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virtualx-engine/modules/mono/glue/runtime_interop.cpp

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C#: Move marshaling logic and generated glue to C# We will be progressively moving most code to C#. The plan is to only use Mono's embedding APIs to set things at launch. This will make it much easier to later support CoreCLR too which doesn't have rich embedding APIs. Additionally the code in C# is more maintainable and makes it easier to implement new features, e.g.: runtime codegen which we could use to avoid using reflection for marshaling everytime a field, property or method is accessed. SOME NOTES ON INTEROP We make the same assumptions as GDNative about the size of the Godot structures we use. We take it a bit further by also assuming the layout of fields in some cases, which is riskier but let's us squeeze out some performance by avoiding unnecessary managed to native calls. Code that deals with native structs is less safe than before as there's no RAII and copy constructors in C#. It's like using the GDNative C API directly. One has to take special care to free values they own. Perhaps we could use roslyn analyzers to check this, but I don't know any that uses attributes to determine what's owned or borrowed. As to why we maily use pointers for native structs instead of ref/out: - AFAIK (and confirmed with a benchmark) ref/out are pinned during P/Invoke calls and that has a cost. - Native struct fields can't be ref/out in the first place. - A `using` local can't be passed as ref/out, only `in`. Calling a method or property on an `in` value makes a silent copy, so we want to avoid `in`. REGARDING THE BUILD SYSTEM There's no longer a `mono_glue=yes/no` SCons options. We no longer need to build with `mono_glue=no`, generate the glue and then build again with `mono_glue=yes`. We build only once and generate the glue (which is in C# now). However, SCons no longer builds the C# projects for us. Instead one must run `build_assemblies.py`, e.g.: ```sh %godot_src_root%/modules/mono/build_scripts/build_assemblies.py \ --godot-output-dir=%godot_src_root%/bin \ --godot-target=release_debug` ``` We could turn this into a custom build target, but I don't know how to do that with SCons (it's possible with Meson). OTHER NOTES Most of the moved code doesn't follow the C# naming convention and still has the word Mono in the names despite no longer dealing with Mono's embedding APIs. This is just temporary while transitioning, to make it easier to understand what was moved where.
2021-05-03 15:21:06 +02:00
/*************************************************************************/
/* runtime_interop.cpp */
/*************************************************************************/
/* This file is part of: */
/* GODOT ENGINE */
/* https://godotengine.org */
/*************************************************************************/
C#: Begin move to .NET Core We're targeting .NET 5 for now to make development easier while .NET 6 is not yet released. TEMPORARY REGRESSIONS --------------------- Assembly unloading is not implemented yet. As such, many Godot resources are leaked at exit. This will be re-implemented later together with assembly hot-reloading.
2021-09-12 20:23:05 +02:00
/* Copyright (c) 2007-2022 Juan Linietsky, Ariel Manzur. */
/* Copyright (c) 2014-2022 Godot Engine contributors (cf. AUTHORS.md). */
C#: Move marshaling logic and generated glue to C# We will be progressively moving most code to C#. The plan is to only use Mono's embedding APIs to set things at launch. This will make it much easier to later support CoreCLR too which doesn't have rich embedding APIs. Additionally the code in C# is more maintainable and makes it easier to implement new features, e.g.: runtime codegen which we could use to avoid using reflection for marshaling everytime a field, property or method is accessed. SOME NOTES ON INTEROP We make the same assumptions as GDNative about the size of the Godot structures we use. We take it a bit further by also assuming the layout of fields in some cases, which is riskier but let's us squeeze out some performance by avoiding unnecessary managed to native calls. Code that deals with native structs is less safe than before as there's no RAII and copy constructors in C#. It's like using the GDNative C API directly. One has to take special care to free values they own. Perhaps we could use roslyn analyzers to check this, but I don't know any that uses attributes to determine what's owned or borrowed. As to why we maily use pointers for native structs instead of ref/out: - AFAIK (and confirmed with a benchmark) ref/out are pinned during P/Invoke calls and that has a cost. - Native struct fields can't be ref/out in the first place. - A `using` local can't be passed as ref/out, only `in`. Calling a method or property on an `in` value makes a silent copy, so we want to avoid `in`. REGARDING THE BUILD SYSTEM There's no longer a `mono_glue=yes/no` SCons options. We no longer need to build with `mono_glue=no`, generate the glue and then build again with `mono_glue=yes`. We build only once and generate the glue (which is in C# now). However, SCons no longer builds the C# projects for us. Instead one must run `build_assemblies.py`, e.g.: ```sh %godot_src_root%/modules/mono/build_scripts/build_assemblies.py \ --godot-output-dir=%godot_src_root%/bin \ --godot-target=release_debug` ``` We could turn this into a custom build target, but I don't know how to do that with SCons (it's possible with Meson). OTHER NOTES Most of the moved code doesn't follow the C# naming convention and still has the word Mono in the names despite no longer dealing with Mono's embedding APIs. This is just temporary while transitioning, to make it easier to understand what was moved where.
2021-05-03 15:21:06 +02:00
/* */
/* Permission is hereby granted, free of charge, to any person obtaining */
/* a copy of this software and associated documentation files (the */
/* "Software"), to deal in the Software without restriction, including */
/* without limitation the rights to use, copy, modify, merge, publish, */
/* distribute, sublicense, and/or sell copies of the Software, and to */
/* permit persons to whom the Software is furnished to do so, subject to */
/* the following conditions: */
/* */
/* The above copyright notice and this permission notice shall be */
/* included in all copies or substantial portions of the Software. */
/* */
/* THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND, */
/* EXPRESS OR IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF */
/* MERCHANTABILITY, FITNESS FOR A PARTICULAR PURPOSE AND NONINFRINGEMENT.*/
/* IN NO EVENT SHALL THE AUTHORS OR COPYRIGHT HOLDERS BE LIABLE FOR ANY */
/* CLAIM, DAMAGES OR OTHER LIABILITY, WHETHER IN AN ACTION OF CONTRACT, */
/* TORT OR OTHERWISE, ARISING FROM, OUT OF OR IN CONNECTION WITH THE */
/* SOFTWARE OR THE USE OR OTHER DEALINGS IN THE SOFTWARE. */
/*************************************************************************/
#include "core/config/engine.h"
C#: Re-introduce exception logging and error stack traces in editor These two had been disabled while moving to .NET 5, as the previous implementation relied on Mono embedding APIs.
2022-02-27 21:57:39 +01:00
#include "core/debugger/engine_debugger.h"
#include "core/debugger/script_debugger.h"
C#: Re-write GD and some other icalls as P/Invoke
2021-09-12 19:50:13 +02:00
#include "core/io/marshalls.h"
C#: Move marshaling logic and generated glue to C# We will be progressively moving most code to C#. The plan is to only use Mono's embedding APIs to set things at launch. This will make it much easier to later support CoreCLR too which doesn't have rich embedding APIs. Additionally the code in C# is more maintainable and makes it easier to implement new features, e.g.: runtime codegen which we could use to avoid using reflection for marshaling everytime a field, property or method is accessed. SOME NOTES ON INTEROP We make the same assumptions as GDNative about the size of the Godot structures we use. We take it a bit further by also assuming the layout of fields in some cases, which is riskier but let's us squeeze out some performance by avoiding unnecessary managed to native calls. Code that deals with native structs is less safe than before as there's no RAII and copy constructors in C#. It's like using the GDNative C API directly. One has to take special care to free values they own. Perhaps we could use roslyn analyzers to check this, but I don't know any that uses attributes to determine what's owned or borrowed. As to why we maily use pointers for native structs instead of ref/out: - AFAIK (and confirmed with a benchmark) ref/out are pinned during P/Invoke calls and that has a cost. - Native struct fields can't be ref/out in the first place. - A `using` local can't be passed as ref/out, only `in`. Calling a method or property on an `in` value makes a silent copy, so we want to avoid `in`. REGARDING THE BUILD SYSTEM There's no longer a `mono_glue=yes/no` SCons options. We no longer need to build with `mono_glue=no`, generate the glue and then build again with `mono_glue=yes`. We build only once and generate the glue (which is in C# now). However, SCons no longer builds the C# projects for us. Instead one must run `build_assemblies.py`, e.g.: ```sh %godot_src_root%/modules/mono/build_scripts/build_assemblies.py \ --godot-output-dir=%godot_src_root%/bin \ --godot-target=release_debug` ``` We could turn this into a custom build target, but I don't know how to do that with SCons (it's possible with Meson). OTHER NOTES Most of the moved code doesn't follow the C# naming convention and still has the word Mono in the names despite no longer dealing with Mono's embedding APIs. This is just temporary while transitioning, to make it easier to understand what was moved where.
2021-05-03 15:21:06 +02:00
#include "core/object/class_db.h"
#include "core/object/method_bind.h"
C#: Re-write GD and some other icalls as P/Invoke
2021-09-12 19:50:13 +02:00
#include "core/os/os.h"
C#: Move marshaling logic and generated glue to C# We will be progressively moving most code to C#. The plan is to only use Mono's embedding APIs to set things at launch. This will make it much easier to later support CoreCLR too which doesn't have rich embedding APIs. Additionally the code in C# is more maintainable and makes it easier to implement new features, e.g.: runtime codegen which we could use to avoid using reflection for marshaling everytime a field, property or method is accessed. SOME NOTES ON INTEROP We make the same assumptions as GDNative about the size of the Godot structures we use. We take it a bit further by also assuming the layout of fields in some cases, which is riskier but let's us squeeze out some performance by avoiding unnecessary managed to native calls. Code that deals with native structs is less safe than before as there's no RAII and copy constructors in C#. It's like using the GDNative C API directly. One has to take special care to free values they own. Perhaps we could use roslyn analyzers to check this, but I don't know any that uses attributes to determine what's owned or borrowed. As to why we maily use pointers for native structs instead of ref/out: - AFAIK (and confirmed with a benchmark) ref/out are pinned during P/Invoke calls and that has a cost. - Native struct fields can't be ref/out in the first place. - A `using` local can't be passed as ref/out, only `in`. Calling a method or property on an `in` value makes a silent copy, so we want to avoid `in`. REGARDING THE BUILD SYSTEM There's no longer a `mono_glue=yes/no` SCons options. We no longer need to build with `mono_glue=no`, generate the glue and then build again with `mono_glue=yes`. We build only once and generate the glue (which is in C# now). However, SCons no longer builds the C# projects for us. Instead one must run `build_assemblies.py`, e.g.: ```sh %godot_src_root%/modules/mono/build_scripts/build_assemblies.py \ --godot-output-dir=%godot_src_root%/bin \ --godot-target=release_debug` ``` We could turn this into a custom build target, but I don't know how to do that with SCons (it's possible with Meson). OTHER NOTES Most of the moved code doesn't follow the C# naming convention and still has the word Mono in the names despite no longer dealing with Mono's embedding APIs. This is just temporary while transitioning, to make it easier to understand what was moved where.
2021-05-03 15:21:06 +02:00
#include "core/string/string_name.h"
#include "../interop_types.h"
C#: Begin move to .NET Core We're targeting .NET 5 for now to make development easier while .NET 6 is not yet released. TEMPORARY REGRESSIONS --------------------- Assembly unloading is not implemented yet. As such, many Godot resources are leaked at exit. This will be re-implemented later together with assembly hot-reloading.
2021-09-12 20:23:05 +02:00
#include "modules/mono/csharp_script.h"
C#: Move marshaling logic and generated glue to C# We will be progressively moving most code to C#. The plan is to only use Mono's embedding APIs to set things at launch. This will make it much easier to later support CoreCLR too which doesn't have rich embedding APIs. Additionally the code in C# is more maintainable and makes it easier to implement new features, e.g.: runtime codegen which we could use to avoid using reflection for marshaling everytime a field, property or method is accessed. SOME NOTES ON INTEROP We make the same assumptions as GDNative about the size of the Godot structures we use. We take it a bit further by also assuming the layout of fields in some cases, which is riskier but let's us squeeze out some performance by avoiding unnecessary managed to native calls. Code that deals with native structs is less safe than before as there's no RAII and copy constructors in C#. It's like using the GDNative C API directly. One has to take special care to free values they own. Perhaps we could use roslyn analyzers to check this, but I don't know any that uses attributes to determine what's owned or borrowed. As to why we maily use pointers for native structs instead of ref/out: - AFAIK (and confirmed with a benchmark) ref/out are pinned during P/Invoke calls and that has a cost. - Native struct fields can't be ref/out in the first place. - A `using` local can't be passed as ref/out, only `in`. Calling a method or property on an `in` value makes a silent copy, so we want to avoid `in`. REGARDING THE BUILD SYSTEM There's no longer a `mono_glue=yes/no` SCons options. We no longer need to build with `mono_glue=no`, generate the glue and then build again with `mono_glue=yes`. We build only once and generate the glue (which is in C# now). However, SCons no longer builds the C# projects for us. Instead one must run `build_assemblies.py`, e.g.: ```sh %godot_src_root%/modules/mono/build_scripts/build_assemblies.py \ --godot-output-dir=%godot_src_root%/bin \ --godot-target=release_debug` ``` We could turn this into a custom build target, but I don't know how to do that with SCons (it's possible with Meson). OTHER NOTES Most of the moved code doesn't follow the C# naming convention and still has the word Mono in the names despite no longer dealing with Mono's embedding APIs. This is just temporary while transitioning, to make it easier to understand what was moved where.
2021-05-03 15:21:06 +02:00
#include "modules/mono/managed_callable.h"
C#: Begin move to .NET Core We're targeting .NET 5 for now to make development easier while .NET 6 is not yet released. TEMPORARY REGRESSIONS --------------------- Assembly unloading is not implemented yet. As such, many Godot resources are leaked at exit. This will be re-implemented later together with assembly hot-reloading.
2021-09-12 20:23:05 +02:00
#include "modules/mono/mono_gd/gd_mono_cache.h"
C#: Move marshaling logic and generated glue to C# We will be progressively moving most code to C#. The plan is to only use Mono's embedding APIs to set things at launch. This will make it much easier to later support CoreCLR too which doesn't have rich embedding APIs. Additionally the code in C# is more maintainable and makes it easier to implement new features, e.g.: runtime codegen which we could use to avoid using reflection for marshaling everytime a field, property or method is accessed. SOME NOTES ON INTEROP We make the same assumptions as GDNative about the size of the Godot structures we use. We take it a bit further by also assuming the layout of fields in some cases, which is riskier but let's us squeeze out some performance by avoiding unnecessary managed to native calls. Code that deals with native structs is less safe than before as there's no RAII and copy constructors in C#. It's like using the GDNative C API directly. One has to take special care to free values they own. Perhaps we could use roslyn analyzers to check this, but I don't know any that uses attributes to determine what's owned or borrowed. As to why we maily use pointers for native structs instead of ref/out: - AFAIK (and confirmed with a benchmark) ref/out are pinned during P/Invoke calls and that has a cost. - Native struct fields can't be ref/out in the first place. - A `using` local can't be passed as ref/out, only `in`. Calling a method or property on an `in` value makes a silent copy, so we want to avoid `in`. REGARDING THE BUILD SYSTEM There's no longer a `mono_glue=yes/no` SCons options. We no longer need to build with `mono_glue=no`, generate the glue and then build again with `mono_glue=yes`. We build only once and generate the glue (which is in C# now). However, SCons no longer builds the C# projects for us. Instead one must run `build_assemblies.py`, e.g.: ```sh %godot_src_root%/modules/mono/build_scripts/build_assemblies.py \ --godot-output-dir=%godot_src_root%/bin \ --godot-target=release_debug` ``` We could turn this into a custom build target, but I don't know how to do that with SCons (it's possible with Meson). OTHER NOTES Most of the moved code doesn't follow the C# naming convention and still has the word Mono in the names despite no longer dealing with Mono's embedding APIs. This is just temporary while transitioning, to make it easier to understand what was moved where.
