
}
ss.flush();
perform_void_exec(db, ss.str());
}
/**
* Copies sourceTableName to another table with name: destinationTableName
* Performs INSERT INTO %destinationTableName% () SELECT %table.column_names% FROM %sourceTableName%
*/
template<class Table>
void copy_table(sqlite3* db,
const std::string& sourceTableName,
const std::string& destinationTableName,
const Table& table,
const std::vector<const table_xinfo*>& columnsToIgnore) const;
#if SQLITE_VERSION_NUMBER >= 3035000 // DROP COLUMN feature exists (v3.35.0)
void drop_column(sqlite3* db, const std::string& tableName, const std::string& columnName) {
std::stringstream ss;
ss << "ALTER TABLE " << streaming_identifier(tableName) << " DROP COLUMN "
<< streaming_identifier(columnName) << std::flush;
perform_void_exec(db, ss.str());
}
#endif
template<class Table>
void drop_create_with_loss(sqlite3* db, const Table& table) {
// eliminated all transaction handling
this->drop_table_internal(db, table.name);
this->create_table(db, table.name, table);
}
template<class Table>
void backup_table(sqlite3* db, const Table& table, const std::vector<const table_xinfo*>& columnsToIgnore) {
// here we copy source table to another with a name with '_backup' suffix, but in case table with such
// a name already exists we append suffix 1, then 2, etc until we find a free name..
auto backupTableName = table.name + "_backup";
if(this->table_exists(db, backupTableName)) {
int suffix = 1;
do {
std::stringstream ss;
ss << suffix << std::flush;
auto anotherBackupTableName = backupTableName + ss.str();
if(!this->table_exists(db, anotherBackupTableName)) {
backupTableName = std::move(anotherBackupTableName);
break;
}
++suffix;
} while(true);
}
this->create_table(db, backupTableName, table);
this->copy_table(db, table.name, backupTableName, table, columnsToIgnore);
this->drop_table_internal(db, table.name);
this->rename_table(db, backupTableName, table.name);
}
template<class O>
void assert_mapped_type() const {
using mapped_types_tuple = std::tuple<typename DBO::object_type...>;
static_assert(mpl::invoke_t<check_if_tuple_has_type<O>, mapped_types_tuple>::value,
"type is not mapped to a storage");
}
template<class O,
class Table = storage_pick_table_t<O, db_objects_type>,
std::enable_if_t<Table::is_without_rowid_v, bool> = true>
void assert_insertable_type() const {}
template<class O,
class Table = storage_pick_table_t<O, db_objects_type>,
std::enable_if_t<!Table::is_without_rowid_v, bool> = true>
void assert_insertable_type() const {
using elements_type = elements_type_t<Table>;
using pkcol_index_sequence = col_index_sequence_with<elements_type, is_primary_key>;
static_assert(
count_filtered_tuple<elements_type, is_primary_key_insertable, pkcol_index_sequence>::value <= 1,
"Attempting to execute 'insert' request into an noninsertable table was detected. "
"Insertable table cannot contain > 1 primary keys. Please use 'replace' instead of "
"'insert', or you can use 'insert' with explicit column listing.");
static_assert(count_filtered_tuple<elements_type,
check_if_not<is_primary_key_insertable>::template fn,
pkcol_index_sequence>::value == 0,
"Attempting to execute 'insert' request into an noninsertable table was detected. "
"Insertable table cannot contain non-standard primary keys. Please use 'replace' instead "
"of 'insert', or you can use 'insert' with explicit column listing.");
}
template<class O>
auto& get_table() const {
return pick_table<O>(this->db_objects);
}
template<class O>
auto& get_table() {
return pick_table<O>(this->db_objects);
}
public:
template<class T, class... Args>
view_t<T, self, Args...> iterate(Args&&... args) {
this->assert_mapped_type<T>();
auto con = this->get_connection();
return {*this, std::move(con), std::forward<Args>(args)...};
}
/**
* Delete from routine.
* O is an object's type. Must be specified explicitly.
* @param args optional conditions: `where`, `join` etc
* @example: storage.remove_all<User>(); - DELETE FROM users
* @example: storage.remove_all<User>(where(in(&User::id, {5, 6, 7}))); - DELETE FROM users WHERE id IN (5, 6, 7)
*/
template<class O, class... Args>
void remove_all(Args&&... args) {
this->assert_mapped_type<O>();
auto statement = this->prepare(sqlite_orm::remove_all<O>(std::forward<Args>(args)...));
this->execute(statement);
}
/**
* Delete routine.
* O is an object's type. Must be specified explicitly.
* @param ids ids of object to be removed.
*/
template<class O, class... Ids>
void remove(Ids... ids) {
this->assert_mapped_type<O>();
auto statement = this->prepare(sqlite_orm::remove<O>(std::forward<Ids>(ids)...));
this->execute(statement);
}
/**
* Update routine. Sets all non primary key fields where primary key is equal.
* O is an object type. May be not specified explicitly cause it can be deduced by
* compiler from first parameter.
* @param o object to be updated.
*/
template<class O>
void update(const O& o) {
this->assert_mapped_type<O>();
auto statement = this->prepare(sqlite_orm::update(std::ref(o)));
this->execute(statement);
}
template<class S, class... Wargs>
void update_all(S set, Wargs... wh) {
static_assert(internal::is_set<S>::value,
"first argument in update_all can be either set or dynamic_set");
auto statement = this->prepare(sqlite_orm::update_all(std::move(set), std::forward<Wargs>(wh)...));
this->execute(statement);
}
protected:
template<class F, class O, class... Args>
std::string group_concat_internal(F O::*m, std::unique_ptr<std::string> y, Args&&... args) {
this->assert_mapped_type<O>();
std::vector<std::string> rows;
if(y) {
rows = this->select(sqlite_orm::group_concat(m, std::move(*y)), std::forward<Args>(args)...);
} else {
rows = this->select(sqlite_orm::group_concat(m), std::forward<Args>(args)...);
}
if(!rows.empty()) {
return std::move(rows.front());
} else {
return {};
}
}
public:
/**
* SELECT * routine.
* O is an object type to be extracted. Must be specified explicitly.
* @return All objects of type O stored in database at the moment in `std::vector`.
* @note If you need to return the result in a different container type then use a different `get_all` function overload `get_all<User, std::list<User>>`
* @example: storage.get_all<User>() - SELECT * FROM users
* @example: storage.get_all<User>(where(like(&User::name, "N%")), order_by(&User::id)); - SELECT * FROM users WHERE name LIKE 'N%' ORDER BY id
*/
template<class O, class... Args>
auto get_all(Args&&... args) {
this->assert_mapped_type<O>();
auto statement = this->prepare(sqlite_orm::get_all<O>(std::forward<Args>(args)...));
return this->execute(statement);
}
/**
* SELECT * routine.
* O is an object type to be extracted. Must be specified explicitly.
* R is an explicit return type. This type must have `push_back(O &&)` function.
* @return All objects of type O stored in database at the moment in `R`.
* @example: storage.get_all<User, std::list<User>>(); - SELECT * FROM users
* @example: storage.get_all<User, std::list<User>>(where(like(&User::name, "N%")), order_by(&User::id)); - SELECT * FROM users WHERE name LIKE 'N%' ORDER BY id
*/
template<class O, class R, class... Args>
auto get_all(Args&&... args) {
this->assert_mapped_type<O>();
auto statement = this->prepare(sqlite_orm::get_all<O, R>(std::forward<Args>(args)...));
return this->execute(statement);
}
/**
* SELECT * routine.
* O is an object type to be extracted. Must be specified explicitly.
* @return All objects of type O as `std::unique_ptr<O>` inside a `std::vector` stored in database at the moment.
* @note If you need to return the result in a different container type then use a different `get_all_pointer` function overload `get_all_pointer<User, std::list<User>>`
* @example: storage.get_all_pointer<User>(); - SELECT * FROM users
* @example: storage.get_all_pointer<User>(where(length(&User::name) > 6)); - SELECT * FROM users WHERE LENGTH(name) > 6
*/
template<class O, class... Args>
auto get_all_pointer(Args&&... args) {
this->assert_mapped_type<O>();
auto statement = this->prepare(sqlite_orm::get_all_pointer<O>(std::forward<Args>(args)...));
return this->execute(statement);
}
/**
* SELECT * routine.
* O is an object type to be extracted. Must be specified explicitly.
* R is a container type. std::vector<std::unique_ptr<O>> is default
* @return All objects of type O as std::unique_ptr<O> stored in database at the moment.
* @example: storage.get_all_pointer<User, std::list<User>>(); - SELECT * FROM users
* @example: storage.get_all_pointer<User, std::list<User>>(where(length(&User::name) > 6)); - SELECT * FROM users WHERE LENGTH(name) > 6
*/
template<class O, class R, class... Args>
auto get_all_pointer(Args&&... args) {
this->assert_mapped_type<O>();
auto statement = this->prepare(sqlite_orm::get_all_pointer<O, R>(std::forward<Args>(args)...));
return this->execute(statement);
}
/**
* Select * by id routine.
* throws std::system_error{orm_error_code::not_found} if object not found with given
* id. throws std::system_error with orm_error_category in case of db error. O is an object type to be
* extracted. Must be specified explicitly.
* @return Object of type O where id is equal parameter passed or throws
* `std::system_error{orm_error_code::not_found}` if there is no object with such id.
*/
template<class O, class... Ids>
O get(Ids... ids) {
this->assert_mapped_type<O>();
auto statement = this->prepare(sqlite_orm::get<O>(std::forward<Ids>(ids)...));
return this->execute(statement);
}
/**
* The same as `get` function but doesn't throw an exception if noting found but returns std::unique_ptr
* with null value. throws std::system_error in case of db error.
