efl/src/bin/eolian_mono/eolian/mono/klass.hh

716 lines
33 KiB
C++

/*
* Copyright 2019 by its authors. See AUTHORS.
*
* Licensed under the Apache License, Version 2.0 (the "License");
* you may not use this file except in compliance with the License.
* You may obtain a copy of the License at
*
* http://www.apache.org/licenses/LICENSE-2.0
*
* Unless required by applicable law or agreed to in writing, software
* distributed under the License is distributed on an "AS IS" BASIS,
* WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
* See the License for the specific language governing permissions and
* limitations under the License.
*/
#ifndef EOLIAN_MONO_CLASS_DEFINITION_HPP
#define EOLIAN_MONO_CLASS_DEFINITION_HPP
#include "grammar/integral.hpp"
#include "grammar/generator.hpp"
#include "grammar/klass_def.hpp"
#include "grammar/attribute_conditional.hpp"
#include "blacklist.hh"
#include "grammar/indentation.hpp"
#include "grammar/list.hpp"
#include "grammar/alternative.hpp"
#include "type.hh"
#include "name_helpers.hh"
#include "async_function_definition.hh"
#include "function_definition.hh"
#include "function_registration.hh"
#include "function_declaration.hh"
#include "documentation.hh"
#include "part_definition.hh"
#include "events.hh"
#include "grammar/string.hpp"
#include "grammar/attribute_replace.hpp"
#include "grammar/integral.hpp"
#include "grammar/case.hpp"
#include "using_decl.hh"
#include "utils.hh"
#include <string>
#include <algorithm>
namespace eolian_mono {
template<typename Context>
static bool
is_inherit_context(Context const& context)
{
return context_find_tag<class_context>(context).current_wrapper_kind == class_context::inherit;
}
enum partial_class
{
class_partial = 1
};
struct klass
{
template <typename OutputIterator, typename Context>
bool generate(OutputIterator sink, attributes::klass_def const& cls, Context const& context) const
{
EINA_CXX_DOM_LOG_DBG(eolian_mono::domain) << "klass_generator: " << cls.eolian_name << std::endl;
auto const& indent = current_indentation(context);
if (blacklist::is_class_blacklisted(cls, context))
{
EINA_CXX_DOM_LOG_DBG(eolian_mono::domain) << "class " << cls.eolian_name << " is blacklisted. Skipping." << std::endl;
return true;
}
std::string suffix, class_type;
switch(cls.type)
{
case attributes::class_type::regular:
class_type = "class";
suffix = "CLASS";
break;
case attributes::class_type::abstract_:
class_type = "abstract class";
suffix = "CLASS";
break;
case attributes::class_type::mixin:
class_type = "interface";
suffix = "MIXIN";
break;
case attributes::class_type::interface_:
class_type = "interface";
suffix = "INTERFACE";
break;
}
if (!name_helpers::open_namespaces(sink, cls.namespaces, context))
return false;
auto methods = cls.get_all_methods();
// Interface class
if(class_type == "interface")
{
auto iface_cxt = context_add_tag(class_context{class_context::interface,
name_helpers::klass_full_concrete_or_interface_name(cls)},
context);
// Property wrappers
if (!as_generator(*(interface_property_indexer_definition(cls))).generate(sink, cls.properties, iface_cxt))
return false;
if(!as_generator(documentation(1)).generate(sink, cls, iface_cxt))
return false;
// Mark the interface with the proper native Efl_Class* getter
if(!as_generator(scope_tab << lit("[") << name_helpers::klass_full_native_inherit_name(cls) << "]\n")
.generate(sink, attributes::unused, iface_cxt))
return false;
if(!as_generator(scope_tab << "[Efl.Eo.BindingEntity]\n").generate(sink, attributes::unused, iface_cxt))
return false;
using efl::eolian::grammar::lit;
if(!as_generator
(
scope_tab << lit("public ") << (is_partial ? "partial ":"")
/*<< class_type*/ << "interface" /*<<*/ " " << string << " : "
)
.generate(sink, name_helpers::klass_interface_name(cls), iface_cxt))
return false;
for(auto first = std::begin(cls.immediate_inherits)
, last = std::end(cls.immediate_inherits); first != last; ++first)
{
if (!context_find_tag<options_context>(iface_cxt).want_beta && first->is_beta)
continue;
if(first->type != attributes::class_type::regular && first->type != attributes::class_type::abstract_)