2021-05-03 15:21:06 +02:00
#include "modules/mono/signal_awaiter_utils.h"
#ifdef __cplusplus
extern "C" {
#endif
#ifdef __cplusplus
#define MAYBE_UNUSED [[maybe_unused]]
#else
#define MAYBE_UNUSED
#endif
#ifdef __GNUC__
#define GD_PINVOKE_EXPORT MAYBE_UNUSED __attribute__((visibility("default")))
#elif defined(_WIN32)
#define GD_PINVOKE_EXPORT MAYBE_UNUSED __declspec(dllexport)
#else
#define GD_PINVOKE_EXPORT MAYBE_UNUSED
#endif
C#: Re-write Array, Dictionary, NodePath, String icalls as P/Invoke
2021-09-12 19:49:39 +02:00
// For ArrayPrivate and DictionaryPrivate
static_assert(sizeof(SafeRefCount) == sizeof(uint32_t));
C#: Move marshaling logic and generated glue to C# We will be progressively moving most code to C#. The plan is to only use Mono's embedding APIs to set things at launch. This will make it much easier to later support CoreCLR too which doesn't have rich embedding APIs. Additionally the code in C# is more maintainable and makes it easier to implement new features, e.g.: runtime codegen which we could use to avoid using reflection for marshaling everytime a field, property or method is accessed. SOME NOTES ON INTEROP We make the same assumptions as GDNative about the size of the Godot structures we use. We take it a bit further by also assuming the layout of fields in some cases, which is riskier but let's us squeeze out some performance by avoiding unnecessary managed to native calls. Code that deals with native structs is less safe than before as there's no RAII and copy constructors in C#. It's like using the GDNative C API directly. One has to take special care to free values they own. Perhaps we could use roslyn analyzers to check this, but I don't know any that uses attributes to determine what's owned or borrowed. As to why we maily use pointers for native structs instead of ref/out: - AFAIK (and confirmed with a benchmark) ref/out are pinned during P/Invoke calls and that has a cost. - Native struct fields can't be ref/out in the first place. - A `using` local can't be passed as ref/out, only `in`. Calling a method or property on an `in` value makes a silent copy, so we want to avoid `in`. REGARDING THE BUILD SYSTEM There's no longer a `mono_glue=yes/no` SCons options. We no longer need to build with `mono_glue=no`, generate the glue and then build again with `mono_glue=yes`. We build only once and generate the glue (which is in C# now). However, SCons no longer builds the C# projects for us. Instead one must run `build_assemblies.py`, e.g.: ```sh %godot_src_root%/modules/mono/build_scripts/build_assemblies.py \ --godot-output-dir=%godot_src_root%/bin \ --godot-target=release_debug` ``` We could turn this into a custom build target, but I don't know how to do that with SCons (it's possible with Meson). OTHER NOTES Most of the moved code doesn't follow the C# naming convention and still has the word Mono in the names despite no longer dealing with Mono's embedding APIs. This is just temporary while transitioning, to make it easier to understand what was moved where.
2021-05-03 15:21:06 +02:00
typedef Object *(*godotsharp_class_creation_func)();
C#: Add initial implementation of source generator for script members This replaces the way we invoke methods and set/get properties. This first iteration rids us of runtime type checking in those cases, as it's now done at compile time. Later it will also stop needing the use of reflection. After that, we will only depend on reflection for generic Godot Array and Dictionary. We're stuck with reflection in generic collections for now as C# doesn't support generic/template specialization. This is only the initial implementation. Further iterations are coming, specially once we switch to the native extension system which completely changes the way members are accessed/invoked. For example, with the native extension system we will likely need to create `UnmanagedCallersOnly` invoke wrapper methods and return function pointers to the engine. Other kind of members, like event signals will be receiving the same treatment in the future.
2021-12-28 23:25:16 +01:00
GD_PINVOKE_EXPORT MethodBind *godotsharp_method_bind_get_method(const StringName *p_classname, const StringName *p_methodname) {
return ClassDB::get_method(*p_classname, *p_methodname);
C#: Move marshaling logic and generated glue to C# We will be progressively moving most code to C#. The plan is to only use Mono's embedding APIs to set things at launch. This will make it much easier to later support CoreCLR too which doesn't have rich embedding APIs. Additionally the code in C# is more maintainable and makes it easier to implement new features, e.g.: runtime codegen which we could use to avoid using reflection for marshaling everytime a field, property or method is accessed. SOME NOTES ON INTEROP We make the same assumptions as GDNative about the size of the Godot structures we use. We take it a bit further by also assuming the layout of fields in some cases, which is riskier but let's us squeeze out some performance by avoiding unnecessary managed to native calls. Code that deals with native structs is less safe than before as there's no RAII and copy constructors in C#. It's like using the GDNative C API directly. One has to take special care to free values they own. Perhaps we could use roslyn analyzers to check this, but I don't know any that uses attributes to determine what's owned or borrowed. As to why we maily use pointers for native structs instead of ref/out: - AFAIK (and confirmed with a benchmark) ref/out are pinned during P/Invoke calls and that has a cost. - Native struct fields can't be ref/out in the first place. - A `using` local can't be passed as ref/out, only `in`. Calling a method or property on an `in` value makes a silent copy, so we want to avoid `in`. REGARDING THE BUILD SYSTEM There's no longer a `mono_glue=yes/no` SCons options. We no longer need to build with `mono_glue=no`, generate the glue and then build again with `mono_glue=yes`. We build only once and generate the glue (which is in C# now). However, SCons no longer builds the C# projects for us. Instead one must run `build_assemblies.py`, e.g.: ```sh %godot_src_root%/modules/mono/build_scripts/build_assemblies.py \ --godot-output-dir=%godot_src_root%/bin \ --godot-target=release_debug` ``` We could turn this into a custom build target, but I don't know how to do that with SCons (it's possible with Meson). OTHER NOTES Most of the moved code doesn't follow the C# naming convention and still has the word Mono in the names despite no longer dealing with Mono's embedding APIs. This is just temporary while transitioning, to make it easier to understand what was moved where.
2021-05-03 15:21:06 +02:00
}
GD_PINVOKE_EXPORT godotsharp_class_creation_func godotsharp_get_class_constructor(const StringName *p_classname) {
ClassDB::ClassInfo *class_info = ClassDB::classes.getptr(*p_classname);
if (class_info) {
return class_info->creation_func;
}
return nullptr;
}
GD_PINVOKE_EXPORT Object *godotsharp_engine_get_singleton(const String *p_name) {
return Engine::get_singleton()->get_singleton_object(*p_name);
}
C#: Re-introduce exception logging and error stack traces in editor These two had been disabled while moving to .NET 5, as the previous implementation relied on Mono embedding APIs.
2022-02-27 21:57:39 +01:00
GD_PINVOKE_EXPORT int32_t godotsharp_stack_info_vector_resize(
Vector<ScriptLanguage::StackInfo> *p_stack_info_vector, int p_size) {
return (int32_t)p_stack_info_vector->resize(p_size);
}
GD_PINVOKE_EXPORT void godotsharp_stack_info_vector_destroy(
Vector<ScriptLanguage::StackInfo> *p_stack_info_vector) {
p_stack_info_vector->~Vector();
}
GD_PINVOKE_EXPORT void godotsharp_internal_script_debugger_send_error(const String *p_func,
const String *p_file, int32_t p_line, const String *p_err, const String *p_descr,
bool p_warning, const Vector<ScriptLanguage::StackInfo> *p_stack_info_vector) {
EngineDebugger::get_script_debugger()->send_error(*p_func, *p_file, p_line, *p_err, *p_descr,
true, p_warning ? ERR_HANDLER_WARNING : ERR_HANDLER_ERROR, *p_stack_info_vector);
}
GD_PINVOKE_EXPORT bool godotsharp_internal_script_debugger_is_active() {
return EngineDebugger::is_active();
}
C#: Add source generator for properties and exports default values The editor no longer needs to create temporary instances to get the default values. The initializer values of the exported properties are still evaluated at runtime. For example, in the following example, `GetInitialValue()` will be called when first looks for default values: ``` [Export] int MyValue = GetInitialValue(); ``` Exporting fields with a non-supported type now results in a compiler error rather than a runtime error when the script is used.
2022-02-27 21:57:30 +01:00
GD_PINVOKE_EXPORT GCHandleIntPtr godotsharp_internal_object_get_associated_gchandle(Object *p_ptr) {
C#: Begin move to .NET Core We're targeting .NET 5 for now to make development easier while .NET 6 is not yet released. TEMPORARY REGRESSIONS --------------------- Assembly unloading is not implemented yet. As such, many Godot resources are leaked at exit. This will be re-implemented later together with assembly hot-reloading.
2021-09-12 20:23:05 +02:00
#ifdef DEBUG_ENABLED
CRASH_COND(p_ptr == nullptr);
#endif
if (p_ptr->get_script_instance()) {
CSharpInstance *cs_instance = CAST_CSHARP_INSTANCE(p_ptr->get_script_instance());
if (cs_instance) {
if (!cs_instance->is_destructing_script_instance()) {
C#: Add source generator for properties and exports default values The editor no longer needs to create temporary instances to get the default values. The initializer values of the exported properties are still evaluated at runtime. For example, in the following example, `GetInitialValue()` will be called when first looks for default values: ``` [Export] int MyValue = GetInitialValue(); ``` Exporting fields with a non-supported type now results in a compiler error rather than a runtime error when the script is used.
2022-02-27 21:57:30 +01:00
return cs_instance->get_gchandle_intptr();
}
return { nullptr };
}
}
void *data = CSharpLanguage::get_existing_instance_binding(p_ptr);
if (data) {
CSharpScriptBinding &script_binding = ((RBMap<Object *, CSharpScriptBinding>::Element *)data)->get();
if (script_binding.inited) {
MonoGCHandleData &gchandle = script_binding.gchandle;
return !gchandle.is_released() ? gchandle.get_intptr() : GCHandleIntPtr{ nullptr };
}
}
return { nullptr };
}
GD_PINVOKE_EXPORT void godotsharp_internal_object_disposed(Object *p_ptr, GCHandleIntPtr p_gchandle_to_free) {
#ifdef DEBUG_ENABLED
CRASH_COND(p_ptr == nullptr);
#endif
if (p_ptr->get_script_instance()) {
CSharpInstance *cs_instance = CAST_CSHARP_INSTANCE(p_ptr->get_script_instance());
if (cs_instance) {
if (!cs_instance->is_destructing_script_instance()) {
cs_instance->mono_object_disposed(p_gchandle_to_free);
C#: Begin move to .NET Core We're targeting .NET 5 for now to make development easier while .NET 6 is not yet released. TEMPORARY REGRESSIONS --------------------- Assembly unloading is not implemented yet. As such, many Godot resources are leaked at exit. This will be re-implemented later together with assembly hot-reloading.
2021-09-12 20:23:05 +02:00
p_ptr->set_script_instance(nullptr);
}
return;
}
}
void *data = CSharpLanguage::get_existing_instance_binding(p_ptr);
if (data) {
CSharpScriptBinding &script_binding = ((RBMap<Object *, CSharpScriptBinding>::Element *)data)->get();
if (script_binding.inited) {
C#: Add source generator for properties and exports default values The editor no longer needs to create temporary instances to get the default values. The initializer values of the exported properties are still evaluated at runtime. For example, in the following example, `GetInitialValue()` will be called when first looks for default values: ``` [Export] int MyValue = GetInitialValue(); ``` Exporting fields with a non-supported type now results in a compiler error rather than a runtime error when the script is used.
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if (!script_binding.gchandle.is_released()) {
CSharpLanguage::release_binding_gchandle_thread_safe(p_gchandle_to_free, script_binding);
C#: Begin move to .NET Core We're targeting .NET 5 for now to make development easier while .NET 6 is not yet released. TEMPORARY REGRESSIONS --------------------- Assembly unloading is not implemented yet. As such, many Godot resources are leaked at exit. This will be re-implemented later together with assembly hot-reloading.
2021-09-12 20:23:05 +02:00
}
}
}
}
C#: Add source generator for properties and exports default values The editor no longer needs to create temporary instances to get the default values. The initializer values of the exported properties are still evaluated at runtime. For example, in the following example, `GetInitialValue()` will be called when first looks for default values: ``` [Export] int MyValue = GetInitialValue(); ``` Exporting fields with a non-supported type now results in a compiler error rather than a runtime error when the script is used.
2022-02-27 21:57:30 +01:00
GD_PINVOKE_EXPORT void godotsharp_internal_refcounted_disposed(Object *p_ptr, GCHandleIntPtr p_gchandle_to_free, bool p_is_finalizer) {
C#: Begin move to .NET Core We're targeting .NET 5 for now to make development easier while .NET 6 is not yet released. TEMPORARY REGRESSIONS --------------------- Assembly unloading is not implemented yet. As such, many Godot resources are leaked at exit. This will be re-implemented later together with assembly hot-reloading.
2021-09-12 20:23:05 +02:00
#ifdef DEBUG_ENABLED
CRASH_COND(p_ptr == nullptr);
// This is only called with RefCounted derived classes
CRASH_COND(!Object::cast_to<RefCounted>(p_ptr));
#endif
RefCounted *rc = static_cast<RefCounted *>(p_ptr);
if (rc->get_script_instance()) {
CSharpInstance *cs_instance = CAST_CSHARP_INSTANCE(rc->get_script_instance());
if (cs_instance) {
if (!cs_instance->is_destructing_script_instance()) {
bool delete_owner;
bool remove_script_instance;
C#: Add source generator for properties and exports default values The editor no longer needs to create temporary instances to get the default values. The initializer values of the exported properties are still evaluated at runtime. For example, in the following example, `GetInitialValue()` will be called when first looks for default values: ``` [Export] int MyValue = GetInitialValue(); ``` Exporting fields with a non-supported type now results in a compiler error rather than a runtime error when the script is used.
2022-02-27 21:57:30 +01:00
cs_instance->mono_object_disposed_baseref(p_gchandle_to_free, p_is_finalizer,
delete_owner, remove_script_instance);
C#: Begin move to .NET Core We're targeting .NET 5 for now to make development easier while .NET 6 is not yet released. TEMPORARY REGRESSIONS --------------------- Assembly unloading is not implemented yet. As such, many Godot resources are leaked at exit. This will be re-implemented later together with assembly hot-reloading.
2021-09-12 20:23:05 +02:00
if (delete_owner) {
memdelete(rc);
} else if (remove_script_instance) {
rc->set_script_instance(nullptr);
}
}
return;
}
}
// Unsafe refcount decrement. The managed instance also counts as a reference.
// See: CSharpLanguage::alloc_instance_binding_data(Object *p_object)
CSharpLanguage::get_singleton()->pre_unsafe_unreference(rc);
if (rc->unreference()) {
memdelete(rc);
} else {
void *data = CSharpLanguage::get_existing_instance_binding(rc);
if (data) {
CSharpScriptBinding &script_binding = ((RBMap<Object *, CSharpScriptBinding>::Element *)data)->get();
if (script_binding.inited) {
C#: Add source generator for properties and exports default values The editor no longer needs to create temporary instances to get the default values. The initializer values of the exported properties are still evaluated at runtime. For example, in the following example, `GetInitialValue()` will be called when first looks for default values: ``` [Export] int MyValue = GetInitialValue(); ``` Exporting fields with a non-supported type now results in a compiler error rather than a runtime error when the script is used.
2022-02-27 21:57:30 +01:00
if (!script_binding.gchandle.is_released()) {
CSharpLanguage::release_binding_gchandle_thread_safe(p_gchandle_to_free, script_binding);
C#: Begin move to .NET Core We're targeting .NET 5 for now to make development easier while .NET 6 is not yet released. TEMPORARY REGRESSIONS --------------------- Assembly unloading is not implemented yet. As such, many Godot resources are leaked at exit. This will be re-implemented later together with assembly hot-reloading.