*/
template<class O, class... Ids>
std::unique_ptr<O> get_pointer(Ids... ids) {
this->assert_mapped_type<O>();
auto statement = this->prepare(sqlite_orm::get_pointer<O>(std::forward<Ids>(ids)...));
return this->execute(statement);
}
/**
* A previous version of get_pointer() that returns a shared_ptr
* instead of a unique_ptr. New code should prefer get_pointer()
* unless the data needs to be shared.
*
* @note
* Most scenarios don't need shared ownership of data, so we should prefer
* unique_ptr when possible. It's more efficient, doesn't require atomic
* ops for a reference count (which can cause major slowdowns on
* weakly-ordered platforms like ARM), and can be easily promoted to a
* shared_ptr, exactly like we're doing here.
* (Conversely, you _can't_ go from shared back to unique.)
*/
template<class O, class... Ids>
std::shared_ptr<O> get_no_throw(Ids... ids) {
return std::shared_ptr<O>(this->get_pointer<O>(std::forward<Ids>(ids)...));
}
#ifdef SQLITE_ORM_OPTIONAL_SUPPORTED
/**
* The same as `get` function but doesn't throw an exception if noting found but
* returns an empty std::optional. throws std::system_error in case of db error.
*/
template<class O, class... Ids>
std::optional<O> get_optional(Ids... ids) {
this->assert_mapped_type<O>();
auto statement = this->prepare(sqlite_orm::get_optional<O>(std::forward<Ids>(ids)...));
return this->execute(statement);
}
#endif // SQLITE_ORM_OPTIONAL_SUPPORTED
/**
* SELECT COUNT(*) https://www.sqlite.org/lang_aggfunc.html#count
* @return Number of O object in table.
*/
template<class O, class... Args, class R = mapped_type_proxy_t<O>>
int count(Args&&... args) {
this->assert_mapped_type<R>();
auto rows = this->select(sqlite_orm::count<R>(), std::forward<Args>(args)...);
if(!rows.empty()) {
return rows.front();
} else {
return 0;
}
}
/**
* SELECT COUNT(X) https://www.sqlite.org/lang_aggfunc.html#count
* @param m member pointer to class mapped to the storage.
* @return count of `m` values from database.
*/
template<class F, class O, class... Args>
int count(F O::*m, Args&&... args) {
this->assert_mapped_type<O>();
auto rows = this->select(sqlite_orm::count(m), std::forward<Args>(args)...);
if(!rows.empty()) {
return rows.front();
} else {
return 0;
}
}
/**
* AVG(X) query. https://www.sqlite.org/lang_aggfunc.html#avg
* @param m is a class member pointer (the same you passed into make_column).
* @return average value from database.
*/
template<class F, class O, class... Args>
double avg(F O::*m, Args&&... args) {
this->assert_mapped_type<O>();
auto rows = this->select(sqlite_orm::avg(m), std::forward<Args>(args)...);
if(!rows.empty()) {
return rows.front();
} else {
return 0;
}
}
template<class F, class O>
std::string group_concat(F O::*m) {
return this->group_concat_internal(m, {});
}
/**
* GROUP_CONCAT(X) query. https://www.sqlite.org/lang_aggfunc.html#groupconcat
* @param m is a class member pointer (the same you passed into make_column).
* @return group_concat query result.
*/
template<class F,
class O,
class... Args,
class Tuple = std::tuple<Args...>,
std::enable_if_t<std::tuple_size<Tuple>::value >= 1, bool> = true>
std::string group_concat(F O::*m, Args&&... args) {
return this->group_concat_internal(m, {}, std::forward<Args>(args)...);
}
/**
* GROUP_CONCAT(X, Y) query. https://www.sqlite.org/lang_aggfunc.html#groupconcat
* @param m is a class member pointer (the same you passed into make_column).
* @return group_concat query result.
*/
template<class F, class O, class... Args>
std::string group_concat(F O::*m, std::string y, Args&&... args) {
return this->group_concat_internal(m,
std::make_unique<std::string>(std::move(y)),
std::forward<Args>(args)...);
}
template<class F, class O, class... Args>
std::string group_concat(F O::*m, const char* y, Args&&... args) {
std::unique_ptr<std::string> str;
if(y) {
str = std::make_unique<std::string>(y);
} else {
str = std::make_unique<std::string>();
}
return this->group_concat_internal(m, std::move(str), std::forward<Args>(args)...);
}
/**
* MAX(x) query.
* @param m is a class member pointer (the same you passed into make_column).
* @return std::unique_ptr with max value or null if sqlite engine returned null.
*/
template<class F, class O, class... Args, class Ret = column_result_of_t<db_objects_type, F O::*>>
std::unique_ptr<Ret> max(F O::*m, Args&&... args) {
this->assert_mapped_type<O>();
auto rows = this->select(sqlite_orm::max(m), std::forward<Args>(args)...);
if(!rows.empty()) {
return std::move(rows.front());
} else {
return {};
}
}
/**
* MIN(x) query.
* @param m is a class member pointer (the same you passed into make_column).
* @return std::unique_ptr with min value or null if sqlite engine returned null.
*/
template<class F, class O, class... Args, class Ret = column_result_of_t<db_objects_type, F O::*>>
std::unique_ptr<Ret> min(F O::*m, Args&&... args) {
this->assert_mapped_type<O>();
auto rows = this->select(sqlite_orm::min(m), std::forward<Args>(args)...);
if(!rows.empty()) {
return std::move(rows.front());
} else {
return {};
}
}
/**
* SUM(x) query.
* @param m is a class member pointer (the same you passed into make_column).
* @return std::unique_ptr with sum value or null if sqlite engine returned null.
*/
template<class F, class O, class... Args, class Ret = column_result_of_t<db_objects_type, F O::*>>
std::unique_ptr<Ret> sum(F O::*m, Args&&... args) {
this->assert_mapped_type<O>();
std::vector<std::unique_ptr<double>> rows =
this->select(sqlite_orm::sum(m), std::forward<Args>(args)...);
if(!rows.empty()) {
if(rows.front()) {
return std::make_unique<Ret>(std::move(*rows.front()));
} else {
return {};
}
} else {
return {};
}
}
/**
* TOTAL(x) query.
* @param m is a class member pointer (the same you passed into make_column).
* @return total value (the same as SUM but not nullable. More details here
* https://www.sqlite.org/lang_aggfunc.html)
*/
template<class F, class O, class... Args>
double total(F O::*m, Args&&... args) {
this->assert_mapped_type<O>();
auto rows = this->select(sqlite_orm::total(m), std::forward<Args>(args)...);
if(!rows.empty()) {
return std::move(rows.front());
} else {
return {};
}
}
/**
* Select a single column into std::vector<T> or multiple columns into std::vector<std::tuple<...>>.
* For a single column use `auto rows = storage.select(&User::id, where(...));
* For multicolumns use `auto rows = storage.select(columns(&User::id, &User::name), where(...));
*/
template<class T, class... Args, class R = column_result_of_t<db_objects_type, T>>
std::vector<R> select(T m, Args... args) {
static_assert(!is_compound_operator_v<T> || sizeof...(Args) == 0,
"Cannot use args with a compound operator");
auto statement = this->prepare(sqlite_orm::select(std::move(m), std::forward<Args>(args)...));
return this->execute(statement);
}
template<class T, satisfies<is_prepared_statement, T> = true>
std::string dump(const T& preparedStatement, bool parametrized = true) const {
return this->dump(preparedStatement.expression, parametrized);
}
template<class E,
class Ex = polyfill::remove_cvref_t<E>,
std::enable_if_t<!is_prepared_statement_v<Ex> && !is_mapped_v<db_objects_type, Ex>, bool> = true>
std::string dump(E&& expression, bool parametrized = false) const {
static_assert(is_preparable_v<self, Ex>, "Expression must be a high-level statement");
decltype(auto) e2 = static_if<is_select_v<Ex>>(
[](auto expression) -> auto{
expression.highest_level = true;
return expression;
},
[](const auto& expression) -> decltype(auto) {
return (expression);
})(std::forward<E>(expression));
using context_t = serializer_context<db_objects_type>;
context_t context{this->db_objects};
context.replace_bindable_with_question = parametrized;
// just like prepare_impl()
context.skip_table_name = false;
return serialize(e2, context);
}
/**
* Returns a string representation of object of a class mapped to the storage.
* Type of string has json-like style.
*/
template<class O, satisfies<is_mapped, db_objects_type, O> = true>
std::string dump(const O& object) const {
auto& table = this->get_table<O>();
std::stringstream ss;
ss << "{ ";
table.for_each_column([&ss, &object, first = true](auto& column) mutable {
using column_type = std::decay_t<decltype(column)>;
using field_type = typename column_type::field_type;
constexpr std::array<const char*, 2> sep = {", ", ""};
ss << sep[std::exchange(first, false)] << column.name << " : '"
<< field_printer<field_type>{}(polyfill::invoke(column.member_pointer, object)) << "'";
});
ss << " }";
return ss.str();
}
/**
* This is REPLACE (INSERT OR REPLACE) function.
* Also if you need to insert value with knows id you should
* also you this function instead of insert cause inserts ignores
* id and creates own one.
*/
template<class O>
void replace(const O& o) {
this->assert_mapped_type<O>();
auto statement = this->prepare(sqlite_orm::replace(std::ref(o)));
this->execute(statement);
}
template<class It, class Projection = polyfill::identity>
void replace_range(It from, It to, Projection project = {}) {
using O = std::decay_t<decltype(polyfill::invoke(std::declval<Projection>(), *std::declval<It>()))>;
this->assert_mapped_type<O>();
if(from == to) {
return;
}
auto statement =
this->prepare(sqlite_orm::replace_range(std::move(from), std::move(to), std::move(project)));
this->execute(statement);
}
template<class O, class It, class Projection = polyfill::identity>
void replace_range(It from, It to, Projection project = {}) {
this->assert_mapped_type<O>();
if(from == to) {
return;
}
auto statement =
this->prepare(sqlite_orm::replace_range<O>(std::move(from), std::move(to), std::move(project)));
this->execute(statement);
}
template<class O, class... Cols>
int insert(const O& o, columns_t<Cols...> cols) {
static_assert(cols.count > 0, "Use insert or replace with 1 argument instead");
this->assert_mapped_type<O>();
auto statement = this->prepare(sqlite_orm::insert(std::ref(o), std::move(cols)));
return int(this->execute(statement));
}
/**
* Insert routine. Inserts object with all non primary key fields in passed object. Id of passed
* object doesn't matter.