if(!as_generator("\n" << scope_tab << string << ",").generate(sink, name_helpers::klass_full_interface_name(*first), iface_cxt))
return false;
}
if(!as_generator("\n" << scope_tab(2) << "Efl.Eo.IWrapper, IDisposable").generate(sink, attributes::unused, iface_cxt))
return false;
if(!as_generator("\n" << scope_tab << "{\n").generate(sink, attributes::unused, iface_cxt))
return false;
if(!as_generator(*(function_declaration)).generate(sink, cls.functions, iface_cxt))
return false;
if(!as_generator(*(async_function_declaration)).generate(sink, cls.functions, iface_cxt))
return false;
if(!as_generator(*(event_declaration)).generate(sink, cls.events, iface_cxt))
return false;
for (auto &&p : cls.parts)
if (!as_generator(
documentation(2)
<< name_helpers::klass_full_concrete_or_interface_name(p.klass) << " " << utils::capitalize(p.name) << "{ get;}\n"
).generate(sink, p, iface_cxt))
return false;
if (!as_generator(*(property_wrapper_definition(cls, cls))).generate(sink, cls.properties, iface_cxt))
return false;
// End of interface declaration
if(!as_generator(scope_tab << "}\n\n").generate(sink, attributes::unused, iface_cxt)) return false;
}
// Events arguments go in the top namespace to avoid the Concrete suffix clutter in interface events.
// Regular/abstract class events go here too for consistency.
if(!as_generator(*(event_argument_wrapper)).generate(sink, cls.events, context))
return false;
bool root = !helpers::has_regular_ancestor(cls);
std::set<attributes::klass_name, attributes::compare_klass_name_by_name> inherit_interfaces = helpers::non_implemented_interfaces(cls, context);
std::vector<attributes::klass_name> inherit_classes;
std::copy_if(cls.immediate_inherits.begin(), cls.immediate_inherits.end()
, std::back_inserter(inherit_classes)
, [] (attributes::klass_name const& klass)
{
switch (klass.type)
{
case attributes::class_type::regular:
case attributes::class_type::abstract_:
return true;
default:
return false;
};
});
// Concrete class for interfaces, mixins, etc.
if(class_type != "class" && class_type != "abstract class")
{
auto concrete_cxt = context_add_tag(class_context{class_context::concrete,
name_helpers::klass_full_concrete_or_interface_name(cls)},
context);
auto concrete_name = name_helpers::klass_concrete_name(cls);
auto interface_name = name_helpers::klass_interface_name(cls);
// We can't make these internal yet as they have methods that are used by
// other classes that implement the interface.
if(!as_generator
(
documentation(1)
<< scope_tab << "public sealed " << (is_partial ? "partial ":"") << "class " << concrete_name << " :\n"
<< scope_tab(2) << (root ? "Efl.Eo.EoWrapper" : "") << (klass_full_concrete_or_interface_name % "")
<< ",\n" << scope_tab(2) << interface_name
<< *(",\n" << scope_tab(2) << name_helpers::klass_full_concrete_or_interface_name) << "\n"
<< scope_tab << "{\n"
).generate(sink, std::make_tuple(cls, inherit_classes, inherit_interfaces), concrete_cxt))
return false;
if (!generate_fields(sink, cls, concrete_cxt))
return false;
if (!as_generator
(
scope_tab(2) << "/// <summary>Subclasses should override this constructor if they are expected to be instantiated from native code.\n"
<< scope_tab(2) << "/// Do not call this constructor directly.</summary>\n"
<< scope_tab(2) << "/// <param name=\"ch\">Tag struct storing the native handle of the object being constructed.</param>\n"
<< scope_tab(2) << "private " << concrete_name << "(ConstructingHandle ch) : base(ch)\n"
<< scope_tab(2) << "{\n"
<< scope_tab(2) << "}\n\n"
)
.generate(sink, attributes::unused, concrete_cxt))
return false;
if (!as_generator
(
scope_tab(2) << "[System.Runtime.InteropServices.DllImport(" << context_find_tag<library_context>(concrete_cxt).actual_library_name(cls.filename)
<< ")] internal static extern System.IntPtr\n"
<< scope_tab(2) << scope_tab << name_helpers::klass_get_name(cls) << "();\n\n"
<< scope_tab(2) << "/// <summary>Initializes a new instance of the <see cref=\"" << interface_name << "\"/> class.\n"
<< scope_tab(2) << "/// Internal usage: This is used when interacting with C code and should not be used directly.</summary>\n"
<< scope_tab(2) << "/// <param name=\"wh\">The native pointer to be wrapped.</param>\n"