2021-09-12 20:23:05 +02:00
}
}
}
}
}
GD_PINVOKE_EXPORT int32_t godotsharp_internal_signal_awaiter_connect(Object *p_source, StringName *p_signal, Object *p_target, GCHandleIntPtr p_awaiter_handle_ptr) {
StringName signal = p_signal ? *p_signal : StringName();
return (int32_t)gd_mono_connect_signal_awaiter(p_source, signal, p_target, p_awaiter_handle_ptr);
}
GD_PINVOKE_EXPORT GCHandleIntPtr godotsharp_internal_unmanaged_get_script_instance_managed(Object *p_unmanaged, bool *r_has_cs_script_instance) {
#ifdef DEBUG_ENABLED
CRASH_COND(!p_unmanaged);
CRASH_COND(!r_has_cs_script_instance);
#endif
if (p_unmanaged->get_script_instance()) {
CSharpInstance *cs_instance = CAST_CSHARP_INSTANCE(p_unmanaged->get_script_instance());
if (cs_instance) {
*r_has_cs_script_instance = true;
return cs_instance->get_gchandle_intptr();
}
}
*r_has_cs_script_instance = false;
C#: Add source generator for properties and exports default values The editor no longer needs to create temporary instances to get the default values. The initializer values of the exported properties are still evaluated at runtime. For example, in the following example, `GetInitialValue()` will be called when first looks for default values: ``` [Export] int MyValue = GetInitialValue(); ``` Exporting fields with a non-supported type now results in a compiler error rather than a runtime error when the script is used.
2022-02-27 21:57:30 +01:00
return { nullptr };
C#: Begin move to .NET Core We're targeting .NET 5 for now to make development easier while .NET 6 is not yet released. TEMPORARY REGRESSIONS --------------------- Assembly unloading is not implemented yet. As such, many Godot resources are leaked at exit. This will be re-implemented later together with assembly hot-reloading.
2021-09-12 20:23:05 +02:00
}
GD_PINVOKE_EXPORT GCHandleIntPtr godotsharp_internal_unmanaged_get_instance_binding_managed(Object *p_unmanaged) {
#ifdef DEBUG_ENABLED
CRASH_COND(!p_unmanaged);
#endif
void *data = CSharpLanguage::get_instance_binding(p_unmanaged);
C#: Add source generator for properties and exports default values The editor no longer needs to create temporary instances to get the default values. The initializer values of the exported properties are still evaluated at runtime. For example, in the following example, `GetInitialValue()` will be called when first looks for default values: ``` [Export] int MyValue = GetInitialValue(); ``` Exporting fields with a non-supported type now results in a compiler error rather than a runtime error when the script is used.
2022-02-27 21:57:30 +01:00
ERR_FAIL_NULL_V(data, { nullptr });
C#: Begin move to .NET Core We're targeting .NET 5 for now to make development easier while .NET 6 is not yet released. TEMPORARY REGRESSIONS --------------------- Assembly unloading is not implemented yet. As such, many Godot resources are leaked at exit. This will be re-implemented later together with assembly hot-reloading.
2021-09-12 20:23:05 +02:00
CSharpScriptBinding &script_binding = ((RBMap<Object *, CSharpScriptBinding>::Element *)data)->value();
C#: Add source generator for properties and exports default values The editor no longer needs to create temporary instances to get the default values. The initializer values of the exported properties are still evaluated at runtime. For example, in the following example, `GetInitialValue()` will be called when first looks for default values: ``` [Export] int MyValue = GetInitialValue(); ``` Exporting fields with a non-supported type now results in a compiler error rather than a runtime error when the script is used.
2022-02-27 21:57:30 +01:00
ERR_FAIL_COND_V(!script_binding.inited, { nullptr });
C#: Begin move to .NET Core We're targeting .NET 5 for now to make development easier while .NET 6 is not yet released. TEMPORARY REGRESSIONS --------------------- Assembly unloading is not implemented yet. As such, many Godot resources are leaked at exit. This will be re-implemented later together with assembly hot-reloading.
2021-09-12 20:23:05 +02:00
return script_binding.gchandle.get_intptr();
}
GD_PINVOKE_EXPORT GCHandleIntPtr godotsharp_internal_unmanaged_instance_binding_create_managed(Object *p_unmanaged, GCHandleIntPtr p_old_gchandle) {
#ifdef DEBUG_ENABLED
CRASH_COND(!p_unmanaged);
#endif
void *data = CSharpLanguage::get_instance_binding(p_unmanaged);
C#: Add source generator for properties and exports default values The editor no longer needs to create temporary instances to get the default values. The initializer values of the exported properties are still evaluated at runtime. For example, in the following example, `GetInitialValue()` will be called when first looks for default values: ``` [Export] int MyValue = GetInitialValue(); ``` Exporting fields with a non-supported type now results in a compiler error rather than a runtime error when the script is used.
2022-02-27 21:57:30 +01:00
ERR_FAIL_NULL_V(data, { nullptr });
C#: Begin move to .NET Core We're targeting .NET 5 for now to make development easier while .NET 6 is not yet released. TEMPORARY REGRESSIONS --------------------- Assembly unloading is not implemented yet. As such, many Godot resources are leaked at exit. This will be re-implemented later together with assembly hot-reloading.
2021-09-12 20:23:05 +02:00
CSharpScriptBinding &script_binding = ((RBMap<Object *, CSharpScriptBinding>::Element *)data)->value();
C#: Add source generator for properties and exports default values The editor no longer needs to create temporary instances to get the default values. The initializer values of the exported properties are still evaluated at runtime. For example, in the following example, `GetInitialValue()` will be called when first looks for default values: ``` [Export] int MyValue = GetInitialValue(); ``` Exporting fields with a non-supported type now results in a compiler error rather than a runtime error when the script is used.
2022-02-27 21:57:30 +01:00
ERR_FAIL_COND_V(!script_binding.inited, { nullptr });
C#: Begin move to .NET Core We're targeting .NET 5 for now to make development easier while .NET 6 is not yet released. TEMPORARY REGRESSIONS --------------------- Assembly unloading is not implemented yet. As such, many Godot resources are leaked at exit. This will be re-implemented later together with assembly hot-reloading.
2021-09-12 20:23:05 +02:00
MonoGCHandleData &gchandle = script_binding.gchandle;
// TODO: Possible data race?
CRASH_COND(gchandle.get_intptr().value != p_old_gchandle.value);
CSharpLanguage::get_singleton()->release_script_gchandle(gchandle);
script_binding.inited = false;
// Create a new one
#ifdef DEBUG_ENABLED
CRASH_COND(script_binding.type_name == StringName());
#endif
bool parent_is_object_class = ClassDB::is_parent_class(p_unmanaged->get_class_name(), script_binding.type_name);
C#: Add source generator for properties and exports default values The editor no longer needs to create temporary instances to get the default values. The initializer values of the exported properties are still evaluated at runtime. For example, in the following example, `GetInitialValue()` will be called when first looks for default values: ``` [Export] int MyValue = GetInitialValue(); ``` Exporting fields with a non-supported type now results in a compiler error rather than a runtime error when the script is used.
2022-02-27 21:57:30 +01:00
ERR_FAIL_COND_V_MSG(!parent_is_object_class, { nullptr },
C#: Begin move to .NET Core We're targeting .NET 5 for now to make development easier while .NET 6 is not yet released. TEMPORARY REGRESSIONS --------------------- Assembly unloading is not implemented yet. As such, many Godot resources are leaked at exit. This will be re-implemented later together with assembly hot-reloading.
2021-09-12 20:23:05 +02:00
"Type inherits from native type '" + script_binding.type_name + "', so it can't be instantiated in object of type: '" + p_unmanaged->get_class() + "'.");
GCHandleIntPtr strong_gchandle =
GDMonoCache::managed_callbacks.ScriptManagerBridge_CreateManagedForGodotObjectBinding(
&script_binding.type_name, p_unmanaged);
C#: Add source generator for properties and exports default values The editor no longer needs to create temporary instances to get the default values. The initializer values of the exported properties are still evaluated at runtime. For example, in the following example, `GetInitialValue()` will be called when first looks for default values: ``` [Export] int MyValue = GetInitialValue(); ``` Exporting fields with a non-supported type now results in a compiler error rather than a runtime error when the script is used.
2022-02-27 21:57:30 +01:00
ERR_FAIL_NULL_V(strong_gchandle.value, { nullptr });
C#: Begin move to .NET Core We're targeting .NET 5 for now to make development easier while .NET 6 is not yet released. TEMPORARY REGRESSIONS --------------------- Assembly unloading is not implemented yet. As such, many Godot resources are leaked at exit. This will be re-implemented later together with assembly hot-reloading.
2021-09-12 20:23:05 +02:00
gchandle = MonoGCHandleData(strong_gchandle, gdmono::GCHandleType::STRONG_HANDLE);
script_binding.inited = true;
// Tie managed to unmanaged
RefCounted *rc = Object::cast_to<RefCounted>(p_unmanaged);
if (rc) {
// Unsafe refcount increment. The managed instance also counts as a reference.
// This way if the unmanaged world has no references to our owner
// but the managed instance is alive, the refcount will be 1 instead of 0.
// See: godot_icall_RefCounted_Dtor(MonoObject *p_obj, Object *p_ptr)
rc->reference();
CSharpLanguage::get_singleton()->post_unsafe_reference(rc);
}
return gchandle.get_intptr();
}
GD_PINVOKE_EXPORT void godotsharp_internal_tie_native_managed_to_unmanaged(GCHandleIntPtr p_gchandle_intptr, Object *p_unmanaged, const StringName *p_native_name, bool p_ref_counted) {
CSharpLanguage::tie_native_managed_to_unmanaged(p_gchandle_intptr, p_unmanaged, p_native_name, p_ref_counted);
}
C#: Ensure we only create one CSharpScript per type Previously, for each scripts class instance that was created from code rather than by the engine, we were constructing, configuring and assigning a new CSharpScript. This has changed now and we make sure there's only one CSharpScript associated to each type.
2022-02-27 21:57:36 +01:00
GD_PINVOKE_EXPORT void godotsharp_internal_tie_user_managed_to_unmanaged(GCHandleIntPtr p_gchandle_intptr, Object *p_unmanaged, Ref<CSharpScript> *p_script, bool p_ref_counted) {
C#: Begin move to .NET Core We're targeting .NET 5 for now to make development easier while .NET 6 is not yet released. TEMPORARY REGRESSIONS --------------------- Assembly unloading is not implemented yet. As such, many Godot resources are leaked at exit. This will be re-implemented later together with assembly hot-reloading.
2021-09-12 20:23:05 +02:00
CSharpLanguage::tie_user_managed_to_unmanaged(p_gchandle_intptr, p_unmanaged, p_script, p_ref_counted);
}
GD_PINVOKE_EXPORT void godotsharp_internal_tie_managed_to_unmanaged_with_pre_setup(GCHandleIntPtr p_gchandle_intptr, Object *p_unmanaged) {
CSharpLanguage::tie_managed_to_unmanaged_with_pre_setup(p_gchandle_intptr, p_unmanaged);
}
C#: Ensure we only create one CSharpScript per type Previously, for each scripts class instance that was created from code rather than by the engine, we were constructing, configuring and assigning a new CSharpScript. This has changed now and we make sure there's only one CSharpScript associated to each type.
2022-02-27 21:57:36 +01:00
GD_PINVOKE_EXPORT void godotsharp_internal_new_csharp_script(Ref<CSharpScript> *r_dest) {
memnew_placement(r_dest, Ref<CSharpScript>(memnew(CSharpScript)));
}
C#: Re-implement assembly reloading with ALCs
2022-05-28 04:56:46 +02:00
GD_PINVOKE_EXPORT bool godotsharp_internal_script_load(const String *p_path, Ref<CSharpScript> *r_dest) {
Ref<Resource> res = ResourceLoader::load(*p_path);
if (res.is_valid()) {
memnew_placement(r_dest, Ref<CSharpScript>(res));
return true;
} else {
memnew_placement(r_dest, Ref<CSharpScript>());
return false;
}
}
C#: Ensure we only create one CSharpScript per type Previously, for each scripts class instance that was created from code rather than by the engine, we were constructing, configuring and assigning a new CSharpScript. This has changed now and we make sure there's only one CSharpScript associated to each type.
2022-02-27 21:57:36 +01:00
GD_PINVOKE_EXPORT void godotsharp_internal_reload_registered_script(CSharpScript *p_script) {
CRASH_COND(!p_script);
CSharpScript::reload_registered_script(Ref<CSharpScript>(p_script));
C#: Begin move to .NET Core We're targeting .NET 5 for now to make development easier while .NET 6 is not yet released. TEMPORARY REGRESSIONS --------------------- Assembly unloading is not implemented yet. As such, many Godot resources are leaked at exit. This will be re-implemented later together with assembly hot-reloading.
2021-09-12 20:23:05 +02:00
}
GD_PINVOKE_EXPORT void godotsharp_array_filter_godot_objects_by_native(StringName *p_native_name, const Array *p_input, Array *r_output) {
memnew_placement(r_output, Array);
for (int i = 0; i < p_input->size(); ++i) {
if (ClassDB::is_parent_class(((Object *)(*p_input)[i])->get_class(), *p_native_name)) {
r_output->push_back(p_input[i]);
}
}
}
GD_PINVOKE_EXPORT void godotsharp_array_filter_godot_objects_by_non_native(const Array *p_input, Array *r_output) {
memnew_placement(r_output, Array);
for (int i = 0; i < p_input->size(); ++i) {
CSharpInstance *si = CAST_CSHARP_INSTANCE(((Object *)(*p_input)[i])->get_script_instance());
if (si != nullptr) {
r_output->push_back(p_input[i]);
}
}
}
C#: Ensure we only create one CSharpScript per type Previously, for each scripts class instance that was created from code rather than by the engine, we were constructing, configuring and assigning a new CSharpScript. This has changed now and we make sure there's only one CSharpScript associated to each type.
2022-02-27 21:57:36 +01:00
GD_PINVOKE_EXPORT void godotsharp_ref_new_from_ref_counted_ptr(Ref<RefCounted> *r_dest, RefCounted *p_ref_counted_ptr) {
memnew_placement(r_dest, Ref<RefCounted>(p_ref_counted_ptr));
}
C#: Move marshaling logic and generated glue to C# We will be progressively moving most code to C#. The plan is to only use Mono's embedding APIs to set things at launch. This will make it much easier to later support CoreCLR too which doesn't have rich embedding APIs. Additionally the code in C# is more maintainable and makes it easier to implement new features, e.g.: runtime codegen which we could use to avoid using reflection for marshaling everytime a field, property or method is accessed. SOME NOTES ON INTEROP We make the same assumptions as GDNative about the size of the Godot structures we use. We take it a bit further by also assuming the layout of fields in some cases, which is riskier but let's us squeeze out some performance by avoiding unnecessary managed to native calls. Code that deals with native structs is less safe than before as there's no RAII and copy constructors in C#. It's like using the GDNative C API directly. One has to take special care to free values they own. Perhaps we could use roslyn analyzers to check this, but I don't know any that uses attributes to determine what's owned or borrowed. As to why we maily use pointers for native structs instead of ref/out: - AFAIK (and confirmed with a benchmark) ref/out are pinned during P/Invoke calls and that has a cost. - Native struct fields can't be ref/out in the first place. - A `using` local can't be passed as ref/out, only `in`. Calling a method or property on an `in` value makes a silent copy, so we want to avoid `in`. REGARDING THE BUILD SYSTEM There's no longer a `mono_glue=yes/no` SCons options. We no longer need to build with `mono_glue=no`, generate the glue and then build again with `mono_glue=yes`. We build only once and generate the glue (which is in C# now). However, SCons no longer builds the C# projects for us. Instead one must run `build_assemblies.py`, e.g.: ```sh %godot_src_root%/modules/mono/build_scripts/build_assemblies.py \ --godot-output-dir=%godot_src_root%/bin \ --godot-target=release_debug` ``` We could turn this into a custom build target, but I don't know how to do that with SCons (it's possible with Meson). OTHER NOTES Most of the moved code doesn't follow the C# naming convention and still has the word Mono in the names despite no longer dealing with Mono's embedding APIs. This is just temporary while transitioning, to make it easier to understand what was moved where.