* @return id of just created object.
*/
template<class O>
int insert(const O& o) {
this->assert_mapped_type<O>();
this->assert_insertable_type<O>();
auto statement = this->prepare(sqlite_orm::insert(std::ref(o)));
return int(this->execute(statement));
}
/**
* Raw insert routine. Use this if `insert` with object does not fit you. This insert is designed to be able
* to call any type of `INSERT` query with no limitations.
* @example
* ```sql
* INSERT INTO users (id, name) VALUES(5, 'Little Mix')
* ```
* will be
* ```c++
* storage.insert(into<User>, columns(&User::id, &User::name), values(std::make_tuple(5, "Little Mix")));
* ```
* One more example:
* ```sql
* INSERT INTO singers (name) VALUES ('Sofia Reyes')('Kungs')
* ```
* will be
* ```c++
* storage.insert(into<Singer>(), columns(&Singer::name), values(std::make_tuple("Sofia Reyes"), std::make_tuple("Kungs")));
* ```
* One can use `default_values` to add `DEFAULT VALUES` modifier:
* ```sql
* INSERT INTO users DEFAULT VALUES
* ```
* will be
* ```c++
* storage.insert(into<Singer>(), default_values());
* ```
* Also one can use `INSERT OR ABORT`/`INSERT OR FAIL`/`INSERT OR IGNORE`/`INSERT OR REPLACE`/`INSERT ROLLBACK`:
* ```c++
* storage.insert(or_ignore(), into<Singer>(), columns(&Singer::name), values(std::make_tuple("Sofia Reyes"), std::make_tuple("Kungs")));
* storage.insert(or_rollback(), into<Singer>(), default_values());
* storage.insert(or_abort(), into<User>, columns(&User::id, &User::name), values(std::make_tuple(5, "Little Mix")));
* ```
*/
template<class... Args>
void insert(Args... args) {
auto statement = this->prepare(sqlite_orm::insert(std::forward<Args>(args)...));
this->execute(statement);
}
/**
* Raw replace statement creation routine. Use this if `replace` with object does not fit you. This replace is designed to be able
* to call any type of `REPLACE` query with no limitations. Actually this is the same query as raw insert except `OR...` option existance.
* @example
* ```sql
* REPLACE INTO users (id, name) VALUES(5, 'Little Mix')
* ```
* will be
* ```c++
* storage.prepare(replace(into<User>, columns(&User::id, &User::name), values(std::make_tuple(5, "Little Mix"))));
* ```
* One more example:
* ```sql
* REPLACE INTO singers (name) VALUES ('Sofia Reyes')('Kungs')
* ```
* will be
* ```c++
* storage.prepare(replace(into<Singer>(), columns(&Singer::name), values(std::make_tuple("Sofia Reyes"), std::make_tuple("Kungs"))));
* ```
* One can use `default_values` to add `DEFAULT VALUES` modifier:
* ```sql
* REPLACE INTO users DEFAULT VALUES
* ```
* will be
* ```c++
* storage.prepare(replace(into<Singer>(), default_values()));
* ```
*/
template<class... Args>
void replace(Args... args) {
auto statement = this->prepare(sqlite_orm::replace(std::forward<Args>(args)...));
this->execute(statement);
}
template<class It, class Projection = polyfill::identity>
void insert_range(It from, It to, Projection project = {}) {
using O = std::decay_t<decltype(polyfill::invoke(std::declval<Projection>(), *std::declval<It>()))>;
this->assert_mapped_type<O>();
this->assert_insertable_type<O>();
if(from == to) {
return;
}
auto statement =
this->prepare(sqlite_orm::insert_range(std::move(from), std::move(to), std::move(project)));
this->execute(statement);
}
template<class O, class It, class Projection = polyfill::identity>
void insert_range(It from, It to, Projection project = {}) {
this->assert_mapped_type<O>();
this->assert_insertable_type<O>();
if(from == to) {
return;
}
auto statement =
this->prepare(sqlite_orm::insert_range<O>(std::move(from), std::move(to), std::move(project)));
this->execute(statement);
}
/**
* Change table name inside storage's schema info. This function does not
* affect database
*/
template<class O>
void rename_table(std::string name) {
this->assert_mapped_type<O>();
auto& table = this->get_table<O>();
table.name = std::move(name);
}
using storage_base::rename_table;
/**
* Get table's name stored in storage's schema info. This function does not call
* any SQLite queries
*/
template<class O>
const std::string& tablename() const {
this->assert_mapped_type<O>();
auto& table = this->get_table<O>();
return table.name;
}
template<class F, class O>
[[deprecated("Use the more accurately named function `find_column_name()`")]] const std::string*
column_name(F O::*memberPointer) const {
return internal::find_column_name(this->db_objects, memberPointer);
}
template<class F, class O>
const std::string* find_column_name(F O::*memberPointer) const {
return internal::find_column_name(this->db_objects, memberPointer);
}
protected:
template<class... Cols>
sync_schema_result schema_status(const index_t<Cols...>&, sqlite3*, bool, bool*) {
return sync_schema_result::already_in_sync;
}
template<class T, bool WithoutRowId, class... Cs>
sync_schema_result schema_status(const table_t<T, WithoutRowId, Cs...>& table,
sqlite3* db,
bool preserve,
bool* attempt_to_preserve) {
if(attempt_to_preserve) {
*attempt_to_preserve = true;
}
auto dbTableInfo = this->pragma.table_xinfo(table.name);
auto res = sync_schema_result::already_in_sync;
// first let's see if table with such name exists..
auto gottaCreateTable = !this->table_exists(db, table.name);
if(!gottaCreateTable) {
// get table info provided in `make_table` call..
auto storageTableInfo = table.get_table_info();
// this vector will contain pointers to columns that gotta be added..
std::vector<const table_xinfo*> columnsToAdd;
if(calculate_remove_add_columns(columnsToAdd, storageTableInfo, dbTableInfo)) {
gottaCreateTable = true;
}
if(!gottaCreateTable) { // if all storage columns are equal to actual db columns but there are
// excess columns at the db..
if(!dbTableInfo.empty()) {
// extra table columns than storage columns
if(!preserve) {
#if SQLITE_VERSION_NUMBER >= 3035000 // DROP COLUMN feature exists (v3.35.0)
res = sync_schema_result::old_columns_removed;
#else
gottaCreateTable = true;
#endif
} else {
res = sync_schema_result::old_columns_removed;
}
}
}
if(gottaCreateTable) {
res = sync_schema_result::dropped_and_recreated;
} else {
if(!columnsToAdd.empty()) {
// extra storage columns than table columns
for(const table_xinfo* colInfo: columnsToAdd) {
const basic_generated_always::storage_type* generatedStorageType =
table.find_column_generated_storage_type(colInfo->name);
if(generatedStorageType) {
if(*generatedStorageType == basic_generated_always::storage_type::stored) {
gottaCreateTable = true;
break;
}
// fallback cause VIRTUAL can be added
} else {
if(colInfo->notnull && colInfo->dflt_value.empty()) {
gottaCreateTable = true;
// no matter if preserve is true or false, there is no way to preserve data, so we wont try!
if(attempt_to_preserve) {
*attempt_to_preserve = false;
};
break;
}
}
}
if(!gottaCreateTable) {
if(res == sync_schema_result::old_columns_removed) {
res = sync_schema_result::new_columns_added_and_old_columns_removed;
} else {
res = sync_schema_result::new_columns_added;
}
} else {
res = sync_schema_result::dropped_and_recreated;
}
} else {
if(res != sync_schema_result::old_columns_removed) {
res = sync_schema_result::already_in_sync;
}
}
}
} else {
res = sync_schema_result::new_table_created;
}
return res;
}
template<class... Cols>
sync_schema_result sync_table(const index_t<Cols...>& index, sqlite3* db, bool) {
auto res = sync_schema_result::already_in_sync;
using context_t = serializer_context<db_objects_type>;
context_t context{this->db_objects};
auto query = serialize(index, context);
perform_void_exec(db, query);
return res;
}
template<class... Cols>
sync_schema_result sync_table(const trigger_t<Cols...>& trigger, sqlite3* db, bool) {
auto res = sync_schema_result::already_in_sync; // TODO Change accordingly
using context_t = serializer_context<db_objects_type>;
context_t context{this->db_objects};
perform_void_exec(db, serialize(trigger, context));
return res;
}
template<class Table, satisfies<is_table, Table> = true>
sync_schema_result sync_table(const Table& table, sqlite3* db, bool preserve);
template<class C>
void add_column(sqlite3* db, const std::string& tableName, const C& column) const {
using context_t = serializer_context<db_objects_type>;
context_t context{this->db_objects};
std::stringstream ss;
ss << "ALTER TABLE " << streaming_identifier(tableName) << " ADD COLUMN " << serialize(column, context)
<< std::flush;
perform_void_exec(db, ss.str());
}
template<typename S>
prepared_statement_t<S> prepare_impl(S statement) {
using context_t = serializer_context<db_objects_type>;
context_t context{this->db_objects};
context.skip_table_name = false;
context.replace_bindable_with_question = true;
auto con = this->get_connection();
sqlite3_stmt* stmt = prepare_stmt(con.get(), serialize(statement, context));
return prepared_statement_t<S>{std::forward<S>(statement), stmt, con};
}
public:
/**
* This is a cute function used to replace migration up/down functionality.