<< scope_tab(2) << "private " << concrete_name << "(Efl.Eo.WrappingHandle wh) : base(wh)\n"
<< scope_tab(2) << "{\n"
<< scope_tab(2) << "}\n\n"
)
.generate(sink, attributes::unused, concrete_cxt))
return false;
if (!generate_events(sink, cls, concrete_cxt))
return false;
if (!as_generator(lit("#pragma warning disable CS0628\n")).generate(sink, attributes::unused, concrete_cxt))
return false;
// Parts
if(!as_generator(*(part_definition))
.generate(sink, cls.parts, concrete_cxt)) return false;
// Concrete function definitions
auto implemented_methods = helpers::get_all_implementable_methods(cls, concrete_cxt);
if(!as_generator(*(function_definition))
.generate(sink, implemented_methods, concrete_cxt)) return false;
// Async wrappers
if(!as_generator(*(async_function_definition)).generate(sink, implemented_methods, concrete_cxt))
return false;
// Property wrappers
if (!as_generator(*(property_wrapper_definition(cls, cls))).generate(sink, cls.properties, concrete_cxt))
return false;
for (auto&& klass : helpers::non_implemented_interfaces(cls, concrete_cxt))
{
attributes::klass_def c(get_klass(klass, cls.unit), cls.unit);
if (!as_generator(*(property_wrapper_definition(cls, c))).generate(sink, c.properties, concrete_cxt))
return false;
}
if (!as_generator(lit("#pragma warning restore CS0628\n")).generate(sink, attributes::unused, concrete_cxt))
return false;
// Copied from nativeinherit class, used when setting up providers.
if(!as_generator(
scope_tab(2) << "private static IntPtr GetEflClassStatic()\n"
<< scope_tab(2) << "{\n"
<< scope_tab(2) << scope_tab << "return " << name_helpers::klass_get_full_name(cls) << "();\n"
<< scope_tab(2) << "}\n\n"
).generate(sink, attributes::unused, concrete_cxt))
return false;
if(!generate_native_inherit_class(sink, cls, change_indentation(indent.inc(), concrete_cxt)))
return true;
if(!as_generator(scope_tab << "}\n").generate(sink, attributes::unused, concrete_cxt)) return false;
}
// Inheritable class
if(class_type == "class" || class_type == "abstract class")
{
auto inherit_cxt = context_add_tag(class_context{class_context::inherit,
name_helpers::klass_full_concrete_or_interface_name(cls)},
context);
// Class header
if(!as_generator
(
documentation(1)
<< scope_tab << "[" << name_helpers::klass_full_native_inherit_name(cls) << "]\n"
<< scope_tab << "[Efl.Eo.BindingEntity]\n"
<< scope_tab << "[SuppressMessage(\"Microsoft.Naming\", \"CA1724:TypeNamesShouldNotMatchNamespaces\")]\n"
<< scope_tab<< "public "
<< (is_partial
? class_type == "class"
? "partial class"
: "abstract partial class"
: class_type
)
<< " " << name_helpers::klass_concrete_name(cls) << " : "
<< (klass_full_concrete_or_interface_name % ",") // classes
<< (root ? "Efl.Eo.EoWrapper" : "") // ... or root
<< (inherit_interfaces.empty() ? "" : ", ")
<< (klass_full_concrete_or_interface_name % ", ") // interfaces
<< "\n" << scope_tab << "{\n"
)
.generate(sink, std::make_tuple(cls, inherit_classes, inherit_interfaces), inherit_cxt))
return false;
// Class body
if(!generate_fields(sink, cls, inherit_cxt))
return false;
if (!generate_constructors(sink, cls, inherit_cxt))
return false;
if (!generate_events(sink, cls, inherit_cxt))
return false;
// Parts
if(!as_generator(*(part_definition))
.generate(sink, cls.parts, inherit_cxt)) return false;
// Inherit function definitions
auto implemented_methods = helpers::get_all_implementable_methods(cls, inherit_cxt);
if(!as_generator(*(function_definition(true)))
.generate(sink, implemented_methods, inherit_cxt)) return false;
// Async wrappers
if(!as_generator(*(async_function_definition(true))).generate(sink, implemented_methods, inherit_cxt))
return false;
// Property wrappers
if (!as_generator(*(property_wrapper_definition(cls, cls))).generate(sink, cls.properties, inherit_cxt))
return false;
for (auto&& klass : helpers::non_implemented_interfaces(cls, inherit_cxt))
{
attributes::klass_def c(get_klass(klass, cls.unit), cls.unit);
if (!as_generator(*(property_wrapper_definition(cls, c))).generate(sink, c.properties, inherit_cxt))
return false;
}
// Copied from nativeinherit class, used when setting up providers.