2021-05-03 15:21:06 +02:00
GD_PINVOKE_EXPORT void godotsharp_ref_destroy(Ref<RefCounted> *p_instance) {
p_instance->~Ref();
}
GD_PINVOKE_EXPORT void godotsharp_string_name_new_from_string(StringName *r_dest, const String *p_name) {
memnew_placement(r_dest, StringName(*p_name));
}
GD_PINVOKE_EXPORT void godotsharp_node_path_new_from_string(NodePath *r_dest, const String *p_name) {
memnew_placement(r_dest, NodePath(*p_name));
}
GD_PINVOKE_EXPORT void godotsharp_string_name_as_string(String *r_dest, const StringName *p_name) {
memnew_placement(r_dest, String(p_name->operator String()));
}
GD_PINVOKE_EXPORT void godotsharp_node_path_as_string(String *r_dest, const NodePath *p_np) {
memnew_placement(r_dest, String(p_np->operator String()));
}
GD_PINVOKE_EXPORT godot_packed_array godotsharp_packed_byte_array_new_mem_copy(const uint8_t *p_src, int32_t p_length) {
godot_packed_array ret;
memnew_placement(&ret, PackedByteArray);
PackedByteArray *array = reinterpret_cast<PackedByteArray *>(&ret);
array->resize(p_length);
uint8_t *dst = array->ptrw();
memcpy(dst, p_src, p_length * sizeof(uint8_t));
return ret;
}
GD_PINVOKE_EXPORT godot_packed_array godotsharp_packed_int32_array_new_mem_copy(const int32_t *p_src, int32_t p_length) {
godot_packed_array ret;
memnew_placement(&ret, PackedInt32Array);
PackedInt32Array *array = reinterpret_cast<PackedInt32Array *>(&ret);
array->resize(p_length);
int32_t *dst = array->ptrw();
memcpy(dst, p_src, p_length * sizeof(int32_t));
return ret;
}
GD_PINVOKE_EXPORT godot_packed_array godotsharp_packed_int64_array_new_mem_copy(const int64_t *p_src, int32_t p_length) {
godot_packed_array ret;
memnew_placement(&ret, PackedInt64Array);
PackedInt64Array *array = reinterpret_cast<PackedInt64Array *>(&ret);
array->resize(p_length);
int64_t *dst = array->ptrw();
memcpy(dst, p_src, p_length * sizeof(int64_t));
return ret;
}
GD_PINVOKE_EXPORT godot_packed_array godotsharp_packed_float32_array_new_mem_copy(const float *p_src, int32_t p_length) {
godot_packed_array ret;
memnew_placement(&ret, PackedFloat32Array);
PackedFloat32Array *array = reinterpret_cast<PackedFloat32Array *>(&ret);
array->resize(p_length);
float *dst = array->ptrw();
memcpy(dst, p_src, p_length * sizeof(float));
return ret;
}
GD_PINVOKE_EXPORT godot_packed_array godotsharp_packed_float64_array_new_mem_copy(const double *p_src, int32_t p_length) {
godot_packed_array ret;
memnew_placement(&ret, PackedFloat64Array);
PackedFloat64Array *array = reinterpret_cast<PackedFloat64Array *>(&ret);
array->resize(p_length);
double *dst = array->ptrw();
memcpy(dst, p_src, p_length * sizeof(double));
return ret;
}
GD_PINVOKE_EXPORT godot_packed_array godotsharp_packed_vector2_array_new_mem_copy(const Vector2 *p_src, int32_t p_length) {
godot_packed_array ret;
memnew_placement(&ret, PackedVector2Array);
PackedVector2Array *array = reinterpret_cast<PackedVector2Array *>(&ret);
array->resize(p_length);
Vector2 *dst = array->ptrw();
memcpy(dst, p_src, p_length * sizeof(Vector2));
return ret;
}
GD_PINVOKE_EXPORT godot_packed_array godotsharp_packed_vector3_array_new_mem_copy(const Vector3 *p_src, int32_t p_length) {
godot_packed_array ret;
memnew_placement(&ret, PackedVector3Array);
PackedVector3Array *array = reinterpret_cast<PackedVector3Array *>(&ret);
array->resize(p_length);
Vector3 *dst = array->ptrw();
memcpy(dst, p_src, p_length * sizeof(Vector3));
return ret;
}
GD_PINVOKE_EXPORT godot_packed_array godotsharp_packed_color_array_new_mem_copy(const Color *p_src, int32_t p_length) {
godot_packed_array ret;
memnew_placement(&ret, PackedColorArray);
PackedColorArray *array = reinterpret_cast<PackedColorArray *>(&ret);
array->resize(p_length);
Color *dst = array->ptrw();
memcpy(dst, p_src, p_length * sizeof(Color));
return ret;
}
GD_PINVOKE_EXPORT void godotsharp_packed_string_array_add(PackedStringArray *r_dest, const String *p_element) {
r_dest->append(*p_element);
}
C#: Restructure code prior move to .NET Core The main focus here was to remove the majority of code that relied on Mono's embedding APIs, specially the reflection APIs. The embedding APIs we still use are the bare minimum we need for things to work. A lot of code was moved to C#. We no longer deal with any managed objects (`MonoObject*`, and such) in native code, and all marshaling is done in C#. The reason for restructuring the code and move away from embedding APIs is that once we move to .NET Core, we will be limited by the much more minimal .NET hosting. PERFORMANCE REGRESSIONS ----------------------- Some parts of the code were written with little to no concern about performance. This includes code that calls into script methods and accesses script fields, properties and events. The reason for this is that all of that will be moved to source generators, so any work prior to that would be a waste of time. DISABLED FEATURES ----------------- Some code was removed as it no longer makes sense (or won't make sense in the future). Other parts were commented out with `#if 0`s and TODO warnings because it doesn't make much sense to work on them yet as those parts will change heavily when we switch to .NET Core but also when we start introducing source generators. As such, the following features were disabled temporarily: - Assembly-reloading (will be done with ALCs in .NET Core). - Properties/fields exports and script method listing (will be handled by source generators in the future). - Exception logging in the editor and stack info for errors. - Exporting games. - Building of C# projects. We no longer copy the Godot API assemblies to the project directory, so MSBuild won't be able to find them. The idea is to turn them into NuGet packages in the future, which could also be obtained from local NuGet sources during development.
2021-09-12 20:21:15 +02:00
GD_PINVOKE_EXPORT void godotsharp_callable_new_with_delegate(GCHandleIntPtr p_delegate_handle, Callable *r_callable) {
C#: Move marshaling logic and generated glue to C# We will be progressively moving most code to C#. The plan is to only use Mono's embedding APIs to set things at launch. This will make it much easier to later support CoreCLR too which doesn't have rich embedding APIs. Additionally the code in C# is more maintainable and makes it easier to implement new features, e.g.: runtime codegen which we could use to avoid using reflection for marshaling everytime a field, property or method is accessed. SOME NOTES ON INTEROP We make the same assumptions as GDNative about the size of the Godot structures we use. We take it a bit further by also assuming the layout of fields in some cases, which is riskier but let's us squeeze out some performance by avoiding unnecessary managed to native calls. Code that deals with native structs is less safe than before as there's no RAII and copy constructors in C#. It's like using the GDNative C API directly. One has to take special care to free values they own. Perhaps we could use roslyn analyzers to check this, but I don't know any that uses attributes to determine what's owned or borrowed. As to why we maily use pointers for native structs instead of ref/out: - AFAIK (and confirmed with a benchmark) ref/out are pinned during P/Invoke calls and that has a cost. - Native struct fields can't be ref/out in the first place. - A `using` local can't be passed as ref/out, only `in`. Calling a method or property on an `in` value makes a silent copy, so we want to avoid `in`. REGARDING THE BUILD SYSTEM There's no longer a `mono_glue=yes/no` SCons options. We no longer need to build with `mono_glue=no`, generate the glue and then build again with `mono_glue=yes`. We build only once and generate the glue (which is in C# now). However, SCons no longer builds the C# projects for us. Instead one must run `build_assemblies.py`, e.g.: ```sh %godot_src_root%/modules/mono/build_scripts/build_assemblies.py \ --godot-output-dir=%godot_src_root%/bin \ --godot-target=release_debug` ``` We could turn this into a custom build target, but I don't know how to do that with SCons (it's possible with Meson). OTHER NOTES Most of the moved code doesn't follow the C# naming convention and still has the word Mono in the names despite no longer dealing with Mono's embedding APIs. This is just temporary while transitioning, to make it easier to understand what was moved where.
2021-05-03 15:21:06 +02:00
// TODO: Use pooling for ManagedCallable instances.
CallableCustom *managed_callable = memnew(ManagedCallable(p_delegate_handle));
C#: Re-write Array, Dictionary, NodePath, String icalls as P/Invoke
2021-09-12 19:49:39 +02:00
memnew_placement(r_callable, Callable(managed_callable));
C#: Move marshaling logic and generated glue to C# We will be progressively moving most code to C#. The plan is to only use Mono's embedding APIs to set things at launch. This will make it much easier to later support CoreCLR too which doesn't have rich embedding APIs. Additionally the code in C# is more maintainable and makes it easier to implement new features, e.g.: runtime codegen which we could use to avoid using reflection for marshaling everytime a field, property or method is accessed. SOME NOTES ON INTEROP We make the same assumptions as GDNative about the size of the Godot structures we use. We take it a bit further by also assuming the layout of fields in some cases, which is riskier but let's us squeeze out some performance by avoiding unnecessary managed to native calls. Code that deals with native structs is less safe than before as there's no RAII and copy constructors in C#. It's like using the GDNative C API directly. One has to take special care to free values they own. Perhaps we could use roslyn analyzers to check this, but I don't know any that uses attributes to determine what's owned or borrowed. As to why we maily use pointers for native structs instead of ref/out: - AFAIK (and confirmed with a benchmark) ref/out are pinned during P/Invoke calls and that has a cost. - Native struct fields can't be ref/out in the first place. - A `using` local can't be passed as ref/out, only `in`. Calling a method or property on an `in` value makes a silent copy, so we want to avoid `in`. REGARDING THE BUILD SYSTEM There's no longer a `mono_glue=yes/no` SCons options. We no longer need to build with `mono_glue=no`, generate the glue and then build again with `mono_glue=yes`. We build only once and generate the glue (which is in C# now). However, SCons no longer builds the C# projects for us. Instead one must run `build_assemblies.py`, e.g.: ```sh %godot_src_root%/modules/mono/build_scripts/build_assemblies.py \ --godot-output-dir=%godot_src_root%/bin \ --godot-target=release_debug` ``` We could turn this into a custom build target, but I don't know how to do that with SCons (it's possible with Meson). OTHER NOTES Most of the moved code doesn't follow the C# naming convention and still has the word Mono in the names despite no longer dealing with Mono's embedding APIs. This is just temporary while transitioning, to make it easier to understand what was moved where.
2021-05-03 15:21:06 +02:00
}
GD_PINVOKE_EXPORT bool godotsharp_callable_get_data_for_marshalling(const Callable *p_callable,
C#: Restructure code prior move to .NET Core The main focus here was to remove the majority of code that relied on Mono's embedding APIs, specially the reflection APIs. The embedding APIs we still use are the bare minimum we need for things to work. A lot of code was moved to C#. We no longer deal with any managed objects (`MonoObject*`, and such) in native code, and all marshaling is done in C#. The reason for restructuring the code and move away from embedding APIs is that once we move to .NET Core, we will be limited by the much more minimal .NET hosting. PERFORMANCE REGRESSIONS ----------------------- Some parts of the code were written with little to no concern about performance. This includes code that calls into script methods and accesses script fields, properties and events. The reason for this is that all of that will be moved to source generators, so any work prior to that would be a waste of time. DISABLED FEATURES ----------------- Some code was removed as it no longer makes sense (or won't make sense in the future). Other parts were commented out with `#if 0`s and TODO warnings because it doesn't make much sense to work on them yet as those parts will change heavily when we switch to .NET Core but also when we start introducing source generators. As such, the following features were disabled temporarily: - Assembly-reloading (will be done with ALCs in .NET Core). - Properties/fields exports and script method listing (will be handled by source generators in the future). - Exception logging in the editor and stack info for errors. - Exporting games. - Building of C# projects. We no longer copy the Godot API assemblies to the project directory, so MSBuild won't be able to find them. The idea is to turn them into NuGet packages in the future, which could also be obtained from local NuGet sources during development.
2021-09-12 20:21:15 +02:00
GCHandleIntPtr *r_delegate_handle, Object **r_object, StringName *r_name) {
C#: Move marshaling logic and generated glue to C# We will be progressively moving most code to C#. The plan is to only use Mono's embedding APIs to set things at launch. This will make it much easier to later support CoreCLR too which doesn't have rich embedding APIs. Additionally the code in C# is more maintainable and makes it easier to implement new features, e.g.: runtime codegen which we could use to avoid using reflection for marshaling everytime a field, property or method is accessed. SOME NOTES ON INTEROP We make the same assumptions as GDNative about the size of the Godot structures we use. We take it a bit further by also assuming the layout of fields in some cases, which is riskier but let's us squeeze out some performance by avoiding unnecessary managed to native calls. Code that deals with native structs is less safe than before as there's no RAII and copy constructors in C#. It's like using the GDNative C API directly. One has to take special care to free values they own. Perhaps we could use roslyn analyzers to check this, but I don't know any that uses attributes to determine what's owned or borrowed. As to why we maily use pointers for native structs instead of ref/out: - AFAIK (and confirmed with a benchmark) ref/out are pinned during P/Invoke calls and that has a cost. - Native struct fields can't be ref/out in the first place. - A `using` local can't be passed as ref/out, only `in`. Calling a method or property on an `in` value makes a silent copy, so we want to avoid `in`. REGARDING THE BUILD SYSTEM There's no longer a `mono_glue=yes/no` SCons options. We no longer need to build with `mono_glue=no`, generate the glue and then build again with `mono_glue=yes`. We build only once and generate the glue (which is in C# now). However, SCons no longer builds the C# projects for us. Instead one must run `build_assemblies.py`, e.g.: ```sh %godot_src_root%/modules/mono/build_scripts/build_assemblies.py \ --godot-output-dir=%godot_src_root%/bin \ --godot-target=release_debug` ``` We could turn this into a custom build target, but I don't know how to do that with SCons (it's possible with Meson). OTHER NOTES Most of the moved code doesn't follow the C# naming convention and still has the word Mono in the names despite no longer dealing with Mono's embedding APIs. This is just temporary while transitioning, to make it easier to understand what was moved where.