* It performs check storage schema with actual db schema and:
* * if there are excess tables exist in db they are ignored (not dropped)
* * every table from storage is compared with it's db analog and
* * if table doesn't exist it is being created
* * if table exists its colums are being compared with table_info from db and
* * if there are columns in db that do not exist in storage (excess) table will be dropped and
* recreated
* * if there are columns in storage that do not exist in db they will be added using `ALTER TABLE
* ... ADD COLUMN ...' command
* * if there is any column existing in both db and storage but differs by any of
* properties/constraints (pk, notnull, dflt_value) table will be dropped and recreated. Be aware that
* `sync_schema` doesn't guarantee that data will not be dropped. It guarantees only that it will make db
* schema the same as you specified in `make_storage` function call. A good point is that if you have no db
* file at all it will be created and all tables also will be created with exact tables and columns you
* specified in `make_storage`, `make_table` and `make_column` calls. The best practice is to call this
* function right after storage creation.
* @param preserve affects function's behaviour in case it is needed to remove a column. If it is `false`
* so table will be dropped if there is column to remove if SQLite version is < 3.35.0 and remove column if SQLite version >= 3.35.0,
* if `true` - table is being copied into another table, dropped and copied table is renamed with source table name.
* Warning: sync_schema doesn't check foreign keys cause it is unable to do so in sqlite3. If you know how to get foreign key info please
* submit an issue https://github.com/fnc12/sqlite_orm/issues
* @return std::map with std::string key equal table name and `sync_schema_result` as value.
* `sync_schema_result` is a enum value that stores table state after syncing a schema. `sync_schema_result`
* can be printed out on std::ostream with `operator<<`.
*/
std::map<std::string, sync_schema_result> sync_schema(bool preserve = false) {
auto con = this->get_connection();
std::map<std::string, sync_schema_result> result;
iterate_tuple<true>(this->db_objects, [this, db = con.get(), preserve, &result](auto& schemaObject) {
sync_schema_result status = this->sync_table(schemaObject, db, preserve);
result.emplace(schemaObject.name, status);
});
return result;
}
/**
* This function returns the same map that `sync_schema` returns but it
* doesn't perform `sync_schema` actually - just simulates it in case you want to know
* what will happen if you sync your schema.
*/
std::map<std::string, sync_schema_result> sync_schema_simulate(bool preserve = false) {
auto con = this->get_connection();
std::map<std::string, sync_schema_result> result;
iterate_tuple<true>(this->db_objects, [this, db = con.get(), preserve, &result](auto& schemaObject) {
sync_schema_result status = this->schema_status(schemaObject, db, preserve, nullptr);
result.emplace(schemaObject.name, status);
});
return result;
}
using storage_base::table_exists; // now that it is in storage_base make it into overload set
template<class T, class... Args>
prepared_statement_t<select_t<T, Args...>> prepare(select_t<T, Args...> sel) {
sel.highest_level = true;
return prepare_impl<select_t<T, Args...>>(std::move(sel));
}
template<class T, class... Args>
prepared_statement_t<get_all_t<T, Args...>> prepare(get_all_t<T, Args...> get_) {
return prepare_impl<get_all_t<T, Args...>>(std::move(get_));
}
template<class T, class... Args>
prepared_statement_t<get_all_pointer_t<T, Args...>> prepare(get_all_pointer_t<T, Args...> get_) {
return prepare_impl<get_all_pointer_t<T, Args...>>(std::move(get_));
}
template<class... Args>
prepared_statement_t<replace_raw_t<Args...>> prepare(replace_raw_t<Args...> ins) {
return prepare_impl<replace_raw_t<Args...>>(std::move(ins));
}
template<class... Args>
prepared_statement_t<insert_raw_t<Args...>> prepare(insert_raw_t<Args...> ins) {
return prepare_impl<insert_raw_t<Args...>>(std::move(ins));
}
#ifdef SQLITE_ORM_OPTIONAL_SUPPORTED
template<class T, class R, class... Args>
prepared_statement_t<get_all_optional_t<T, R, Args...>> prepare(get_all_optional_t<T, R, Args...> get_) {
return prepare_impl<get_all_optional_t<T, R, Args...>>(std::move(get_));
}
#endif // SQLITE_ORM_OPTIONAL_SUPPORTED
template<class S, class... Wargs>
prepared_statement_t<update_all_t<S, Wargs...>> prepare(update_all_t<S, Wargs...> upd) {
return prepare_impl<update_all_t<S, Wargs...>>(std::move(upd));
}
template<class T, class... Args>
prepared_statement_t<remove_all_t<T, Args...>> prepare(remove_all_t<T, Args...> rem) {
return prepare_impl<remove_all_t<T, Args...>>(std::move(rem));
}
template<class T, class... Ids>
prepared_statement_t<get_t<T, Ids...>> prepare(get_t<T, Ids...> get_) {
return prepare_impl<get_t<T, Ids...>>(std::move(get_));
}
template<class T, class... Ids>
prepared_statement_t<get_pointer_t<T, Ids...>> prepare(get_pointer_t<T, Ids...> get_) {
return prepare_impl<get_pointer_t<T, Ids...>>(std::move(get_));
}
#ifdef SQLITE_ORM_OPTIONAL_SUPPORTED
template<class T, class... Ids>
prepared_statement_t<get_optional_t<T, Ids...>> prepare(get_optional_t<T, Ids...> get_) {
return prepare_impl<get_optional_t<T, Ids...>>(std::move(get_));
}
#endif // SQLITE_ORM_OPTIONAL_SUPPORTED
template<class T>
prepared_statement_t<update_t<T>> prepare(update_t<T> upd) {
return prepare_impl<update_t<T>>(std::move(upd));
}
template<class T, class... Ids>
prepared_statement_t<remove_t<T, Ids...>> prepare(remove_t<T, Ids...> statement) {
using object_type = typename expression_object_type<decltype(statement)>::type;
this->assert_mapped_type<object_type>();
return this->prepare_impl<remove_t<T, Ids...>>(std::move(statement));
}
template<class T>
prepared_statement_t<insert_t<T>> prepare(insert_t<T> statement) {
using object_type = typename expression_object_type<decltype(statement)>::type;
this->assert_mapped_type<object_type>();
this->assert_insertable_type<object_type>();
return this->prepare_impl<insert_t<T>>(std::move(statement));
}
template<class T>
prepared_statement_t<replace_t<T>> prepare(replace_t<T> rep) {
using object_type = typename expression_object_type<decltype(rep)>::type;
this->assert_mapped_type<object_type>();
return this->prepare_impl<replace_t<T>>(std::move(rep));
}
template<class It, class L, class O>
prepared_statement_t<insert_range_t<It, L, O>> prepare(insert_range_t<It, L, O> statement) {
using object_type = typename expression_object_type<decltype(statement)>::type;
this->assert_mapped_type<object_type>();
this->assert_insertable_type<object_type>();
return this->prepare_impl<insert_range_t<It, L, O>>(std::move(statement));
}
template<class It, class L, class O>
prepared_statement_t<replace_range_t<It, L, O>> prepare(replace_range_t<It, L, O> statement) {
using object_type = typename expression_object_type<decltype(statement)>::type;
this->assert_mapped_type<object_type>();
return this->prepare_impl<replace_range_t<It, L, O>>(std::move(statement));
}
template<class T, class... Cols>
prepared_statement_t<insert_explicit<T, Cols...>> prepare(insert_explicit<T, Cols...> ins) {
using object_type = typename expression_object_type<decltype(ins)>::type;
this->assert_mapped_type<object_type>();
return this->prepare_impl<insert_explicit<T, Cols...>>(std::move(ins));
}
template<class... Args>
void execute(const prepared_statement_t<replace_raw_t<Args...>>& statement) {
sqlite3_stmt* stmt = reset_stmt(statement.stmt);
iterate_ast(statement.expression.args, conditional_binder{statement.stmt});
perform_step(stmt);
}
template<class... Args>
void execute(const prepared_statement_t<insert_raw_t<Args...>>& statement) {
sqlite3_stmt* stmt = reset_stmt(statement.stmt);
iterate_ast(statement.expression.args, conditional_binder{stmt});
perform_step(stmt);
}
template<class T, class... Cols>
int64 execute(const prepared_statement_t<insert_explicit<T, Cols...>>& statement) {
using statement_type = std::decay_t<decltype(statement)>;
using expression_type = typename statement_type::expression_type;
using object_type = typename expression_object_type<expression_type>::type;
sqlite3_stmt* stmt = reset_stmt(statement.stmt);
tuple_value_binder{stmt}(
statement.expression.columns.columns,
[&table = this->get_table<object_type>(), &object = statement.expression.obj](auto& memberPointer) {
return table.object_field_value(object, memberPointer);
});
perform_step(stmt);
return sqlite3_last_insert_rowid(sqlite3_db_handle(stmt));
}
template<class T,
std::enable_if_t<polyfill::disjunction_v<is_replace<T>, is_replace_range<T>>, bool> = true>
void execute(const prepared_statement_t<T>& statement) {
using statement_type = std::decay_t<decltype(statement)>;
using expression_type = typename statement_type::expression_type;
using object_type = typename expression_object_type<expression_type>::type;