if(!as_generator(
scope_tab(2) << "private static IntPtr GetEflClassStatic()\n"
<< scope_tab(2) << "{\n"
<< scope_tab(2) << scope_tab << "return " << name_helpers::klass_get_full_name(cls) << "();\n"
<< scope_tab(2) << "}\n\n"
).generate(sink, attributes::unused, inherit_cxt))
return false;
if(!generate_native_inherit_class(sink, cls, change_indentation(indent.inc(), inherit_cxt)))
return true;
if(!as_generator(scope_tab << "}\n").generate(sink, attributes::unused, inherit_cxt)) return false;
}
if(!name_helpers::close_namespaces(sink, cls.namespaces, context))
return false;
std::vector<attributes::property_def> implementable_properties;
std::copy(cls.properties.begin(), cls.properties.end(), std::back_inserter(implementable_properties));
for (auto&& klass : helpers::non_implemented_interfaces(cls, context))
{
attributes::klass_def c(get_klass(klass, cls.unit), cls.unit);
std::copy(c.properties.begin(), c.properties.end(), std::back_inserter(implementable_properties));
}
std::stringstream extension_method_stream;
std::ostream_iterator<char> extension_method_iterator(extension_method_stream);
if (!as_generator
(*property_extension_method_definition(cls)
<< *part_extension_method_definition(cls))
.generate(extension_method_iterator, std::make_tuple(implementable_properties, cls.parts), context))
return false;
if (extension_method_stream.tellp() <= 0)
return true;
if (!name_helpers::open_namespaces(sink, cls.namespaces, context))
return false;
if(!as_generator
(lit("#if EFL_BETA\n")
<< "#pragma warning disable CS1591\n" // Disabling warnings as DocFx will hide these classes
<< scope_tab << "public static class " << name_helpers::klass_concrete_name(cls)
<< "Extensions {\n"
<< extension_method_stream.str()
<< scope_tab << "}\n"
<< "#pragma warning restore CS1591\n"
<< "#endif\n")
.generate(sink, cls.namespaces, context))
return false;
if (!name_helpers::close_namespaces(sink, cls.namespaces, context))
return false;
return true;
}
// NativeInherit class. Contains function pointers for the native Eo methods and delegates that are registered in Eo as virtual method implementations
// These delegates are called from C to C#, checking whether the C# subclass reimplemented it.