2021-05-03 15:21:06 +02:00
if (p_callable->is_custom()) {
CallableCustom *custom = p_callable->get_custom();
CallableCustom::CompareEqualFunc compare_equal_func = custom->get_compare_equal_func();
if (compare_equal_func == ManagedCallable::compare_equal_func_ptr) {
ManagedCallable *managed_callable = static_cast<ManagedCallable *>(custom);
*r_delegate_handle = managed_callable->get_delegate();
*r_object = nullptr;
C#: Re-write Array, Dictionary, NodePath, String icalls as P/Invoke
2021-09-12 19:49:39 +02:00
memnew_placement(r_name, StringName());
C#: Move marshaling logic and generated glue to C# We will be progressively moving most code to C#. The plan is to only use Mono's embedding APIs to set things at launch. This will make it much easier to later support CoreCLR too which doesn't have rich embedding APIs. Additionally the code in C# is more maintainable and makes it easier to implement new features, e.g.: runtime codegen which we could use to avoid using reflection for marshaling everytime a field, property or method is accessed. SOME NOTES ON INTEROP We make the same assumptions as GDNative about the size of the Godot structures we use. We take it a bit further by also assuming the layout of fields in some cases, which is riskier but let's us squeeze out some performance by avoiding unnecessary managed to native calls. Code that deals with native structs is less safe than before as there's no RAII and copy constructors in C#. It's like using the GDNative C API directly. One has to take special care to free values they own. Perhaps we could use roslyn analyzers to check this, but I don't know any that uses attributes to determine what's owned or borrowed. As to why we maily use pointers for native structs instead of ref/out: - AFAIK (and confirmed with a benchmark) ref/out are pinned during P/Invoke calls and that has a cost. - Native struct fields can't be ref/out in the first place. - A `using` local can't be passed as ref/out, only `in`. Calling a method or property on an `in` value makes a silent copy, so we want to avoid `in`. REGARDING THE BUILD SYSTEM There's no longer a `mono_glue=yes/no` SCons options. We no longer need to build with `mono_glue=no`, generate the glue and then build again with `mono_glue=yes`. We build only once and generate the glue (which is in C# now). However, SCons no longer builds the C# projects for us. Instead one must run `build_assemblies.py`, e.g.: ```sh %godot_src_root%/modules/mono/build_scripts/build_assemblies.py \ --godot-output-dir=%godot_src_root%/bin \ --godot-target=release_debug` ``` We could turn this into a custom build target, but I don't know how to do that with SCons (it's possible with Meson). OTHER NOTES Most of the moved code doesn't follow the C# naming convention and still has the word Mono in the names despite no longer dealing with Mono's embedding APIs. This is just temporary while transitioning, to make it easier to understand what was moved where.
2021-05-03 15:21:06 +02:00
return true;
} else if (compare_equal_func == SignalAwaiterCallable::compare_equal_func_ptr) {
SignalAwaiterCallable *signal_awaiter_callable = static_cast<SignalAwaiterCallable *>(custom);
C#: Add source generator for properties and exports default values The editor no longer needs to create temporary instances to get the default values. The initializer values of the exported properties are still evaluated at runtime. For example, in the following example, `GetInitialValue()` will be called when first looks for default values: ``` [Export] int MyValue = GetInitialValue(); ``` Exporting fields with a non-supported type now results in a compiler error rather than a runtime error when the script is used.
2022-02-27 21:57:30 +01:00
*r_delegate_handle = { nullptr };
C#: Move marshaling logic and generated glue to C# We will be progressively moving most code to C#. The plan is to only use Mono's embedding APIs to set things at launch. This will make it much easier to later support CoreCLR too which doesn't have rich embedding APIs. Additionally the code in C# is more maintainable and makes it easier to implement new features, e.g.: runtime codegen which we could use to avoid using reflection for marshaling everytime a field, property or method is accessed. SOME NOTES ON INTEROP We make the same assumptions as GDNative about the size of the Godot structures we use. We take it a bit further by also assuming the layout of fields in some cases, which is riskier but let's us squeeze out some performance by avoiding unnecessary managed to native calls. Code that deals with native structs is less safe than before as there's no RAII and copy constructors in C#. It's like using the GDNative C API directly. One has to take special care to free values they own. Perhaps we could use roslyn analyzers to check this, but I don't know any that uses attributes to determine what's owned or borrowed. As to why we maily use pointers for native structs instead of ref/out: - AFAIK (and confirmed with a benchmark) ref/out are pinned during P/Invoke calls and that has a cost. - Native struct fields can't be ref/out in the first place. - A `using` local can't be passed as ref/out, only `in`. Calling a method or property on an `in` value makes a silent copy, so we want to avoid `in`. REGARDING THE BUILD SYSTEM There's no longer a `mono_glue=yes/no` SCons options. We no longer need to build with `mono_glue=no`, generate the glue and then build again with `mono_glue=yes`. We build only once and generate the glue (which is in C# now). However, SCons no longer builds the C# projects for us. Instead one must run `build_assemblies.py`, e.g.: ```sh %godot_src_root%/modules/mono/build_scripts/build_assemblies.py \ --godot-output-dir=%godot_src_root%/bin \ --godot-target=release_debug` ``` We could turn this into a custom build target, but I don't know how to do that with SCons (it's possible with Meson). OTHER NOTES Most of the moved code doesn't follow the C# naming convention and still has the word Mono in the names despite no longer dealing with Mono's embedding APIs. This is just temporary while transitioning, to make it easier to understand what was moved where.
2021-05-03 15:21:06 +02:00
*r_object = ObjectDB::get_instance(signal_awaiter_callable->get_object());
C#: Re-write Array, Dictionary, NodePath, String icalls as P/Invoke
2021-09-12 19:49:39 +02:00
memnew_placement(r_name, StringName(signal_awaiter_callable->get_signal()));
C#: Move marshaling logic and generated glue to C# We will be progressively moving most code to C#. The plan is to only use Mono's embedding APIs to set things at launch. This will make it much easier to later support CoreCLR too which doesn't have rich embedding APIs. Additionally the code in C# is more maintainable and makes it easier to implement new features, e.g.: runtime codegen which we could use to avoid using reflection for marshaling everytime a field, property or method is accessed. SOME NOTES ON INTEROP We make the same assumptions as GDNative about the size of the Godot structures we use. We take it a bit further by also assuming the layout of fields in some cases, which is riskier but let's us squeeze out some performance by avoiding unnecessary managed to native calls. Code that deals with native structs is less safe than before as there's no RAII and copy constructors in C#. It's like using the GDNative C API directly. One has to take special care to free values they own. Perhaps we could use roslyn analyzers to check this, but I don't know any that uses attributes to determine what's owned or borrowed. As to why we maily use pointers for native structs instead of ref/out: - AFAIK (and confirmed with a benchmark) ref/out are pinned during P/Invoke calls and that has a cost. - Native struct fields can't be ref/out in the first place. - A `using` local can't be passed as ref/out, only `in`. Calling a method or property on an `in` value makes a silent copy, so we want to avoid `in`. REGARDING THE BUILD SYSTEM There's no longer a `mono_glue=yes/no` SCons options. We no longer need to build with `mono_glue=no`, generate the glue and then build again with `mono_glue=yes`. We build only once and generate the glue (which is in C# now). However, SCons no longer builds the C# projects for us. Instead one must run `build_assemblies.py`, e.g.: ```sh %godot_src_root%/modules/mono/build_scripts/build_assemblies.py \ --godot-output-dir=%godot_src_root%/bin \ --godot-target=release_debug` ``` We could turn this into a custom build target, but I don't know how to do that with SCons (it's possible with Meson). OTHER NOTES Most of the moved code doesn't follow the C# naming convention and still has the word Mono in the names despite no longer dealing with Mono's embedding APIs. This is just temporary while transitioning, to make it easier to understand what was moved where.
2021-05-03 15:21:06 +02:00
return true;
} else if (compare_equal_func == EventSignalCallable::compare_equal_func_ptr) {
EventSignalCallable *event_signal_callable = static_cast<EventSignalCallable *>(custom);
C#: Add source generator for properties and exports default values The editor no longer needs to create temporary instances to get the default values. The initializer values of the exported properties are still evaluated at runtime. For example, in the following example, `GetInitialValue()` will be called when first looks for default values: ``` [Export] int MyValue = GetInitialValue(); ``` Exporting fields with a non-supported type now results in a compiler error rather than a runtime error when the script is used.
2022-02-27 21:57:30 +01:00
*r_delegate_handle = { nullptr };
C#: Move marshaling logic and generated glue to C# We will be progressively moving most code to C#. The plan is to only use Mono's embedding APIs to set things at launch. This will make it much easier to later support CoreCLR too which doesn't have rich embedding APIs. Additionally the code in C# is more maintainable and makes it easier to implement new features, e.g.: runtime codegen which we could use to avoid using reflection for marshaling everytime a field, property or method is accessed. SOME NOTES ON INTEROP We make the same assumptions as GDNative about the size of the Godot structures we use. We take it a bit further by also assuming the layout of fields in some cases, which is riskier but let's us squeeze out some performance by avoiding unnecessary managed to native calls. Code that deals with native structs is less safe than before as there's no RAII and copy constructors in C#. It's like using the GDNative C API directly. One has to take special care to free values they own. Perhaps we could use roslyn analyzers to check this, but I don't know any that uses attributes to determine what's owned or borrowed. As to why we maily use pointers for native structs instead of ref/out: - AFAIK (and confirmed with a benchmark) ref/out are pinned during P/Invoke calls and that has a cost. - Native struct fields can't be ref/out in the first place. - A `using` local can't be passed as ref/out, only `in`. Calling a method or property on an `in` value makes a silent copy, so we want to avoid `in`. REGARDING THE BUILD SYSTEM There's no longer a `mono_glue=yes/no` SCons options. We no longer need to build with `mono_glue=no`, generate the glue and then build again with `mono_glue=yes`. We build only once and generate the glue (which is in C# now). However, SCons no longer builds the C# projects for us. Instead one must run `build_assemblies.py`, e.g.: ```sh %godot_src_root%/modules/mono/build_scripts/build_assemblies.py \ --godot-output-dir=%godot_src_root%/bin \ --godot-target=release_debug` ``` We could turn this into a custom build target, but I don't know how to do that with SCons (it's possible with Meson). OTHER NOTES Most of the moved code doesn't follow the C# naming convention and still has the word Mono in the names despite no longer dealing with Mono's embedding APIs. This is just temporary while transitioning, to make it easier to understand what was moved where.
2021-05-03 15:21:06 +02:00
*r_object = ObjectDB::get_instance(event_signal_callable->get_object());
C#: Re-write Array, Dictionary, NodePath, String icalls as P/Invoke
2021-09-12 19:49:39 +02:00
memnew_placement(r_name, StringName(event_signal_callable->get_signal()));
C#: Move marshaling logic and generated glue to C# We will be progressively moving most code to C#. The plan is to only use Mono's embedding APIs to set things at launch. This will make it much easier to later support CoreCLR too which doesn't have rich embedding APIs. Additionally the code in C# is more maintainable and makes it easier to implement new features, e.g.: runtime codegen which we could use to avoid using reflection for marshaling everytime a field, property or method is accessed. SOME NOTES ON INTEROP We make the same assumptions as GDNative about the size of the Godot structures we use. We take it a bit further by also assuming the layout of fields in some cases, which is riskier but let's us squeeze out some performance by avoiding unnecessary managed to native calls. Code that deals with native structs is less safe than before as there's no RAII and copy constructors in C#. It's like using the GDNative C API directly. One has to take special care to free values they own. Perhaps we could use roslyn analyzers to check this, but I don't know any that uses attributes to determine what's owned or borrowed. As to why we maily use pointers for native structs instead of ref/out: - AFAIK (and confirmed with a benchmark) ref/out are pinned during P/Invoke calls and that has a cost. - Native struct fields can't be ref/out in the first place. - A `using` local can't be passed as ref/out, only `in`. Calling a method or property on an `in` value makes a silent copy, so we want to avoid `in`. REGARDING THE BUILD SYSTEM There's no longer a `mono_glue=yes/no` SCons options. We no longer need to build with `mono_glue=no`, generate the glue and then build again with `mono_glue=yes`. We build only once and generate the glue (which is in C# now). However, SCons no longer builds the C# projects for us. Instead one must run `build_assemblies.py`, e.g.: ```sh %godot_src_root%/modules/mono/build_scripts/build_assemblies.py \ --godot-output-dir=%godot_src_root%/bin \ --godot-target=release_debug` ``` We could turn this into a custom build target, but I don't know how to do that with SCons (it's possible with Meson). OTHER NOTES Most of the moved code doesn't follow the C# naming convention and still has the word Mono in the names despite no longer dealing with Mono's embedding APIs. This is just temporary while transitioning, to make it easier to understand what was moved where.
2021-05-03 15:21:06 +02:00
return true;
}
// Some other CallableCustom. We only support ManagedCallable.
C#: Add source generator for properties and exports default values The editor no longer needs to create temporary instances to get the default values. The initializer values of the exported properties are still evaluated at runtime. For example, in the following example, `GetInitialValue()` will be called when first looks for default values: ``` [Export] int MyValue = GetInitialValue(); ``` Exporting fields with a non-supported type now results in a compiler error rather than a runtime error when the script is used.
2022-02-27 21:57:30 +01:00
*r_delegate_handle = { nullptr };
C#: Move marshaling logic and generated glue to C# We will be progressively moving most code to C#. The plan is to only use Mono's embedding APIs to set things at launch. This will make it much easier to later support CoreCLR too which doesn't have rich embedding APIs. Additionally the code in C# is more maintainable and makes it easier to implement new features, e.g.: runtime codegen which we could use to avoid using reflection for marshaling everytime a field, property or method is accessed. SOME NOTES ON INTEROP We make the same assumptions as GDNative about the size of the Godot structures we use. We take it a bit further by also assuming the layout of fields in some cases, which is riskier but let's us squeeze out some performance by avoiding unnecessary managed to native calls. Code that deals with native structs is less safe than before as there's no RAII and copy constructors in C#. It's like using the GDNative C API directly. One has to take special care to free values they own. Perhaps we could use roslyn analyzers to check this, but I don't know any that uses attributes to determine what's owned or borrowed. As to why we maily use pointers for native structs instead of ref/out: - AFAIK (and confirmed with a benchmark) ref/out are pinned during P/Invoke calls and that has a cost. - Native struct fields can't be ref/out in the first place. - A `using` local can't be passed as ref/out, only `in`. Calling a method or property on an `in` value makes a silent copy, so we want to avoid `in`. REGARDING THE BUILD SYSTEM There's no longer a `mono_glue=yes/no` SCons options. We no longer need to build with `mono_glue=no`, generate the glue and then build again with `mono_glue=yes`. We build only once and generate the glue (which is in C# now). However, SCons no longer builds the C# projects for us. Instead one must run `build_assemblies.py`, e.g.: ```sh %godot_src_root%/modules/mono/build_scripts/build_assemblies.py \ --godot-output-dir=%godot_src_root%/bin \ --godot-target=release_debug` ``` We could turn this into a custom build target, but I don't know how to do that with SCons (it's possible with Meson). OTHER NOTES Most of the moved code doesn't follow the C# naming convention and still has the word Mono in the names despite no longer dealing with Mono's embedding APIs. This is just temporary while transitioning, to make it easier to understand what was moved where.