sqlite3_stmt* stmt = reset_stmt(statement.stmt);
auto processObject = [&table = this->get_table<object_type>(),
bindValue = field_value_binder{stmt}](auto& object) mutable {
table.template for_each_column_excluding<is_generated_always>(
call_as_template_base<column_field>([&bindValue, &object](auto& column) {
bindValue(polyfill::invoke(column.member_pointer, object));
}));
};
static_if<is_replace_range_v<T>>(
[&processObject](auto& expression) {
#if __cpp_lib_ranges >= 201911L
std::ranges::for_each(expression.range.first,
expression.range.second,
std::ref(processObject),
std::ref(expression.transformer));
#else
auto& transformer = expression.transformer;
std::for_each(expression.range.first,
expression.range.second,
[&processObject, &transformer](auto& item) {
const object_type& object = polyfill::invoke(transformer, item);
processObject(object);
});
#endif
},
[&processObject](auto& expression) {
const object_type& o = get_object(expression);
processObject(o);
})(statement.expression);
perform_step(stmt);
}
template<class T, std::enable_if_t<polyfill::disjunction_v<is_insert<T>, is_insert_range<T>>, bool> = true>
int64 execute(const prepared_statement_t<T>& statement) {
using statement_type = std::decay_t<decltype(statement)>;
using expression_type = typename statement_type::expression_type;
using object_type = typename expression_object_type<expression_type>::type;
sqlite3_stmt* stmt = reset_stmt(statement.stmt);
auto processObject = [&table = this->get_table<object_type>(),
bindValue = field_value_binder{stmt}](auto& object) mutable {
using is_without_rowid = typename std::decay_t<decltype(table)>::is_without_rowid;
table.template for_each_column_excluding<
mpl::conjunction<mpl::not_<mpl::always<is_without_rowid>>,
mpl::disjunction_fn<is_primary_key, is_generated_always>>>(
call_as_template_base<column_field>([&table, &bindValue, &object](auto& column) {
if(!table.exists_in_composite_primary_key(column)) {
bindValue(polyfill::invoke(column.member_pointer, object));
}
}));
};
static_if<is_insert_range_v<T>>(
[&processObject](auto& expression) {
#if __cpp_lib_ranges >= 201911L
std::ranges::for_each(expression.range.first,
expression.range.second,
std::ref(processObject),
std::ref(expression.transformer));
#else
auto& transformer = expression.transformer;
std::for_each(expression.range.first,
expression.range.second,
[&processObject, &transformer](auto& item) {
const object_type& object = polyfill::invoke(transformer, item);
processObject(object);
});
#endif
},
[&processObject](auto& expression) {
const object_type& o = get_object(expression);
processObject(o);
})(statement.expression);
perform_step(stmt);
return sqlite3_last_insert_rowid(sqlite3_db_handle(stmt));
}
template<class T, class... Ids>
void execute(const prepared_statement_t<remove_t<T, Ids...>>& statement) {
sqlite3_stmt* stmt = reset_stmt(statement.stmt);
iterate_ast(statement.expression.ids, conditional_binder{stmt});
perform_step(stmt);
}
template<class T>
void execute(const prepared_statement_t<update_t<T>>& statement) {
using statement_type = std::decay_t<decltype(statement)>;
using expression_type = typename statement_type::expression_type;
using object_type = typename expression_object_type<expression_type>::type;
sqlite3_stmt* stmt = reset_stmt(statement.stmt);
auto& table = this->get_table<object_type>();
field_value_binder bindValue{stmt};
auto& object = get_object(statement.expression);
table.template for_each_column_excluding<mpl::disjunction_fn<is_primary_key, is_generated_always>>(
call_as_template_base<column_field>([&table, &bindValue, &object](auto& column) {
if(!table.exists_in_composite_primary_key(column)) {
bindValue(polyfill::invoke(column.member_pointer, object));
}
}));
table.for_each_column([&table, &bindValue, &object](auto& column) {
if(column.template is<is_primary_key>() || table.exists_in_composite_primary_key(column)) {
bindValue(polyfill::invoke(column.member_pointer, object));
}
});
perform_step(stmt);
}
template<class T, class... Ids>
std::unique_ptr<T> execute(const prepared_statement_t<get_pointer_t<T, Ids...>>& statement) {
sqlite3_stmt* stmt = reset_stmt(statement.stmt);
iterate_ast(statement.expression.ids, conditional_binder{stmt});
std::unique_ptr<T> res;
perform_step(stmt, [&table = this->get_table<T>(), &res](sqlite3_stmt* stmt) {
res = std::make_unique<T>();
object_from_column_builder<T> builder{*res, stmt};
table.for_each_column(builder);
});
return res;
}
#ifdef SQLITE_ORM_OPTIONAL_SUPPORTED
template<class T, class... Ids>
std::optional<T> execute(const prepared_statement_t<get_optional_t<T, Ids...>>& statement) {
sqlite3_stmt* stmt = reset_stmt(statement.stmt);
iterate_ast(statement.expression.ids, conditional_binder{stmt});
std::optional<T> res;
perform_step(stmt, [&table = this->get_table<T>(), &res](sqlite3_stmt* stmt) {
object_from_column_builder<T> builder{res.emplace(), stmt};
table.for_each_column(builder);
});
return res;
}
#endif // SQLITE_ORM_OPTIONAL_SUPPORTED
template<class T, class... Ids>
T execute(const prepared_statement_t<get_t<T, Ids...>>& statement) {
sqlite3_stmt* stmt = reset_stmt(statement.stmt);
iterate_ast(statement.expression.ids, conditional_binder{stmt});
#ifdef SQLITE_ORM_OPTIONAL_SUPPORTED
std::optional<T> res;
perform_step(stmt, [&table = this->get_table<T>(), &res](sqlite3_stmt* stmt) {
object_from_column_builder<T> builder{res.emplace(), stmt};
table.for_each_column(builder);
});
if(!res.has_value()) {
throw std::system_error{orm_error_code::not_found};
}
return std::move(res).value();
#else
auto& table = this->get_table<T>();
auto stepRes = sqlite3_step(stmt);
switch(stepRes) {
case SQLITE_ROW: {
T res;
object_from_column_builder<T> builder{res, stmt};
table.for_each_column(builder);
return res;
} break;
case SQLITE_DONE: {
throw std::system_error{orm_error_code::not_found};
} break;
default: {
throw_translated_sqlite_error(stmt);
}
}
#endif
}
template<class T, class... Args>
void execute(const prepared_statement_t<remove_all_t<T, Args...>>& statement) {
sqlite3_stmt* stmt = reset_stmt(statement.stmt);
iterate_ast(statement.expression.conditions, conditional_binder{stmt});
perform_step(stmt);
}
template<class S, class... Wargs>
void execute(const prepared_statement_t<update_all_t<S, Wargs...>>& statement) {
sqlite3_stmt* stmt = reset_stmt(statement.stmt);
conditional_binder bindNode{stmt};
iterate_ast(statement.expression.set, bindNode);
iterate_ast(statement.expression.conditions, bindNode);
perform_step(stmt);
}
template<class T, class... Args, class R = column_result_of_t<db_objects_type, T>>
std::vector<R> execute(const prepared_statement_t<select_t<T, Args...>>& statement) {
sqlite3_stmt* stmt = reset_stmt(statement.stmt);
iterate_ast(statement.expression, conditional_binder{stmt});
std::vector<R> res;
perform_steps(stmt,
[rowExtractor = make_row_extractor<R>(lookup_table<R>(this->db_objects)),
&res](sqlite3_stmt* stmt) {
res.push_back(rowExtractor.extract(stmt, 0));
});
return res;
}
template<class T, class R, class... Args>
R execute(const prepared_statement_t<get_all_t<T, R, Args...>>& statement) {
sqlite3_stmt* stmt = reset_stmt(statement.stmt);
iterate_ast(statement.expression, conditional_binder{stmt});
R res;
perform_steps(stmt, [&table = this->get_table<T>(), &res](sqlite3_stmt* stmt) {
T obj;
object_from_column_builder<T> builder{obj, stmt};
table.for_each_column(builder);
res.push_back(std::move(obj));
});
return res;
}
template<class T, class R, class... Args>
R execute(const prepared_statement_t<get_all_pointer_t<T, R, Args...>>& statement) {
sqlite3_stmt* stmt = reset_stmt(statement.stmt);
iterate_ast(statement.expression, conditional_binder{stmt});
R res;
perform_steps(stmt, [&table = this->get_table<T>(), &res](sqlite3_stmt* stmt) {
auto obj = std::make_unique<T>();
object_from_column_builder<T> builder{*obj, stmt};
table.for_each_column(builder);
res.push_back(std::move(obj));
});
return res;
}
#ifdef SQLITE_ORM_OPTIONAL_SUPPORTED
template<class T, class R, class... Args>
R execute(const prepared_statement_t<get_all_optional_t<T, R, Args...>>& statement) {
sqlite3_stmt* stmt = reset_stmt(statement.stmt);
iterate_ast(statement.expression, conditional_binder{stmt});
R res;
perform_steps(stmt, [&table = this->get_table<T>(), &res](sqlite3_stmt* stmt) {
auto obj = std::make_optional<T>();
object_from_column_builder<T> builder{*obj, stmt};
table.for_each_column(builder);
res.push_back(std::move(obj));
});
return res;
}
#endif // SQLITE_ORM_OPTIONAL_SUPPORTED
}; // struct storage_t
}
/*
* Factory function for a storage, from a database file and a bunch of database object definitions.
*/
template<class... DBO>
internal::storage_t<DBO...> make_storage(std::string filename, DBO... dbObjects) {
return {std::move(filename), internal::db_objects_tuple<DBO...>{std::forward<DBO>(dbObjects)...}};
}
/**
* sqlite3_threadsafe() interface.