template <typename OutputIterator, typename Context>
bool generate_native_inherit_class(OutputIterator sink, attributes::klass_def const& cls, Context const& context) const
{
{
auto inative_cxt = context_add_tag(class_context{class_context::inherit_native,
name_helpers::klass_full_concrete_or_interface_name(cls)},
context);
auto native_inherit_name = name_helpers::klass_native_inherit_name(cls);
auto inherit_name = name_helpers::klass_inherit_name(cls);
auto implementable_methods = helpers::get_all_registerable_methods(cls, context);
bool root = !helpers::has_regular_ancestor(cls);
auto const& indent = current_indentation(inative_cxt).inc();
std::string klass_since;
if (!documentation_helpers::generate_since_tag_line(std::back_inserter(klass_since), cls.documentation, indent, context))
return false;
std::string base_name;
if(!root)
{
attributes::klass_def parent_klass(get_klass(*cls.parent, cls.unit), cls.unit);
base_name = name_helpers::klass_full_native_inherit_name(parent_klass);
}
if(!as_generator
(
indent << lit("/// <summary>Wrapper for native methods and virtual method delegates.\n")
<< indent << "/// For internal use by generated code only.\n"
<< klass_since
<< indent << "/// </summary>\n"
<< indent << "[EditorBrowsable(EditorBrowsableState.Never)]\n"
<< indent << "internal new class " << native_inherit_name << " : " << (root ? "Efl.Eo.EoWrapper.NativeMethods" : base_name) << "\n"
<< indent << "{\n"
).generate(sink, attributes::unused, inative_cxt))
return false;
if(implementable_methods.size() >= 1)
{
if(!as_generator(
indent << scope_tab << "private static Efl.Eo.NativeModule Module = new Efl.Eo.NativeModule("
<< context_find_tag<library_context>(context).actual_library_name(cls.filename) << ");\n\n"
).generate(sink, attributes::unused, inative_cxt))
return false;
}
if(!as_generator(
indent << scope_tab << "/// <summary>Gets the list of Eo operations to override.\n"
<< klass_since
<< indent << "/// </summary>\n"
<< indent << scope_tab << "/// <returns>The list of Eo operations to be overload.</returns>\n"
<< indent << scope_tab << "internal override System.Collections.Generic.List<EflOpDescription> GetEoOps(System.Type type, bool includeInherited)\n"
<< indent << scope_tab << "{\n"
<< indent << scope_tab << scope_tab << "var descs = new System.Collections.Generic.List<EflOpDescription>();\n"
)
.generate(sink, attributes::unused, inative_cxt))
return false;
// Native wrapper registration
// We write them first to a temporary function as the implementable function list may contain
// only non-registrable methods like class functions, leading to unused `methods` variable.
std::string tmp_registration;
if(!as_generator(*(function_registration(cls)))
.generate(std::back_inserter(tmp_registration), implementable_methods, change_indentation(indent.inc(2), inative_cxt)))
return false;
if (tmp_registration.find("methods") != std::string::npos)
if (!as_generator(
indent << scope_tab << scope_tab << "var methods = Efl.Eo.Globals.GetUserMethods(type);\n\n"
<< tmp_registration
).generate(sink, attributes::unused, inative_cxt))
return false;
if(!as_generator(
indent << scope_tab << scope_tab << "if (includeInherited)\n"
<< indent << scope_tab(2) << "{\n"
<< indent << scope_tab(3) << "var all_interfaces = type.GetInterfaces();\n"
<< indent << scope_tab(3) << "foreach (var iface in all_interfaces)\n"
<< indent << scope_tab(3) << "{\n"
<< indent << scope_tab(4) << "var moredescs = ((Efl.Eo.NativeClass)iface.GetCustomAttributes(false)?.FirstOrDefault(attr => attr is Efl.Eo.NativeClass))?.GetEoOps(type, false);\n"
<< indent << scope_tab(4) << "if (moredescs != null)\n"
<< indent << scope_tab(5) << "descs.AddRange(moredescs);\n"
<< indent << scope_tab(3) << "}\n"
<< indent << scope_tab(2) << "}\n"
).generate(sink, attributes::unused, inative_cxt))
return false;
if (!root || context_find_tag<class_context>(context).current_wrapper_kind != class_context::concrete)
if(!as_generator(indent << scope_tab << scope_tab << "descs.AddRange(base.GetEoOps(type, false));\n").generate(sink, attributes::unused, inative_cxt))
return false;
if(!as_generator(
indent << scope_tab << scope_tab << "return descs;\n"
<< indent << scope_tab << "}\n\n"
).generate(sink, attributes::unused, inative_cxt))