2021-05-03 15:21:06 +02:00
*r_object = nullptr;
C#: Re-write Array, Dictionary, NodePath, String icalls as P/Invoke
2021-09-12 19:49:39 +02:00
memnew_placement(r_name, StringName());
C#: Move marshaling logic and generated glue to C# We will be progressively moving most code to C#. The plan is to only use Mono's embedding APIs to set things at launch. This will make it much easier to later support CoreCLR too which doesn't have rich embedding APIs. Additionally the code in C# is more maintainable and makes it easier to implement new features, e.g.: runtime codegen which we could use to avoid using reflection for marshaling everytime a field, property or method is accessed. SOME NOTES ON INTEROP We make the same assumptions as GDNative about the size of the Godot structures we use. We take it a bit further by also assuming the layout of fields in some cases, which is riskier but let's us squeeze out some performance by avoiding unnecessary managed to native calls. Code that deals with native structs is less safe than before as there's no RAII and copy constructors in C#. It's like using the GDNative C API directly. One has to take special care to free values they own. Perhaps we could use roslyn analyzers to check this, but I don't know any that uses attributes to determine what's owned or borrowed. As to why we maily use pointers for native structs instead of ref/out: - AFAIK (and confirmed with a benchmark) ref/out are pinned during P/Invoke calls and that has a cost. - Native struct fields can't be ref/out in the first place. - A `using` local can't be passed as ref/out, only `in`. Calling a method or property on an `in` value makes a silent copy, so we want to avoid `in`. REGARDING THE BUILD SYSTEM There's no longer a `mono_glue=yes/no` SCons options. We no longer need to build with `mono_glue=no`, generate the glue and then build again with `mono_glue=yes`. We build only once and generate the glue (which is in C# now). However, SCons no longer builds the C# projects for us. Instead one must run `build_assemblies.py`, e.g.: ```sh %godot_src_root%/modules/mono/build_scripts/build_assemblies.py \ --godot-output-dir=%godot_src_root%/bin \ --godot-target=release_debug` ``` We could turn this into a custom build target, but I don't know how to do that with SCons (it's possible with Meson). OTHER NOTES Most of the moved code doesn't follow the C# naming convention and still has the word Mono in the names despite no longer dealing with Mono's embedding APIs. This is just temporary while transitioning, to make it easier to understand what was moved where.
2021-05-03 15:21:06 +02:00
return false;
} else {
C#: Add source generator for properties and exports default values The editor no longer needs to create temporary instances to get the default values. The initializer values of the exported properties are still evaluated at runtime. For example, in the following example, `GetInitialValue()` will be called when first looks for default values: ``` [Export] int MyValue = GetInitialValue(); ``` Exporting fields with a non-supported type now results in a compiler error rather than a runtime error when the script is used.
2022-02-27 21:57:30 +01:00
*r_delegate_handle = { nullptr };
C#: Move marshaling logic and generated glue to C# We will be progressively moving most code to C#. The plan is to only use Mono's embedding APIs to set things at launch. This will make it much easier to later support CoreCLR too which doesn't have rich embedding APIs. Additionally the code in C# is more maintainable and makes it easier to implement new features, e.g.: runtime codegen which we could use to avoid using reflection for marshaling everytime a field, property or method is accessed. SOME NOTES ON INTEROP We make the same assumptions as GDNative about the size of the Godot structures we use. We take it a bit further by also assuming the layout of fields in some cases, which is riskier but let's us squeeze out some performance by avoiding unnecessary managed to native calls. Code that deals with native structs is less safe than before as there's no RAII and copy constructors in C#. It's like using the GDNative C API directly. One has to take special care to free values they own. Perhaps we could use roslyn analyzers to check this, but I don't know any that uses attributes to determine what's owned or borrowed. As to why we maily use pointers for native structs instead of ref/out: - AFAIK (and confirmed with a benchmark) ref/out are pinned during P/Invoke calls and that has a cost. - Native struct fields can't be ref/out in the first place. - A `using` local can't be passed as ref/out, only `in`. Calling a method or property on an `in` value makes a silent copy, so we want to avoid `in`. REGARDING THE BUILD SYSTEM There's no longer a `mono_glue=yes/no` SCons options. We no longer need to build with `mono_glue=no`, generate the glue and then build again with `mono_glue=yes`. We build only once and generate the glue (which is in C# now). However, SCons no longer builds the C# projects for us. Instead one must run `build_assemblies.py`, e.g.: ```sh %godot_src_root%/modules/mono/build_scripts/build_assemblies.py \ --godot-output-dir=%godot_src_root%/bin \ --godot-target=release_debug` ``` We could turn this into a custom build target, but I don't know how to do that with SCons (it's possible with Meson). OTHER NOTES Most of the moved code doesn't follow the C# naming convention and still has the word Mono in the names despite no longer dealing with Mono's embedding APIs. This is just temporary while transitioning, to make it easier to understand what was moved where.
2021-05-03 15:21:06 +02:00
*r_object = ObjectDB::get_instance(p_callable->get_object_id());
C#: Re-write Array, Dictionary, NodePath, String icalls as P/Invoke
2021-09-12 19:49:39 +02:00
memnew_placement(r_name, StringName(p_callable->get_method()));
C#: Move marshaling logic and generated glue to C# We will be progressively moving most code to C#. The plan is to only use Mono's embedding APIs to set things at launch. This will make it much easier to later support CoreCLR too which doesn't have rich embedding APIs. Additionally the code in C# is more maintainable and makes it easier to implement new features, e.g.: runtime codegen which we could use to avoid using reflection for marshaling everytime a field, property or method is accessed. SOME NOTES ON INTEROP We make the same assumptions as GDNative about the size of the Godot structures we use. We take it a bit further by also assuming the layout of fields in some cases, which is riskier but let's us squeeze out some performance by avoiding unnecessary managed to native calls. Code that deals with native structs is less safe than before as there's no RAII and copy constructors in C#. It's like using the GDNative C API directly. One has to take special care to free values they own. Perhaps we could use roslyn analyzers to check this, but I don't know any that uses attributes to determine what's owned or borrowed. As to why we maily use pointers for native structs instead of ref/out: - AFAIK (and confirmed with a benchmark) ref/out are pinned during P/Invoke calls and that has a cost. - Native struct fields can't be ref/out in the first place. - A `using` local can't be passed as ref/out, only `in`. Calling a method or property on an `in` value makes a silent copy, so we want to avoid `in`. REGARDING THE BUILD SYSTEM There's no longer a `mono_glue=yes/no` SCons options. We no longer need to build with `mono_glue=no`, generate the glue and then build again with `mono_glue=yes`. We build only once and generate the glue (which is in C# now). However, SCons no longer builds the C# projects for us. Instead one must run `build_assemblies.py`, e.g.: ```sh %godot_src_root%/modules/mono/build_scripts/build_assemblies.py \ --godot-output-dir=%godot_src_root%/bin \ --godot-target=release_debug` ``` We could turn this into a custom build target, but I don't know how to do that with SCons (it's possible with Meson). OTHER NOTES Most of the moved code doesn't follow the C# naming convention and still has the word Mono in the names despite no longer dealing with Mono's embedding APIs. This is just temporary while transitioning, to make it easier to understand what was moved where.
2021-05-03 15:21:06 +02:00
return true;
}
}
C#: Code cleanup and greatly reduce use of C# pointers
2021-12-28 23:25:16 +01:00
GD_PINVOKE_EXPORT godot_variant godotsharp_callable_call(Callable *p_callable, const Variant **p_args, const int32_t p_arg_count, Callable::CallError *p_call_error) {
godot_variant ret;
memnew_placement(&ret, Variant);
Variant *ret_val = (Variant *)&ret;
p_callable->callp(p_args, p_arg_count, *ret_val, *p_call_error);
return ret;
}
GD_PINVOKE_EXPORT void godotsharp_callable_call_deferred(Callable *p_callable, const Variant **p_args, const int32_t p_arg_count) {
p_callable->call_deferredp(p_args, p_arg_count);
}
C#: Move marshaling logic and generated glue to C# We will be progressively moving most code to C#. The plan is to only use Mono's embedding APIs to set things at launch. This will make it much easier to later support CoreCLR too which doesn't have rich embedding APIs. Additionally the code in C# is more maintainable and makes it easier to implement new features, e.g.: runtime codegen which we could use to avoid using reflection for marshaling everytime a field, property or method is accessed. SOME NOTES ON INTEROP We make the same assumptions as GDNative about the size of the Godot structures we use. We take it a bit further by also assuming the layout of fields in some cases, which is riskier but let's us squeeze out some performance by avoiding unnecessary managed to native calls. Code that deals with native structs is less safe than before as there's no RAII and copy constructors in C#. It's like using the GDNative C API directly. One has to take special care to free values they own. Perhaps we could use roslyn analyzers to check this, but I don't know any that uses attributes to determine what's owned or borrowed. As to why we maily use pointers for native structs instead of ref/out: - AFAIK (and confirmed with a benchmark) ref/out are pinned during P/Invoke calls and that has a cost. - Native struct fields can't be ref/out in the first place. - A `using` local can't be passed as ref/out, only `in`. Calling a method or property on an `in` value makes a silent copy, so we want to avoid `in`. REGARDING THE BUILD SYSTEM There's no longer a `mono_glue=yes/no` SCons options. We no longer need to build with `mono_glue=no`, generate the glue and then build again with `mono_glue=yes`. We build only once and generate the glue (which is in C# now). However, SCons no longer builds the C# projects for us. Instead one must run `build_assemblies.py`, e.g.: ```sh %godot_src_root%/modules/mono/build_scripts/build_assemblies.py \ --godot-output-dir=%godot_src_root%/bin \ --godot-target=release_debug` ``` We could turn this into a custom build target, but I don't know how to do that with SCons (it's possible with Meson). OTHER NOTES Most of the moved code doesn't follow the C# naming convention and still has the word Mono in the names despite no longer dealing with Mono's embedding APIs. This is just temporary while transitioning, to make it easier to understand what was moved where.
2021-05-03 15:21:06 +02:00
// GDNative functions
// gdnative.h
GD_PINVOKE_EXPORT void godotsharp_method_bind_ptrcall(MethodBind *p_method_bind, Object *p_instance, const void **p_args, void *p_ret) {
p_method_bind->ptrcall(p_instance, p_args, p_ret);
}
C#: Re-write Array, Dictionary, NodePath, String icalls as P/Invoke
2021-09-12 19:49:39 +02:00
GD_PINVOKE_EXPORT godot_variant godotsharp_method_bind_call(MethodBind *p_method_bind, Object *p_instance, const godot_variant **p_args, const int32_t p_arg_count, Callable::CallError *p_call_error) {
C#: Move marshaling logic and generated glue to C# We will be progressively moving most code to C#. The plan is to only use Mono's embedding APIs to set things at launch. This will make it much easier to later support CoreCLR too which doesn't have rich embedding APIs. Additionally the code in C# is more maintainable and makes it easier to implement new features, e.g.: runtime codegen which we could use to avoid using reflection for marshaling everytime a field, property or method is accessed. SOME NOTES ON INTEROP We make the same assumptions as GDNative about the size of the Godot structures we use. We take it a bit further by also assuming the layout of fields in some cases, which is riskier but let's us squeeze out some performance by avoiding unnecessary managed to native calls. Code that deals with native structs is less safe than before as there's no RAII and copy constructors in C#. It's like using the GDNative C API directly. One has to take special care to free values they own. Perhaps we could use roslyn analyzers to check this, but I don't know any that uses attributes to determine what's owned or borrowed. As to why we maily use pointers for native structs instead of ref/out: - AFAIK (and confirmed with a benchmark) ref/out are pinned during P/Invoke calls and that has a cost. - Native struct fields can't be ref/out in the first place. - A `using` local can't be passed as ref/out, only `in`. Calling a method or property on an `in` value makes a silent copy, so we want to avoid `in`. REGARDING THE BUILD SYSTEM There's no longer a `mono_glue=yes/no` SCons options. We no longer need to build with `mono_glue=no`, generate the glue and then build again with `mono_glue=yes`. We build only once and generate the glue (which is in C# now). However, SCons no longer builds the C# projects for us. Instead one must run `build_assemblies.py`, e.g.: ```sh %godot_src_root%/modules/mono/build_scripts/build_assemblies.py \ --godot-output-dir=%godot_src_root%/bin \ --godot-target=release_debug` ``` We could turn this into a custom build target, but I don't know how to do that with SCons (it's possible with Meson). OTHER NOTES Most of the moved code doesn't follow the C# naming convention and still has the word Mono in the names despite no longer dealing with Mono's embedding APIs. This is just temporary while transitioning, to make it easier to understand what was moved where.