*/
inline int threadsafe() {
return sqlite3_threadsafe();
}
}
#pragma once
#include <type_traits> // std::is_same, std::decay, std::remove_reference
#include <tuple> // std::get
// #include "functional/cxx_universal.h"
// ::size_t
// #include "functional/static_magic.h"
// #include "prepared_statement.h"
// #include "ast_iterator.h"
// #include "node_tuple.h"
#include <type_traits> // std::enable_if
#include <tuple> // std::tuple
#include <utility> // std::pair
#include <functional> // std::reference_wrapper
// #include "functional/cxx_optional.h"
// #include "functional/cxx_type_traits_polyfill.h"
// #include "tuple_helper/tuple_filter.h"
// #include "conditions.h"
// #include "operators.h"
// #include "select_constraints.h"
// #include "prepared_statement.h"
// #include "optional_container.h"
// #include "core_functions.h"
// #include "function.h"
// #include "ast/excluded.h"
// #include "ast/upsert_clause.h"
// #include "ast/where.h"
// #include "ast/into.h"
// #include "ast/group_by.h"
namespace sqlite_orm {
namespace internal {
template<class T, class SFINAE = void>
struct node_tuple {
using type = std::tuple<T>;
};
template<class T>
using node_tuple_t = typename node_tuple<T>::type;
template<>
struct node_tuple<void, void> {
using type = std::tuple<>;
};
#ifdef SQLITE_ORM_OPTIONAL_SUPPORTED
template<class T>
struct node_tuple<as_optional_t<T>, void> : node_tuple<T> {};
#endif // SQLITE_ORM_OPTIONAL_SUPPORTED
template<class T>
struct node_tuple<std::reference_wrapper<T>, void> : node_tuple<T> {};
template<class... Args>
struct node_tuple<group_by_t<Args...>, void> : node_tuple<std::tuple<Args...>> {};
template<class T, class... Args>
struct node_tuple<group_by_with_having<T, Args...>, void> {
using args_tuple = node_tuple_t<std::tuple<Args...>>;
using expression_tuple = node_tuple_t<T>;
using type = tuple_cat_t<args_tuple, expression_tuple>;
};
template<class T>
struct node_tuple<T, match_if<is_upsert_clause, T>> : node_tuple<typename T::actions_tuple> {};
template<class... Args>
struct node_tuple<set_t<Args...>, void> {
using type = tuple_cat_t<node_tuple_t<Args>...>;
};
template<class T>
struct node_tuple<excluded_t<T>, void> : node_tuple<T> {};
template<class C>
struct node_tuple<where_t<C>, void> : node_tuple<C> {};
/**
* Column alias
*/
template<class A>
struct node_tuple<alias_holder<A>, void> : node_tuple<void> {};
/**
* Column alias
*/
template<char... C>
struct node_tuple<column_alias<C...>, void> : node_tuple<void> {};
/**
* Literal
*/
template<class T>
struct node_tuple<literal_holder<T>, void> : node_tuple<void> {};
template<class E>
struct node_tuple<order_by_t<E>, void> : node_tuple<E> {};
template<class T>
struct node_tuple<T, match_if<is_binary_condition, T>> {
using node_type = T;
using left_type = typename node_type::left_type;
using right_type = typename node_type::right_type;
using left_node_tuple = node_tuple_t<left_type>;
using right_node_tuple = node_tuple_t<right_type>;
using type = tuple_cat_t<left_node_tuple, right_node_tuple>;
};
template<class L, class R, class... Ds>
struct node_tuple<binary_operator<L, R, Ds...>, void> {
using node_type = binary_operator<L, R, Ds...>;
using left_type = typename node_type::left_type;
using right_type = typename node_type::right_type;
using left_node_tuple = node_tuple_t<left_type>;
using right_node_tuple = node_tuple_t<right_type>;
using type = tuple_cat_t<left_node_tuple, right_node_tuple>;
};
template<class... Args>
struct node_tuple<columns_t<Args...>, void> {
using type = tuple_cat_t<node_tuple_t<Args>...>;
};
template<class L, class A>
struct node_tuple<dynamic_in_t<L, A>, void> {
using left_tuple = node_tuple_t<L>;
using right_tuple = node_tuple_t<A>;
using type = tuple_cat_t<left_tuple, right_tuple>;
};
template<class L, class... Args>
struct node_tuple<in_t<L, Args...>, void> {
using left_tuple = node_tuple_t<L>;
using right_tuple = tuple_cat_t<node_tuple_t<Args>...>;
using type = tuple_cat_t<left_tuple, right_tuple>;
};
template<class T>
struct node_tuple<T, match_if<is_compound_operator, T>> {
using node_type = T;
using left_type = typename node_type::left_type;
using right_type = typename node_type::right_type;
using left_tuple = node_tuple_t<left_type>;
using right_tuple = node_tuple_t<right_type>;
using type = tuple_cat_t<left_tuple, right_tuple>;
};
template<class T, class... Args>
struct node_tuple<select_t<T, Args...>, void> {
using columns_tuple = node_tuple_t<T>;
using args_tuple = tuple_cat_t<node_tuple_t<Args>...>;
using type = tuple_cat_t<columns_tuple, args_tuple>;
};
template<class... Args>
struct node_tuple<insert_raw_t<Args...>, void> {
using type = tuple_cat_t<node_tuple_t<Args>...>;
};
template<class... Args>
struct node_tuple<replace_raw_t<Args...>, void> {
using type = tuple_cat_t<node_tuple_t<Args>...>;
};
template<class T>
struct node_tuple<into_t<T>, void> : node_tuple<void> {};
template<class... Args>
struct node_tuple<values_t<Args...>, void> {
using type = tuple_cat_t<node_tuple_t<Args>...>;
};
template<class... Args>
struct node_tuple<std::tuple<Args...>, void> {
using type = tuple_cat_t<node_tuple_t<Args>...>;
};
template<class T, class R, class... Args>
struct node_tuple<get_all_t<T, R, Args...>, void> {
using type = tuple_cat_t<node_tuple_t<Args>...>;
};
template<class T, class... Args>
struct node_tuple<get_all_pointer_t<T, Args...>, void> {
using type = tuple_cat_t<node_tuple_t<Args>...>;
};
#ifdef SQLITE_ORM_OPTIONAL_SUPPORTED
template<class T, class... Args>
struct node_tuple<get_all_optional_t<T, Args...>, void> {
using type = tuple_cat_t<node_tuple_t<Args>...>;
};
#endif // SQLITE_ORM_OPTIONAL_SUPPORTED
template<class... Args, class... Wargs>
struct node_tuple<update_all_t<set_t<Args...>, Wargs...>, void> {
using set_tuple = tuple_cat_t<node_tuple_t<Args>...>;
using conditions_tuple = tuple_cat_t<node_tuple_t<Wargs>...>;
using type = tuple_cat_t<set_tuple, conditions_tuple>;
};
template<class T, class... Args>
struct node_tuple<remove_all_t<T, Args...>, void> {
using type = tuple_cat_t<node_tuple_t<Args>...>;
};
template<class T>
struct node_tuple<having_t<T>, void> : node_tuple<T> {};
template<class T, class E>
struct node_tuple<cast_t<T, E>, void> : node_tuple<E> {};
template<class T>
struct node_tuple<exists_t<T>, void> : node_tuple<T> {};
template<class T>
struct node_tuple<optional_container<T>, void> : node_tuple<T> {};
template<class A, class T, class E>
struct node_tuple<like_t<A, T, E>, void> {
using arg_tuple = node_tuple_t<A>;
using pattern_tuple = node_tuple_t<T>;
using escape_tuple = node_tuple_t<E>;
using type = tuple_cat_t<arg_tuple, pattern_tuple, escape_tuple>;
};
template<class A, class T>
struct node_tuple<glob_t<A, T>, void> {
using arg_tuple = node_tuple_t<A>;
using pattern_tuple = node_tuple_t<T>;
using type = tuple_cat_t<arg_tuple, pattern_tuple>;
};
template<class A, class T>
struct node_tuple<between_t<A, T>, void> {
using expression_tuple = node_tuple_t<A>;
using lower_tuple = node_tuple_t<T>;
using upper_tuple = node_tuple_t<T>;
using type = tuple_cat_t<expression_tuple, lower_tuple, upper_tuple>;
};
template<class T>
struct node_tuple<named_collate<T>, void> : node_tuple<T> {};
template<class T>
struct node_tuple<is_null_t<T>, void> : node_tuple<T> {};
template<class T>
struct node_tuple<is_not_null_t<T>, void> : node_tuple<T> {};
template<class C>
struct node_tuple<negated_condition_t<C>, void> : node_tuple<C> {};
template<class R, class S, class... Args>
struct node_tuple<built_in_function_t<R, S, Args...>, void> {
using type = tuple_cat_t<node_tuple_t<Args>...>;
};
template<class R, class S, class... Args>
struct node_tuple<built_in_aggregate_function_t<R, S, Args...>, void> {
using type = tuple_cat_t<node_tuple_t<Args>...>;
};
template<class F, class W>
struct node_tuple<filtered_aggregate_function<F, W>, void> {
using left_tuple = node_tuple_t<F>;
using right_tuple = node_tuple_t<W>;
using type = tuple_cat_t<left_tuple, right_tuple>;
};
template<class F, class... Args>
struct node_tuple<function_call<F, Args...>, void> {
using type = tuple_cat_t<node_tuple_t<Args>...>;
};
template<class T, class O>
struct node_tuple<left_join_t<T, O>, void> : node_tuple<O> {};
template<class T>
struct node_tuple<on_t<T>, void> : node_tuple<T> {};
// note: not strictly necessary as there's no binding support for USING;
// we provide it nevertheless, in line with on_t.