return false;
if (!klass_since.empty())
klass_since = static_cast<std::string>(scope_tab(2)) + klass_since;
// Attribute getter of the native 'Efl_Class *' handle (for proper inheritance from additional explicit interfaces)
if(!as_generator(
indent << scope_tab << "/// <summary>Returns the Eo class for the native methods of this class.\n"
<< klass_since
<< indent << scope_tab << "/// </summary>\n"
<< indent << scope_tab << "/// <returns>The native class pointer.</returns>\n"
<< indent << scope_tab << "internal override IntPtr GetEflClass()\n"
<< indent << scope_tab << "{\n"
<< indent << scope_tab << scope_tab << "return " << name_helpers::klass_get_full_name(cls) << "();\n"
<< indent << scope_tab << "}\n\n"
).generate(sink, attributes::unused, inative_cxt))
return false;
// Native method definitions
if(!as_generator(
indent << scope_tab << "#pragma warning disable CA1707, CS1591, SA1300, SA1600\n\n"
<< *(native_function_definition(cls))
<< indent << scope_tab << "#pragma warning restore CA1707, CS1591, SA1300, SA1600\n\n")
.generate(sink, implementable_methods, change_indentation(indent.inc(), inative_cxt))) return false;
if(!as_generator(indent << "}\n").generate(sink, attributes::unused, inative_cxt)) return false;
}
return true;
}
template <typename OutputIterator, typename Context>
bool generate_fields(OutputIterator sink, attributes::klass_def const& cls, Context const& context) const
{
std::string visibility = is_inherit_context(context) ? "protected " : "private ";
std::string class_getter = name_helpers::klass_get_name(cls) + "()";
std::string native_inherit_full_name = name_helpers::klass_full_native_inherit_name(cls);
auto inherit_name = name_helpers::klass_concrete_name(cls);
if(!as_generator(
scope_tab(2) << "/// <summary>Pointer to the native class description.</summary>\n"
<< scope_tab(2) << "public override System.IntPtr NativeClass\n"
<< scope_tab(2) << "{\n"
<< scope_tab(2) << scope_tab << "get\n"
<< scope_tab(2) << scope_tab << "{\n"
<< scope_tab(2) << scope_tab << scope_tab << "if (((object)this).GetType() == typeof(" << inherit_name << "))\n"
<< scope_tab(2) << scope_tab << scope_tab << "{\n"
<< scope_tab(2) << scope_tab << scope_tab << scope_tab << "return GetEflClassStatic();\n"
<< scope_tab(2) << scope_tab << scope_tab << "}\n"
<< scope_tab(2) << scope_tab << scope_tab << "else\n"
<< scope_tab(2) << scope_tab << scope_tab << "{\n"
<< scope_tab(2) << scope_tab << scope_tab << scope_tab << "return Efl.Eo.ClassRegister.klassFromType[((object)this).GetType()];\n"
<< scope_tab(2) << scope_tab << scope_tab << "}\n"
<< scope_tab(2) << scope_tab << "}\n"
<< scope_tab(2) << "}\n\n"
).generate(sink, attributes::unused, context))
return false;
return true;
}
template <typename OutputIterator, typename Context>
bool generate_constructors(OutputIterator sink, attributes::klass_def const& cls, Context const& context) const
{
auto inherit_name = name_helpers::klass_concrete_name(cls);
if(!as_generator(
scope_tab(2) << "[System.Runtime.InteropServices.DllImport(" << context_find_tag<library_context>(context).actual_library_name(cls.filename)
<< ")] internal static extern System.IntPtr\n"
<< scope_tab(2) << scope_tab << name_helpers::klass_get_name(cls) << "();\n\n"
).generate(sink, attributes::unused, context))
return false;
auto all_constructors = helpers::reorder_constructors(cls.get_all_constructors());
decltype (all_constructors) constructors;
std::copy_if(all_constructors.cbegin(), all_constructors.cend(), std::back_inserter(constructors), [&context](attributes::constructor_def const& ctor) {
return !blacklist::is_function_blacklisted(ctor.function, context);
});
std::string klass_since;
if (!documentation_helpers::generate_since_tag_line(std::back_inserter(klass_since), cls.documentation, scope_tab(2), context))
return false;
// Public (API) constructors
if (!as_generator(
scope_tab(2) << "/// <summary>Initializes a new instance of the <see cref=\"" << inherit_name << "\"/> class.\n"
<< klass_since
<< scope_tab(2) << "/// </summary>\n"
<< scope_tab(2) << "/// <param name=\"parent\">Parent instance.</param>\n"
<< *(documentation(1))
// For constructors with arguments, the parent is also required, as optional parameters can't come before non-optional paramenters.