2021-05-03 15:21:06 +02:00
godot_variant ret;
memnew_placement(&ret, Variant());
Variant *ret_val = (Variant *)&ret;
*ret_val = p_method_bind->call(p_instance, (const Variant **)p_args, p_arg_count, *p_call_error);
return ret;
}
// variant.h
GD_PINVOKE_EXPORT void godotsharp_variant_new_string_name(godot_variant *r_dest, const StringName *p_s) {
memnew_placement(r_dest, Variant(*p_s));
}
GD_PINVOKE_EXPORT void godotsharp_variant_new_node_path(godot_variant *r_dest, const NodePath *p_np) {
memnew_placement(r_dest, Variant(*p_np));
}
GD_PINVOKE_EXPORT void godotsharp_variant_new_object(godot_variant *r_dest, const Object *p_obj) {
memnew_placement(r_dest, Variant(p_obj));
}
GD_PINVOKE_EXPORT void godotsharp_variant_new_transform2d(godot_variant *r_dest, const Transform2D *p_t2d) {
memnew_placement(r_dest, Variant(*p_t2d));
}
GD_PINVOKE_EXPORT void godotsharp_variant_new_vector4(godot_variant *r_dest, const Vector4 *p_vec4) {
memnew_placement(r_dest, Variant(*p_vec4));
}
GD_PINVOKE_EXPORT void godotsharp_variant_new_vector4i(godot_variant *r_dest, const Vector4i *p_vec4i) {
memnew_placement(r_dest, Variant(*p_vec4i));
}
GD_PINVOKE_EXPORT void godotsharp_variant_new_basis(godot_variant *r_dest, const Basis *p_basis) {
memnew_placement(r_dest, Variant(*p_basis));
}
GD_PINVOKE_EXPORT void godotsharp_variant_new_transform3d(godot_variant *r_dest, const Transform3D *p_trans) {
memnew_placement(r_dest, Variant(*p_trans));
}
GD_PINVOKE_EXPORT void godotsharp_variant_new_projection(godot_variant *r_dest, const Projection *p_proj) {
memnew_placement(r_dest, Variant(*p_proj));
}
GD_PINVOKE_EXPORT void godotsharp_variant_new_aabb(godot_variant *r_dest, const AABB *p_aabb) {
memnew_placement(r_dest, Variant(*p_aabb));
}
GD_PINVOKE_EXPORT void godotsharp_variant_new_dictionary(godot_variant *r_dest, const Dictionary *p_dict) {
memnew_placement(r_dest, Variant(*p_dict));
}
GD_PINVOKE_EXPORT void godotsharp_variant_new_array(godot_variant *r_dest, const Array *p_arr) {
memnew_placement(r_dest, Variant(*p_arr));
}
GD_PINVOKE_EXPORT void godotsharp_variant_new_packed_byte_array(godot_variant *r_dest, const PackedByteArray *p_pba) {
memnew_placement(r_dest, Variant(*p_pba));
}
GD_PINVOKE_EXPORT void godotsharp_variant_new_packed_int32_array(godot_variant *r_dest, const PackedInt32Array *p_pia) {
memnew_placement(r_dest, Variant(*p_pia));
}
GD_PINVOKE_EXPORT void godotsharp_variant_new_packed_int64_array(godot_variant *r_dest, const PackedInt64Array *p_pia) {
memnew_placement(r_dest, Variant(*p_pia));
}
GD_PINVOKE_EXPORT void godotsharp_variant_new_packed_float32_array(godot_variant *r_dest, const PackedFloat32Array *p_pra) {
memnew_placement(r_dest, Variant(*p_pra));
}
GD_PINVOKE_EXPORT void godotsharp_variant_new_packed_float64_array(godot_variant *r_dest, const PackedFloat64Array *p_pra) {
memnew_placement(r_dest, Variant(*p_pra));
}
GD_PINVOKE_EXPORT void godotsharp_variant_new_packed_string_array(godot_variant *r_dest, const PackedStringArray *p_psa) {
memnew_placement(r_dest, Variant(*p_psa));
}
GD_PINVOKE_EXPORT void godotsharp_variant_new_packed_vector2_array(godot_variant *r_dest, const PackedVector2Array *p_pv2a) {
memnew_placement(r_dest, Variant(*p_pv2a));
}
GD_PINVOKE_EXPORT void godotsharp_variant_new_packed_vector3_array(godot_variant *r_dest, const PackedVector3Array *p_pv3a) {
memnew_placement(r_dest, Variant(*p_pv3a));
}
GD_PINVOKE_EXPORT void godotsharp_variant_new_packed_color_array(godot_variant *r_dest, const PackedColorArray *p_pca) {
memnew_placement(r_dest, Variant(*p_pca));
}
GD_PINVOKE_EXPORT bool godotsharp_variant_as_bool(const Variant *p_self) {
return p_self->operator bool();
}
GD_PINVOKE_EXPORT int64_t godotsharp_variant_as_int(const Variant *p_self) {
return p_self->operator int64_t();
}
GD_PINVOKE_EXPORT double godotsharp_variant_as_float(const Variant *p_self) {
return p_self->operator double();
}
GD_PINVOKE_EXPORT godot_string godotsharp_variant_as_string(const Variant *p_self) {
godot_string raw_dest;
String *dest = (String *)&raw_dest;
memnew_placement(dest, String(p_self->operator String()));
return raw_dest;
}
GD_PINVOKE_EXPORT godot_vector2 godotsharp_variant_as_vector2(const Variant *p_self) {
godot_vector2 raw_dest;
Vector2 *dest = (Vector2 *)&raw_dest;
memnew_placement(dest, Vector2(p_self->operator Vector2()));
return raw_dest;
}
GD_PINVOKE_EXPORT godot_vector2i godotsharp_variant_as_vector2i(const Variant *p_self) {
godot_vector2i raw_dest;
Vector2i *dest = (Vector2i *)&raw_dest;
memnew_placement(dest, Vector2i(p_self->operator Vector2i()));
return raw_dest;
}
GD_PINVOKE_EXPORT godot_rect2 godotsharp_variant_as_rect2(const Variant *p_self) {
godot_rect2 raw_dest;
Rect2 *dest = (Rect2 *)&raw_dest;
memnew_placement(dest, Rect2(p_self->operator Rect2()));
return raw_dest;
}
GD_PINVOKE_EXPORT godot_rect2i godotsharp_variant_as_rect2i(const Variant *p_self) {
godot_rect2i raw_dest;
Rect2i *dest = (Rect2i *)&raw_dest;
memnew_placement(dest, Rect2i(p_self->operator Rect2i()));
return raw_dest;
}
GD_PINVOKE_EXPORT godot_vector3 godotsharp_variant_as_vector3(const Variant *p_self) {
godot_vector3 raw_dest;
Vector3 *dest = (Vector3 *)&raw_dest;
memnew_placement(dest, Vector3(p_self->operator Vector3()));
return raw_dest;
}
GD_PINVOKE_EXPORT godot_vector3i godotsharp_variant_as_vector3i(const Variant *p_self) {
godot_vector3i raw_dest;
Vector3i *dest = (Vector3i *)&raw_dest;
memnew_placement(dest, Vector3i(p_self->operator Vector3i()));
return raw_dest;
}
GD_PINVOKE_EXPORT godot_transform2d godotsharp_variant_as_transform2d(const Variant *p_self) {
godot_transform2d raw_dest;
Transform2D *dest = (Transform2D *)&raw_dest;
memnew_placement(dest, Transform2D(p_self->operator Transform2D()));
return raw_dest;
}
GD_PINVOKE_EXPORT godot_vector4 godotsharp_variant_as_vector4(const Variant *p_self) {
godot_vector4 raw_dest;
Vector4 *dest = (Vector4 *)&raw_dest;
memnew_placement(dest, Vector4(p_self->operator Vector4()));
return raw_dest;
}
GD_PINVOKE_EXPORT godot_vector4i godotsharp_variant_as_vector4i(const Variant *p_self) {
godot_vector4i raw_dest;
Vector4i *dest = (Vector4i *)&raw_dest;
memnew_placement(dest, Vector4i(p_self->operator Vector4i()));
return raw_dest;
}
GD_PINVOKE_EXPORT godot_plane godotsharp_variant_as_plane(const Variant *p_self) {
godot_plane raw_dest;
Plane *dest = (Plane *)&raw_dest;
memnew_placement(dest, Plane(p_self->operator Plane()));
return raw_dest;
}
GD_PINVOKE_EXPORT godot_quaternion godotsharp_variant_as_quaternion(const Variant *p_self) {
godot_quaternion raw_dest;
Quaternion *dest = (Quaternion *)&raw_dest;
memnew_placement(dest, Quaternion(p_self->operator Quaternion()));
return raw_dest;
}
GD_PINVOKE_EXPORT godot_aabb godotsharp_variant_as_aabb(const Variant *p_self) {
godot_aabb raw_dest;
AABB *dest = (AABB *)&raw_dest;
memnew_placement(dest, AABB(p_self->operator ::AABB()));
return raw_dest;
}
GD_PINVOKE_EXPORT godot_basis godotsharp_variant_as_basis(const Variant *p_self) {
godot_basis raw_dest;
Basis *dest = (Basis *)&raw_dest;
memnew_placement(dest, Basis(p_self->operator Basis()));
return raw_dest;
}
GD_PINVOKE_EXPORT godot_transform3d godotsharp_variant_as_transform3d(const Variant *p_self) {
godot_transform3d raw_dest;
Transform3D *dest = (Transform3D *)&raw_dest;
memnew_placement(dest, Transform3D(p_self->operator Transform3D()));
return raw_dest;
}
GD_PINVOKE_EXPORT godot_projection godotsharp_variant_as_projection(const Variant *p_self) {
godot_projection raw_dest;
Projection *dest = (Projection *)&raw_dest;
memnew_placement(dest, Projection(p_self->operator Projection()));
return raw_dest;
}
GD_PINVOKE_EXPORT godot_color godotsharp_variant_as_color(const Variant *p_self) {
godot_color raw_dest;
Color *dest = (Color *)&raw_dest;
memnew_placement(dest, Color(p_self->operator Color()));
return raw_dest;
}
GD_PINVOKE_EXPORT godot_string_name godotsharp_variant_as_string_name(const Variant *p_self) {
godot_string_name raw_dest;
StringName *dest = (StringName *)&raw_dest;
memnew_placement(dest, StringName(p_self->operator StringName()));
return raw_dest;
}
GD_PINVOKE_EXPORT godot_node_path godotsharp_variant_as_node_path(const Variant *p_self) {
godot_node_path raw_dest;
NodePath *dest = (NodePath *)&raw_dest;
memnew_placement(dest, NodePath(p_self->operator NodePath()));
return raw_dest;
}
GD_PINVOKE_EXPORT godot_rid godotsharp_variant_as_rid(const Variant *p_self) {
godot_rid raw_dest;
RID *dest = (RID *)&raw_dest;
memnew_placement(dest, RID(p_self->operator ::RID()));
return raw_dest;
}
GD_PINVOKE_EXPORT godot_callable godotsharp_variant_as_callable(const Variant *p_self) {
godot_callable raw_dest;
Callable *dest = (Callable *)&raw_dest;
memnew_placement(dest, Callable(p_self->operator Callable()));
return raw_dest;
}
GD_PINVOKE_EXPORT godot_signal godotsharp_variant_as_signal(const Variant *p_self) {
godot_signal raw_dest;
Signal *dest = (Signal *)&raw_dest;
memnew_placement(dest, Signal(p_self->operator Signal()));
return raw_dest;
}
GD_PINVOKE_EXPORT godot_dictionary godotsharp_variant_as_dictionary(const Variant *p_self) {
godot_dictionary raw_dest;
Dictionary *dest = (Dictionary *)&raw_dest;
memnew_placement(dest, Dictionary(p_self->operator Dictionary()));
return raw_dest;
}
GD_PINVOKE_EXPORT godot_array godotsharp_variant_as_array(const Variant *p_self) {
godot_array raw_dest;
Array *dest = (Array *)&raw_dest;
memnew_placement(dest, Array(p_self->operator Array()));
return raw_dest;
}
GD_PINVOKE_EXPORT godot_packed_array godotsharp_variant_as_packed_byte_array(const Variant *p_self) {
godot_packed_array raw_dest;
PackedByteArray *dest = (PackedByteArray *)&raw_dest;
memnew_placement(dest, PackedByteArray(p_self->operator PackedByteArray()));
return raw_dest;
}
GD_PINVOKE_EXPORT godot_packed_array godotsharp_variant_as_packed_int32_array(const Variant *p_self) {
godot_packed_array raw_dest;
PackedInt32Array *dest = (PackedInt32Array *)&raw_dest;
memnew_placement(dest, PackedInt32Array(p_self->operator PackedInt32Array()));
return raw_dest;
}
GD_PINVOKE_EXPORT godot_packed_array godotsharp_variant_as_packed_int64_array(const Variant *p_self) {
godot_packed_array raw_dest;
PackedInt64Array *dest = (PackedInt64Array *)&raw_dest;
memnew_placement(dest, PackedInt64Array(p_self->operator PackedInt64Array()));
return raw_dest;
}
GD_PINVOKE_EXPORT godot_packed_array godotsharp_variant_as_packed_float32_array(const Variant *p_self) {
godot_packed_array raw_dest;
PackedFloat32Array *dest = (PackedFloat32Array *)&raw_dest;
memnew_placement(dest, PackedFloat32Array(p_self->operator PackedFloat32Array()));
return raw_dest;
}
GD_PINVOKE_EXPORT godot_packed_array godotsharp_variant_as_packed_float64_array(const Variant *p_self) {
godot_packed_array raw_dest;
PackedFloat64Array *dest = (PackedFloat64Array *)&raw_dest;
memnew_placement(dest, PackedFloat64Array(p_self->operator PackedFloat64Array()));
return raw_dest;
}
GD_PINVOKE_EXPORT godot_packed_array godotsharp_variant_as_packed_string_array(const Variant *p_self) {
godot_packed_array raw_dest;
PackedStringArray *dest = (PackedStringArray *)&raw_dest;
memnew_placement(dest, PackedStringArray(p_self->operator PackedStringArray()));
return raw_dest;
}
GD_PINVOKE_EXPORT godot_packed_array godotsharp_variant_as_packed_vector2_array(const Variant *p_self) {
godot_packed_array raw_dest;
PackedVector2Array *dest = (PackedVector2Array *)&raw_dest;
memnew_placement(dest, PackedVector2Array(p_self->operator PackedVector2Array()));
return raw_dest;
}
GD_PINVOKE_EXPORT godot_packed_array godotsharp_variant_as_packed_vector3_array(const Variant *p_self) {
godot_packed_array raw_dest;
PackedVector3Array *dest = (PackedVector3Array *)&raw_dest;
memnew_placement(dest, PackedVector3Array(p_self->operator PackedVector3Array()));
return raw_dest;
}
GD_PINVOKE_EXPORT godot_packed_array godotsharp_variant_as_packed_color_array(const Variant *p_self) {
godot_packed_array raw_dest;
PackedColorArray *dest = (PackedColorArray *)&raw_dest;
memnew_placement(dest, PackedColorArray(p_self->operator PackedColorArray()));
return raw_dest;
}
C#: Re-write Array, Dictionary, NodePath, String icalls as P/Invoke
2021-09-12 19:49:39 +02:00
GD_PINVOKE_EXPORT bool godotsharp_variant_equals(const godot_variant *p_a, const godot_variant *p_b) {
return *reinterpret_cast<const Variant *>(p_a) == *reinterpret_cast<const Variant *>(p_b);
}
C#: Move marshaling logic and generated glue to C# We will be progressively moving most code to C#. The plan is to only use Mono's embedding APIs to set things at launch. This will make it much easier to later support CoreCLR too which doesn't have rich embedding APIs. Additionally the code in C# is more maintainable and makes it easier to implement new features, e.g.: runtime codegen which we could use to avoid using reflection for marshaling everytime a field, property or method is accessed. SOME NOTES ON INTEROP We make the same assumptions as GDNative about the size of the Godot structures we use. We take it a bit further by also assuming the layout of fields in some cases, which is riskier but let's us squeeze out some performance by avoiding unnecessary managed to native calls. Code that deals with native structs is less safe than before as there's no RAII and copy constructors in C#. It's like using the GDNative C API directly. One has to take special care to free values they own. Perhaps we could use roslyn analyzers to check this, but I don't know any that uses attributes to determine what's owned or borrowed. As to why we maily use pointers for native structs instead of ref/out: - AFAIK (and confirmed with a benchmark) ref/out are pinned during P/Invoke calls and that has a cost. - Native struct fields can't be ref/out in the first place. - A `using` local can't be passed as ref/out, only `in`. Calling a method or property on an `in` value makes a silent copy, so we want to avoid `in`. REGARDING THE BUILD SYSTEM There's no longer a `mono_glue=yes/no` SCons options. We no longer need to build with `mono_glue=no`, generate the glue and then build again with `mono_glue=yes`. We build only once and generate the glue (which is in C# now). However, SCons no longer builds the C# projects for us. Instead one must run `build_assemblies.py`, e.g.: ```sh %godot_src_root%/modules/mono/build_scripts/build_assemblies.py \ --godot-output-dir=%godot_src_root%/bin \ --godot-target=release_debug` ``` We could turn this into a custom build target, but I don't know how to do that with SCons (it's possible with Meson). OTHER NOTES Most of the moved code doesn't follow the C# naming convention and still has the word Mono in the names despite no longer dealing with Mono's embedding APIs. This is just temporary while transitioning, to make it easier to understand what was moved where.
2021-05-03 15:21:06 +02:00
// string.h
GD_PINVOKE_EXPORT void godotsharp_string_new_with_utf16_chars(String *r_dest, const char16_t *p_contents) {
memnew_placement(r_dest, String());
r_dest->parse_utf16(p_contents);
}
// string_name.h
GD_PINVOKE_EXPORT void godotsharp_string_name_new_copy(StringName *r_dest, const StringName *p_src) {
memnew_placement(r_dest, StringName(*p_src));
}
// node_path.h
GD_PINVOKE_EXPORT void godotsharp_node_path_new_copy(NodePath *r_dest, const NodePath *p_src) {
memnew_placement(r_dest, NodePath(*p_src));
}
// array.h
C#: Re-write Array, Dictionary, NodePath, String icalls as P/Invoke
2021-09-12 19:49:39 +02:00
GD_PINVOKE_EXPORT void godotsharp_array_new(Array *r_dest) {
memnew_placement(r_dest, Array);
}
C#: Move marshaling logic and generated glue to C# We will be progressively moving most code to C#. The plan is to only use Mono's embedding APIs to set things at launch. This will make it much easier to later support CoreCLR too which doesn't have rich embedding APIs. Additionally the code in C# is more maintainable and makes it easier to implement new features, e.g.: runtime codegen which we could use to avoid using reflection for marshaling everytime a field, property or method is accessed. SOME NOTES ON INTEROP We make the same assumptions as GDNative about the size of the Godot structures we use. We take it a bit further by also assuming the layout of fields in some cases, which is riskier but let's us squeeze out some performance by avoiding unnecessary managed to native calls. Code that deals with native structs is less safe than before as there's no RAII and copy constructors in C#. It's like using the GDNative C API directly. One has to take special care to free values they own. Perhaps we could use roslyn analyzers to check this, but I don't know any that uses attributes to determine what's owned or borrowed. As to why we maily use pointers for native structs instead of ref/out: - AFAIK (and confirmed with a benchmark) ref/out are pinned during P/Invoke calls and that has a cost. - Native struct fields can't be ref/out in the first place. - A `using` local can't be passed as ref/out, only `in`. Calling a method or property on an `in` value makes a silent copy, so we want to avoid `in`. REGARDING THE BUILD SYSTEM There's no longer a `mono_glue=yes/no` SCons options. We no longer need to build with `mono_glue=no`, generate the glue and then build again with `mono_glue=yes`. We build only once and generate the glue (which is in C# now). However, SCons no longer builds the C# projects for us. Instead one must run `build_assemblies.py`, e.g.: ```sh %godot_src_root%/modules/mono/build_scripts/build_assemblies.py \ --godot-output-dir=%godot_src_root%/bin \ --godot-target=release_debug` ``` We could turn this into a custom build target, but I don't know how to do that with SCons (it's possible with Meson). OTHER NOTES Most of the moved code doesn't follow the C# naming convention and still has the word Mono in the names despite no longer dealing with Mono's embedding APIs. This is just temporary while transitioning, to make it easier to understand what was moved where.