template<class T, class M>
struct node_tuple<using_t<T, M>, void> : node_tuple<column_pointer<T, M>> {};
template<class T, class O>
struct node_tuple<join_t<T, O>, void> : node_tuple<O> {};
template<class T, class O>
struct node_tuple<left_outer_join_t<T, O>, void> : node_tuple<O> {};
template<class T, class O>
struct node_tuple<inner_join_t<T, O>, void> : node_tuple<O> {};
template<class R, class T, class E, class... Args>
struct node_tuple<simple_case_t<R, T, E, Args...>, void> {
using case_tuple = node_tuple_t<T>;
using args_tuple = tuple_cat_t<node_tuple_t<Args>...>;
using else_tuple = node_tuple_t<E>;
using type = tuple_cat_t<case_tuple, args_tuple, else_tuple>;
};
template<class L, class R>
struct node_tuple<std::pair<L, R>, void> {
using left_tuple = node_tuple_t<L>;
using right_tuple = node_tuple_t<R>;
using type = tuple_cat_t<left_tuple, right_tuple>;
};
template<class T, class E>
struct node_tuple<as_t<T, E>, void> : node_tuple<E> {};
template<class T>
struct node_tuple<limit_t<T, false, false, void>, void> : node_tuple<T> {};
template<class T, class O>
struct node_tuple<limit_t<T, true, false, O>, void> {
using type = tuple_cat_t<node_tuple_t<T>, node_tuple_t<O>>;
};
template<class T, class O>
struct node_tuple<limit_t<T, true, true, O>, void> {
using type = tuple_cat_t<node_tuple_t<O>, node_tuple_t<T>>;
};
}
}
// #include "expression_object_type.h"
namespace sqlite_orm {
template<int N, class It, class L, class O>
auto& get(internal::prepared_statement_t<internal::insert_range_t<It, L, O>>& statement) {
return std::get<N>(statement.expression.range);
}
template<int N, class It, class L, class O>
const auto& get(const internal::prepared_statement_t<internal::insert_range_t<It, L, O>>& statement) {
return std::get<N>(statement.expression.range);
}
template<int N, class It, class L, class O>
auto& get(internal::prepared_statement_t<internal::replace_range_t<It, L, O>>& statement) {
return std::get<N>(statement.expression.range);
}
template<int N, class It, class L, class O>
const auto& get(const internal::prepared_statement_t<internal::replace_range_t<It, L, O>>& statement) {
return std::get<N>(statement.expression.range);
}
template<int N, class T, class... Ids>
auto& get(internal::prepared_statement_t<internal::get_t<T, Ids...>>& statement) {
return internal::get_ref(std::get<N>(statement.expression.ids));
}
template<int N, class T, class... Ids>
const auto& get(const internal::prepared_statement_t<internal::get_t<T, Ids...>>& statement) {
return internal::get_ref(std::get<N>(statement.expression.ids));
}
template<int N, class T, class... Ids>
auto& get(internal::prepared_statement_t<internal::get_pointer_t<T, Ids...>>& statement) {
return internal::get_ref(std::get<N>(statement.expression.ids));
}
template<int N, class T, class... Ids>
const auto& get(const internal::prepared_statement_t<internal::get_pointer_t<T, Ids...>>& statement) {
return internal::get_ref(std::get<N>(statement.expression.ids));
}
#ifdef SQLITE_ORM_OPTIONAL_SUPPORTED
template<int N, class T, class... Ids>
auto& get(internal::prepared_statement_t<internal::get_optional_t<T, Ids...>>& statement) {
return internal::get_ref(std::get<N>(statement.expression.ids));
}
template<int N, class T, class... Ids>
const auto& get(const internal::prepared_statement_t<internal::get_optional_t<T, Ids...>>& statement) {
return internal::get_ref(std::get<N>(statement.expression.ids));
}
#endif // SQLITE_ORM_OPTIONAL_SUPPORTED
template<int N, class T, class... Ids>
auto& get(internal::prepared_statement_t<internal::remove_t<T, Ids...>>& statement) {
return internal::get_ref(std::get<N>(statement.expression.ids));
}
template<int N, class T, class... Ids>
const auto& get(const internal::prepared_statement_t<internal::remove_t<T, Ids...>>& statement) {
return internal::get_ref(std::get<N>(statement.expression.ids));
}
template<int N, class T>
auto& get(internal::prepared_statement_t<internal::update_t<T>>& statement) {
static_assert(N == 0, "get<> works only with 0 argument for update statement");
return internal::get_ref(statement.expression.object);
}
template<int N, class T>
const auto& get(const internal::prepared_statement_t<internal::update_t<T>>& statement) {
static_assert(N == 0, "get<> works only with 0 argument for update statement");
return internal::get_ref(statement.expression.object);
}
template<int N, class T, class... Cols>
auto& get(internal::prepared_statement_t<internal::insert_explicit<T, Cols...>>& statement) {
static_assert(N == 0, "get<> works only with 0 argument for insert statement");
return internal::get_ref(statement.expression.obj);
}
template<int N, class T, class... Cols>
const auto& get(const internal::prepared_statement_t<internal::insert_explicit<T, Cols...>>& statement) {
static_assert(N == 0, "get<> works only with 0 argument for insert statement");
return internal::get_ref(statement.expression.obj);
}
template<int N, class T>
auto& get(internal::prepared_statement_t<internal::replace_t<T>>& statement) {
static_assert(N == 0, "get<> works only with 0 argument for replace statement");
return internal::get_ref(statement.expression.object);
}
template<int N, class T>
const auto& get(const internal::prepared_statement_t<internal::replace_t<T>>& statement) {
static_assert(N == 0, "get<> works only with 0 argument for replace statement");
return internal::get_ref(statement.expression.object);
}
template<int N, class T>
auto& get(internal::prepared_statement_t<internal::insert_t<T>>& statement) {
static_assert(N == 0, "get<> works only with 0 argument for insert statement");
return internal::get_ref(statement.expression.object);
}
template<int N, class T>
const auto& get(const internal::prepared_statement_t<internal::insert_t<T>>& statement) {
static_assert(N == 0, "get<> works only with 0 argument for insert statement");
return internal::get_ref(statement.expression.object);
}
template<int N, class T>
const auto& get(const internal::prepared_statement_t<T>& statement) {
using statement_type = std::decay_t<decltype(statement)>;
using expression_type = typename statement_type::expression_type;
using node_tuple = internal::node_tuple_t<expression_type>;
using bind_tuple = internal::bindable_filter_t<node_tuple>;
using result_type = std::tuple_element_t<static_cast<size_t>(N), bind_tuple>;
const result_type* result = nullptr;
internal::iterate_ast(statement.expression, [&result, index = -1](auto& node) mutable {
using node_type = std::decay_t<decltype(node)>;
if(internal::is_bindable_v<node_type>) {
++index;
}
if(index == N) {
internal::call_if_constexpr<std::is_same<result_type, node_type>::value>(
[](auto& r, auto& n) {
r = &n;
},
result,
node);
}
});
return internal::get_ref(*result);
}
template<int N, class T>
auto& get(internal::prepared_statement_t<T>& statement) {
using statement_type = std::decay_t<decltype(statement)>;
using expression_type = typename statement_type::expression_type;
using node_tuple = internal::node_tuple_t<expression_type>;
using bind_tuple = internal::bindable_filter_t<node_tuple>;
using result_type = std::tuple_element_t<static_cast<size_t>(N), bind_tuple>;
result_type* result = nullptr;
internal::iterate_ast(statement.expression, [&result, index = -1](auto& node) mutable {
using node_type = std::decay_t<decltype(node)>;
if(internal::is_bindable_v<node_type>) {
++index;
}
if(index == N) {
internal::call_if_constexpr<std::is_same<result_type, node_type>::value>(
[](auto& r, auto& n) {
r = const_cast<std::remove_reference_t<decltype(r)>>(&n);
},
result,
node);
}
});
return internal::get_ref(*result);
}
}
#pragma once
/*
* Note: This feature needs constexpr variables with external linkage.
* which can be achieved before C++17's inline variables, but differs from compiler to compiler.
* Hence we make it only available for compilers supporting inline variables.
*/
#ifdef SQLITE_ORM_INLINE_VARIABLES_SUPPORTED
#include <type_traits> // std::integral_constant
#include <utility> // std::move
// #include "functional/cxx_universal.h"
// #include "pointer_value.h"
namespace sqlite_orm {
inline constexpr const char carray_pvt_name[] = "carray";
using carray_pvt = std::integral_constant<const char*, carray_pvt_name>;
template<typename P>
using carray_pointer_arg = pointer_arg<P, carray_pvt>;
template<typename P, typename D>
using carray_pointer_binding = pointer_binding<P, carray_pvt, D>;
template<typename P>
using static_carray_pointer_binding = static_pointer_binding<P, carray_pvt>;
/**
* Wrap a pointer of type 'carray' and its deleter function for binding it to a statement.
*
* Unless the deleter yields a nullptr 'xDestroy' function the ownership of the pointed-to-object
* is transferred to the pointer binding, which will delete it through
* the deleter when the statement finishes.
*/
template<class P, class D>
auto bindable_carray_pointer(P* p, D d) noexcept -> pointer_binding<P, carray_pvt, D> {
return bindable_pointer<carray_pvt>(p, std::move(d));
}
/**
* Wrap a pointer of type 'carray' for binding it to a statement.
*
* Note: 'Static' means that ownership of the pointed-to-object won't be transferred
* and sqlite assumes the object pointed to is valid throughout the lifetime of a statement.
*/
template<class P>
auto statically_bindable_carray_pointer(P* p) noexcept -> static_pointer_binding<P, carray_pvt> {
return statically_bindable_pointer<carray_pvt>(p);
}
/**
* Generalized form of the 'remember' SQL function that is a pass-through for values
* (it returns its argument unchanged using move semantics) but also saves the
* value that is passed through into a bound variable.