<< scope_tab(2) << "public " << inherit_name << "(Efl.Object parent" << ((constructors.size() > 0) ? "" : "= null")
<< *(", " << constructor_param ) << ") : "
<< "base(" << name_helpers::klass_get_name(cls) << "(), parent)\n"
<< scope_tab(2) << "{\n"
<< (*(scope_tab << scope_tab << constructor_invocation << "\n"))
<< scope_tab(2) << scope_tab << "FinishInstantiation();\n"
<< scope_tab(2) << "}\n\n"
<< scope_tab(2) << "/// <summary>Subclasses should override this constructor if they are expected to be instantiated from native code.\n"
<< scope_tab(2) << "/// Do not call this constructor directly.\n"
<< klass_since
<< scope_tab(2) << "/// </summary>\n"
<< scope_tab(2) << "/// <param name=\"ch\">Tag struct storing the native handle of the object being constructed.</param>\n"
<< scope_tab(2) << "protected " << inherit_name << "(ConstructingHandle ch) : base(ch)\n"
<< scope_tab(2) << "{\n"
<< scope_tab(2) << "}\n\n"
<< scope_tab(2) << "/// <summary>Initializes a new instance of the <see cref=\"" << inherit_name << "\"/> class.\n"
<< scope_tab(2) << "/// Internal usage: Constructs an instance from a native pointer. This is used when interacting with C code and should not be used directly.\n"
<< klass_since
<< scope_tab(2) << "/// </summary>\n"
<< scope_tab(2) << "/// <param name=\"wh\">The native pointer to be wrapped.</param>\n"
<< scope_tab(2) << "internal " << inherit_name << "(Efl.Eo.WrappingHandle wh) : base(wh)\n"
<< scope_tab(2) << "{\n"
<< scope_tab(2) << "}\n\n"
).generate(sink, std::make_tuple(constructors, constructors, constructors), context))
return false;
// Some abstract classes (like Efl.App) have a simple regular class that is used to instantiate them
// in a controlled manner. These fake-private classes can be returned from C and we use a similarly-named
// private class to be able to instantiate them when they get to the C# world.
if (cls.type == attributes::class_type::abstract_)
{
if (!as_generator(
scope_tab(2) << "[Efl.Eo.PrivateNativeClass]\n"
<< scope_tab(2) << "private class " << inherit_name << "Realized : " << inherit_name << "\n"
<< scope_tab(2) << "{\n"
<< scope_tab(2) << scope_tab << "private " << inherit_name << "Realized(Efl.Eo.WrappingHandle wh) : base(wh)\n"
<< scope_tab(2) << scope_tab << "{\n"
<< scope_tab(2) << scope_tab << "}\n"
<< scope_tab(2) << "}\n"
).generate(sink, attributes::unused, context))
return false;
}
return as_generator(
scope_tab(2) << "/// <summary>Initializes a new instance of the <see cref=\"" << inherit_name << "\"/> class.\n"
<< scope_tab(2) << "/// Internal usage: Constructor to forward the wrapper initialization to the root class that interfaces with native code. Should not be used directly.\n"
<< klass_since
<< scope_tab(2) << "/// </summary>\n"
<< scope_tab(2) << "/// <param name=\"baseKlass\">The pointer to the base native Eo class.</param>\n"
<< scope_tab(2) << "/// <param name=\"parent\">The Efl.Object parent of this instance.</param>\n"
<< scope_tab(2) << "protected " << inherit_name << "(IntPtr baseKlass, Efl.Object parent) : base(baseKlass, parent)\n"
<< scope_tab(2) << "{\n"
<< scope_tab(2) << "}\n\n"
).generate(sink, attributes::unused, context);
}
template <typename OutputIterator, typename Context>
bool generate_events(OutputIterator sink, attributes::klass_def const& cls, Context const& context) const
{
if (!has_events(cls))
return true;
// Self events
if (!as_generator(*(event_definition(cls, cls)) << "\n").generate(sink, cls.events, context))
return false;
// Inherited events
// For now, as mixins can inherit from regular classes, we can't filter out inherited events.
auto inherits = helpers::non_implemented_interfaces(cls, context);
for (auto&& c : inherits)
{
attributes::klass_def klass(get_klass(c, cls.unit), cls.unit);
if (!as_generator(*(event_definition(klass, cls))).generate(sink, klass.events, context))
return false;
}
return true;
}
bool is_partial;
klass const operator()(partial_class) const
{
return klass{true};
}
};
struct klass const klass = {false};
}
namespace efl { namespace eolian { namespace grammar {
template <>
struct is_eager_generator<struct ::eolian_mono::klass> : std::true_type {};
template <>
struct is_generator<struct ::eolian_mono::klass> : std::true_type {};
namespace type_traits {
template <>
struct attributes_needed<struct ::eolian_mono::klass> : std::integral_constant<int, 1> {};
}
} } }
#endif