*/
template<typename P>
struct note_value_fn {
P operator()(P&& value, carray_pointer_arg<P> pv) const {
if(P* observer = pv) {
*observer = value;
}
return std::move(value);
}
static constexpr const char* name() {
return "note_value";
}
};
/**
* remember(V, $PTR) extension function https://sqlite.org/src/file/ext/misc/remember.c
*/
struct remember_fn : note_value_fn<int64> {
static constexpr const char* name() {
return "remember";
}
};
}
#endif
#pragma once
#include <string> // std::string
// #include "column.h"
// #include "table.h"
namespace sqlite_orm {
#ifdef SQLITE_ENABLE_DBSTAT_VTAB
struct dbstat {
std::string name;
std::string path;
int pageno = 0;
std::string pagetype;
int ncell = 0;
int payload = 0;
int unused = 0;
int mx_payload = 0;
int pgoffset = 0;
int pgsize = 0;
};
inline auto make_dbstat_table() {
return make_table("dbstat",
make_column("name", &dbstat::name),
make_column("path", &dbstat::path),
make_column("pageno", &dbstat::pageno),
make_column("pagetype", &dbstat::pagetype),
make_column("ncell", &dbstat::ncell),
make_column("payload", &dbstat::payload),
make_column("unused", &dbstat::unused),
make_column("mx_payload", &dbstat::mx_payload),
make_column("pgoffset", &dbstat::pgoffset),
make_column("pgsize", &dbstat::pgsize));
}
#endif // SQLITE_ENABLE_DBSTAT_VTAB
}
/** @file Mainly existing to disentangle implementation details from circular and cross dependencies
* (e.g. column_t -> default_value_extractor -> serializer_context -> db_objects_tuple -> table_t -> column_t)
* this file is also used to provide definitions of interface methods 'hitting the database'.
*/
#pragma once
// #include "implementations/column_definitions.h"
/** @file Mainly existing to disentangle implementation details from circular and cross dependencies
* (e.g. column_t -> default_value_extractor -> serializer_context -> db_objects_tuple -> table_t -> column_t)
* this file is also used to provide definitions of interface methods 'hitting the database'.
*/
#include <memory> // std::make_unique
// #include "../functional/cxx_core_features.h"
// #include "../functional/static_magic.h"
// #include "../functional/index_sequence_util.h"
// #include "../tuple_helper/tuple_filter.h"
// #include "../tuple_helper/tuple_traits.h"
// #include "../default_value_extractor.h"
// #include "../column.h"
namespace sqlite_orm {
namespace internal {
template<class... Op>
std::unique_ptr<std::string> column_constraints<Op...>::default_value() const {
using default_op_index_sequence =
filter_tuple_sequence_t<constraints_type, check_if_is_template<default_t>::template fn>;
std::unique_ptr<std::string> value;
call_if_constexpr<default_op_index_sequence::size()>(
[&value](auto& constraints, auto op_index_sequence) {
using default_op_index_sequence = decltype(op_index_sequence);
constexpr size_t opIndex = first_index_sequence_value(default_op_index_sequence{});
value = std::make_unique<std::string>(serialize_default_value(get<opIndex>(constraints)));
},
this->constraints,
default_op_index_sequence{});
return value;
}
}
}
// #include "implementations/table_definitions.h"
/** @file Mainly existing to disentangle implementation details from circular and cross dependencies
* (e.g. column_t -> default_value_extractor -> serializer_context -> db_objects_tuple -> table_t -> column_t)
* this file is also used to provide definitions of interface methods 'hitting the database'.
*/
#include <type_traits> // std::decay_t
#include <utility> // std::move
#include <algorithm> // std::find_if, std::ranges::find
// #include "../type_printer.h"
// #include "../column.h"
// #include "../table.h"
namespace sqlite_orm {
namespace internal {
template<class T, bool WithoutRowId, class... Cs>
std::vector<table_xinfo> table_t<T, WithoutRowId, Cs...>::get_table_info() const {
std::vector<table_xinfo> res;
res.reserve(size_t(filter_tuple_sequence_t<elements_type, is_column>::size()));
this->for_each_column([&res](auto& column) {
using field_type = field_type_t<std::decay_t<decltype(column)>>;
std::string dft;
if(auto d = column.default_value()) {
dft = std::move(*d);
}
res.emplace_back(-1,
column.name,
type_printer<field_type>().print(),
column.is_not_null(),
dft,
column.template is<is_primary_key>(),
column.is_generated());
});
auto compositeKeyColumnNames = this->composite_key_columns_names();
for(size_t i = 0; i < compositeKeyColumnNames.size(); ++i) {
auto& columnName = compositeKeyColumnNames[i];
#if __cpp_lib_ranges >= 201911L
auto it = std::ranges::find(res, columnName, &table_xinfo::name);
#else
auto it = std::find_if(res.begin(), res.end(), [&columnName](const table_xinfo& ti) {
return ti.name == columnName;
});
#endif
if(it != res.end()) {
it->pk = static_cast<int>(i + 1);
}
}
return res;
}
}
}
// #include "implementations/storage_definitions.h"
/** @file Mainly existing to disentangle implementation details from circular and cross dependencies
* this file is also used to separate implementation details from the main header file,
* e.g. usage of the dbstat table.
*/
#include <type_traits> // std::is_same
#include <sstream>
#include <functional> // std::reference_wrapper, std::cref
#include <algorithm> // std::find_if, std::ranges::find
// #include "../dbstat.h"
// #include "../type_traits.h"
// #include "../util.h"
// #include "../serializing_util.h"
// #include "../storage.h"
namespace sqlite_orm {
namespace internal {
template<class... DBO>
template<class Table, satisfies<is_table, Table>>
sync_schema_result storage_t<DBO...>::sync_table(const Table& table, sqlite3* db, bool preserve) {
#ifdef SQLITE_ENABLE_DBSTAT_VTAB
if(std::is_same<object_type_t<Table>, dbstat>::value) {
return sync_schema_result::already_in_sync;
}
#endif // SQLITE_ENABLE_DBSTAT_VTAB
auto res = sync_schema_result::already_in_sync;
bool attempt_to_preserve = true;
auto schema_stat = this->schema_status(table, db, preserve, &attempt_to_preserve);
if(schema_stat != sync_schema_result::already_in_sync) {
if(schema_stat == sync_schema_result::new_table_created) {
this->create_table(db, table.name, table);
res = sync_schema_result::new_table_created;
} else {
if(schema_stat == sync_schema_result::old_columns_removed ||
schema_stat == sync_schema_result::new_columns_added ||
schema_stat == sync_schema_result::new_columns_added_and_old_columns_removed) {
// get table info provided in `make_table` call..
auto storageTableInfo = table.get_table_info();
// now get current table info from db using `PRAGMA table_xinfo` query..
auto dbTableInfo = this->pragma.table_xinfo(table.name); // should include generated columns
// this vector will contain pointers to columns that gotta be added..
std::vector<const table_xinfo*> columnsToAdd;
this->calculate_remove_add_columns(columnsToAdd, storageTableInfo, dbTableInfo);
if(schema_stat == sync_schema_result::old_columns_removed) {
#if SQLITE_VERSION_NUMBER >= 3035000 // DROP COLUMN feature exists (v3.35.0)
for(auto& tableInfo: dbTableInfo) {
this->drop_column(db, table.name, tableInfo.name);
}
res = sync_schema_result::old_columns_removed;
#else
// extra table columns than storage columns
this->backup_table(db, table, {});
res = sync_schema_result::old_columns_removed;
#endif
}
if(schema_stat == sync_schema_result::new_columns_added) {
for(const table_xinfo* colInfo: columnsToAdd) {
table.for_each_column([this, colInfo, &tableName = table.name, db](auto& column) {
if(column.name != colInfo->name) {
return;
}
this->add_column(db, tableName, column);
});
}
res = sync_schema_result::new_columns_added;
}
if(schema_stat == sync_schema_result::new_columns_added_and_old_columns_removed) {
auto storageTableInfo = table.get_table_info();
this->add_generated_cols(columnsToAdd, storageTableInfo);
// remove extra columns and generated columns
this->backup_table(db, table, columnsToAdd);
res = sync_schema_result::new_columns_added_and_old_columns_removed;
}
} else if(schema_stat == sync_schema_result::dropped_and_recreated) {
// now get current table info from db using `PRAGMA table_xinfo` query..
auto dbTableInfo = this->pragma.table_xinfo(table.name); // should include generated columns
auto storageTableInfo = table.get_table_info();
// this vector will contain pointers to columns that gotta be added..
std::vector<const table_xinfo*> columnsToAdd;
this->calculate_remove_add_columns(columnsToAdd, storageTableInfo, dbTableInfo);
this->add_generated_cols(columnsToAdd, storageTableInfo);
if(preserve && attempt_to_preserve) {
this->backup_table(db, table, columnsToAdd);
} else {
this->drop_create_with_loss(db, table);
}
res = schema_stat;
}
}
}
return res;
}
template<class... DBO>
template<class Table>
void storage_t<DBO...>::copy_table(
sqlite3* db,
const std::string& sourceTableName,
const std::string& destinationTableName,
const Table& table,
const std::vector<const table_xinfo*>& columnsToIgnore) const { // must ignore generated columns
std::vector<std::reference_wrapper<const std::string>> columnNames;
columnNames.reserve(table.count_columns_amount());
table.for_each_column([&columnNames, &columnsToIgnore](const column_identifier& column) {
auto& columnName = column.name;
#if __cpp_lib_ranges >= 201911L
auto columnToIgnoreIt = std::ranges::find(columnsToIgnore, columnName, &table_xinfo::name);
#else
auto columnToIgnoreIt = std::find_if(columnsToIgnore.begin(),
columnsToIgnore.end(),
[&columnName](const table_xinfo* tableInfo) {
return columnName == tableInfo->name;
});
#endif
if(columnToIgnoreIt == columnsToIgnore.end()) {
columnNames.push_back(cref(columnName));
}
});
std::stringstream ss;
ss << "INSERT INTO " << streaming_identifier(destinationTableName) << " ("
<< streaming_identifiers(columnNames) << ") "
<< "SELECT " << streaming_identifiers(columnNames) << " FROM " << streaming_identifier(sourceTableName)
<< std::flush;
perform_void_exec(db, ss.str());
}
}
}
#pragma once
#if defined(_MSC_VER)
__pragma(pop_macro("max"))
__pragma(pop_macro("min"))
#endif // defined(_MSC_VER)
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