2021-05-03 15:21:06 +02:00
GD_PINVOKE_EXPORT void godotsharp_array_new_copy(Array *r_dest, const Array *p_src) {
memnew_placement(r_dest, Array(*p_src));
}
C#: Re-write Array, Dictionary, NodePath, String icalls as P/Invoke
2021-09-12 19:49:39 +02:00
GD_PINVOKE_EXPORT godot_variant *godotsharp_array_ptrw(godot_array *p_self) {
return reinterpret_cast<godot_variant *>(&reinterpret_cast<Array *>(p_self)->operator[](0));
}
C#: Move marshaling logic and generated glue to C# We will be progressively moving most code to C#. The plan is to only use Mono's embedding APIs to set things at launch. This will make it much easier to later support CoreCLR too which doesn't have rich embedding APIs. Additionally the code in C# is more maintainable and makes it easier to implement new features, e.g.: runtime codegen which we could use to avoid using reflection for marshaling everytime a field, property or method is accessed. SOME NOTES ON INTEROP We make the same assumptions as GDNative about the size of the Godot structures we use. We take it a bit further by also assuming the layout of fields in some cases, which is riskier but let's us squeeze out some performance by avoiding unnecessary managed to native calls. Code that deals with native structs is less safe than before as there's no RAII and copy constructors in C#. It's like using the GDNative C API directly. One has to take special care to free values they own. Perhaps we could use roslyn analyzers to check this, but I don't know any that uses attributes to determine what's owned or borrowed. As to why we maily use pointers for native structs instead of ref/out: - AFAIK (and confirmed with a benchmark) ref/out are pinned during P/Invoke calls and that has a cost. - Native struct fields can't be ref/out in the first place. - A `using` local can't be passed as ref/out, only `in`. Calling a method or property on an `in` value makes a silent copy, so we want to avoid `in`. REGARDING THE BUILD SYSTEM There's no longer a `mono_glue=yes/no` SCons options. We no longer need to build with `mono_glue=no`, generate the glue and then build again with `mono_glue=yes`. We build only once and generate the glue (which is in C# now). However, SCons no longer builds the C# projects for us. Instead one must run `build_assemblies.py`, e.g.: ```sh %godot_src_root%/modules/mono/build_scripts/build_assemblies.py \ --godot-output-dir=%godot_src_root%/bin \ --godot-target=release_debug` ``` We could turn this into a custom build target, but I don't know how to do that with SCons (it's possible with Meson). OTHER NOTES Most of the moved code doesn't follow the C# naming convention and still has the word Mono in the names despite no longer dealing with Mono's embedding APIs. This is just temporary while transitioning, to make it easier to understand what was moved where.
2021-05-03 15:21:06 +02:00
// dictionary.h
C#: Re-write Array, Dictionary, NodePath, String icalls as P/Invoke
2021-09-12 19:49:39 +02:00
GD_PINVOKE_EXPORT void godotsharp_dictionary_new(Dictionary *r_dest) {
memnew_placement(r_dest, Dictionary);
}
C#: Move marshaling logic and generated glue to C# We will be progressively moving most code to C#. The plan is to only use Mono's embedding APIs to set things at launch. This will make it much easier to later support CoreCLR too which doesn't have rich embedding APIs. Additionally the code in C# is more maintainable and makes it easier to implement new features, e.g.: runtime codegen which we could use to avoid using reflection for marshaling everytime a field, property or method is accessed. SOME NOTES ON INTEROP We make the same assumptions as GDNative about the size of the Godot structures we use. We take it a bit further by also assuming the layout of fields in some cases, which is riskier but let's us squeeze out some performance by avoiding unnecessary managed to native calls. Code that deals with native structs is less safe than before as there's no RAII and copy constructors in C#. It's like using the GDNative C API directly. One has to take special care to free values they own. Perhaps we could use roslyn analyzers to check this, but I don't know any that uses attributes to determine what's owned or borrowed. As to why we maily use pointers for native structs instead of ref/out: - AFAIK (and confirmed with a benchmark) ref/out are pinned during P/Invoke calls and that has a cost. - Native struct fields can't be ref/out in the first place. - A `using` local can't be passed as ref/out, only `in`. Calling a method or property on an `in` value makes a silent copy, so we want to avoid `in`. REGARDING THE BUILD SYSTEM There's no longer a `mono_glue=yes/no` SCons options. We no longer need to build with `mono_glue=no`, generate the glue and then build again with `mono_glue=yes`. We build only once and generate the glue (which is in C# now). However, SCons no longer builds the C# projects for us. Instead one must run `build_assemblies.py`, e.g.: ```sh %godot_src_root%/modules/mono/build_scripts/build_assemblies.py \ --godot-output-dir=%godot_src_root%/bin \ --godot-target=release_debug` ``` We could turn this into a custom build target, but I don't know how to do that with SCons (it's possible with Meson). OTHER NOTES Most of the moved code doesn't follow the C# naming convention and still has the word Mono in the names despite no longer dealing with Mono's embedding APIs. This is just temporary while transitioning, to make it easier to understand what was moved where.
2021-05-03 15:21:06 +02:00
GD_PINVOKE_EXPORT void godotsharp_dictionary_new_copy(Dictionary *r_dest, const Dictionary *p_src) {
memnew_placement(r_dest, Dictionary(*p_src));
}
// destroy functions
GD_PINVOKE_EXPORT void godotsharp_packed_byte_array_destroy(PackedByteArray *p_self) {
p_self->~PackedByteArray();
}
GD_PINVOKE_EXPORT void godotsharp_packed_int32_array_destroy(PackedInt32Array *p_self) {
p_self->~PackedInt32Array();
}
GD_PINVOKE_EXPORT void godotsharp_packed_int64_array_destroy(PackedInt64Array *p_self) {
p_self->~PackedInt64Array();
}
GD_PINVOKE_EXPORT void godotsharp_packed_float32_array_destroy(PackedFloat32Array *p_self) {
p_self->~PackedFloat32Array();
}
GD_PINVOKE_EXPORT void godotsharp_packed_float64_array_destroy(PackedFloat64Array *p_self) {
p_self->~PackedFloat64Array();
}
GD_PINVOKE_EXPORT void godotsharp_packed_string_array_destroy(PackedStringArray *p_self) {
p_self->~PackedStringArray();
}
GD_PINVOKE_EXPORT void godotsharp_packed_vector2_array_destroy(PackedVector2Array *p_self) {
p_self->~PackedVector2Array();
}
GD_PINVOKE_EXPORT void godotsharp_packed_vector3_array_destroy(PackedVector3Array *p_self) {
p_self->~PackedVector3Array();
}
GD_PINVOKE_EXPORT void godotsharp_packed_color_array_destroy(PackedColorArray *p_self) {
p_self->~PackedColorArray();
}
GD_PINVOKE_EXPORT void godotsharp_variant_destroy(Variant *p_self) {
p_self->~Variant();
}
GD_PINVOKE_EXPORT void godotsharp_string_destroy(String *p_self) {
p_self->~String();
}
GD_PINVOKE_EXPORT void godotsharp_string_name_destroy(StringName *p_self) {
p_self->~StringName();
}
GD_PINVOKE_EXPORT void godotsharp_node_path_destroy(NodePath *p_self) {
p_self->~NodePath();
}
GD_PINVOKE_EXPORT void godotsharp_signal_destroy(Signal *p_self) {
p_self->~Signal();
}
GD_PINVOKE_EXPORT void godotsharp_callable_destroy(Callable *p_self) {
p_self->~Callable();
}
GD_PINVOKE_EXPORT void godotsharp_array_destroy(Array *p_self) {
p_self->~Array();
}
GD_PINVOKE_EXPORT void godotsharp_dictionary_destroy(Dictionary *p_self) {
p_self->~Dictionary();
}
C#: Re-write Array, Dictionary, NodePath, String icalls as P/Invoke
2021-09-12 19:49:39 +02:00
// Array
GD_PINVOKE_EXPORT int32_t godotsharp_array_add(Array *p_self, const Variant *p_item) {
p_self->append(*p_item);
return p_self->size();
}
GD_PINVOKE_EXPORT void godotsharp_array_duplicate(const Array *p_self, bool p_deep, Array *r_dest) {
memnew_placement(r_dest, Array(p_self->duplicate(p_deep)));
}
GD_PINVOKE_EXPORT int32_t godotsharp_array_index_of(const Array *p_self, const Variant *p_item) {
return p_self->find(*p_item);
}
GD_PINVOKE_EXPORT void godotsharp_array_insert(Array *p_self, int32_t p_index, const Variant *p_item) {
p_self->insert(p_index, *p_item);
}
GD_PINVOKE_EXPORT void godotsharp_array_remove_at(Array *p_self, int32_t p_index) {
p_self->remove_at(p_index);
}
GD_PINVOKE_EXPORT int32_t godotsharp_array_resize(Array *p_self, int32_t p_new_size) {
return (int32_t)p_self->resize(p_new_size);
}
GD_PINVOKE_EXPORT void godotsharp_array_shuffle(Array *p_self) {
p_self->shuffle();
}
// Dictionary
GD_PINVOKE_EXPORT bool godotsharp_dictionary_try_get_value(const Dictionary *p_self, const Variant *p_key, Variant *r_value) {
const Variant *ret = p_self->getptr(*p_key);
if (ret == nullptr) {
memnew_placement(r_value, Variant());
return false;
}
memnew_placement(r_value, Variant(*ret));
return true;
}
GD_PINVOKE_EXPORT void godotsharp_dictionary_set_value(Dictionary *p_self, const Variant *p_key, const Variant *p_value) {
p_self->operator[](*p_key) = *p_value;
}
GD_PINVOKE_EXPORT void godotsharp_dictionary_keys(const Dictionary *p_self, Array *r_dest) {
memnew_placement(r_dest, Array(p_self->keys()));
}
GD_PINVOKE_EXPORT void godotsharp_dictionary_values(const Dictionary *p_self, Array *r_dest) {
memnew_placement(r_dest, Array(p_self->values()));
}
GD_PINVOKE_EXPORT int32_t godotsharp_dictionary_count(const Dictionary *p_self) {
return p_self->size();
}
GD_PINVOKE_EXPORT void godotsharp_dictionary_key_value_pair_at(const Dictionary *p_self, int32_t p_index, Variant *r_key, Variant *r_value) {
memnew_placement(r_key, Variant(p_self->get_key_at_index(p_index)));
memnew_placement(r_value, Variant(p_self->get_value_at_index(p_index)));
}
GD_PINVOKE_EXPORT void godotsharp_dictionary_add(Dictionary *p_self, const Variant *p_key, const Variant *p_value) {
p_self->operator[](*p_key) = *p_value;
}
GD_PINVOKE_EXPORT void godotsharp_dictionary_clear(Dictionary *p_self) {
p_self->clear();
}
GD_PINVOKE_EXPORT bool godotsharp_dictionary_contains_key(const Dictionary *p_self, const Variant *p_key) {
return p_self->has(*p_key);
}
GD_PINVOKE_EXPORT void godotsharp_dictionary_duplicate(const Dictionary *p_self, bool p_deep, Dictionary *r_dest) {
memnew_placement(r_dest, Dictionary(p_self->duplicate(p_deep)));
}
GD_PINVOKE_EXPORT bool godotsharp_dictionary_remove_key(Dictionary *p_self, const Variant *p_key) {
return p_self->erase(*p_key);
}
GD_PINVOKE_EXPORT void godotsharp_string_md5_buffer(const String *p_self, PackedByteArray *r_md5_buffer) {
memnew_placement(r_md5_buffer, PackedByteArray(p_self->md5_buffer()));
}
GD_PINVOKE_EXPORT void godotsharp_string_md5_text(const String *p_self, String *r_md5_text) {
memnew_placement(r_md5_text, String(p_self->md5_text()));
}
GD_PINVOKE_EXPORT int32_t godotsharp_string_rfind(const String *p_self, const String *p_what, int32_t p_from) {
return p_self->rfind(*p_what, p_from);
}
GD_PINVOKE_EXPORT int32_t godotsharp_string_rfindn(const String *p_self, const String *p_what, int32_t p_from) {
return p_self->rfindn(*p_what, p_from);
}
GD_PINVOKE_EXPORT void godotsharp_string_sha256_buffer(const String *p_self, PackedByteArray *r_sha256_buffer) {
memnew_placement(r_sha256_buffer, PackedByteArray(p_self->sha256_buffer()));
}
GD_PINVOKE_EXPORT void godotsharp_string_sha256_text(const String *p_self, String *r_sha256_text) {
memnew_placement(r_sha256_text, String(p_self->sha256_text()));
}
GD_PINVOKE_EXPORT void godotsharp_string_simplify_path(const String *p_self, String *r_simplified_path) {
memnew_placement(r_simplified_path, String(p_self->simplify_path()));
}
GD_PINVOKE_EXPORT void godotsharp_node_path_get_as_property_path(const NodePath *p_ptr, NodePath *r_dest) {
memnew_placement(r_dest, NodePath(p_ptr->get_as_property_path()));
}
GD_PINVOKE_EXPORT void godotsharp_node_path_get_concatenated_names(const NodePath *p_self, String *r_subnames) {
memnew_placement(r_subnames, String(p_self->get_concatenated_names()));
}
GD_PINVOKE_EXPORT void godotsharp_node_path_get_concatenated_subnames(const NodePath *p_self, String *r_subnames) {
memnew_placement(r_subnames, String(p_self->get_concatenated_subnames()));
}
GD_PINVOKE_EXPORT void godotsharp_node_path_get_name(const NodePath *p_self, uint32_t p_idx, String *r_name) {
memnew_placement(r_name, String(p_self->get_name(p_idx)));
}
GD_PINVOKE_EXPORT int32_t godotsharp_node_path_get_name_count(const NodePath *p_self) {
return p_self->get_name_count();
}
GD_PINVOKE_EXPORT void godotsharp_node_path_get_subname(const NodePath *p_self, uint32_t p_idx, String *r_subname) {
memnew_placement(r_subname, String(p_self->get_subname(p_idx)));
}
GD_PINVOKE_EXPORT int32_t godotsharp_node_path_get_subname_count(const NodePath *p_self) {
return p_self->get_subname_count();
}
GD_PINVOKE_EXPORT bool godotsharp_node_path_is_absolute(const NodePath *p_self) {
return p_self->is_absolute();
}
C#: Re-write GD and some other icalls as P/Invoke
2021-09-12 19:50:13 +02:00
GD_PINVOKE_EXPORT void godotsharp_randomize() {
Math::randomize();
}
GD_PINVOKE_EXPORT uint32_t godotsharp_randi() {
return Math::rand();
}
GD_PINVOKE_EXPORT float godotsharp_randf() {
return Math::randf();
}
GD_PINVOKE_EXPORT int32_t godotsharp_randi_range(int32_t p_from, int32_t p_to) {
return Math::random(p_from, p_to);
}
GD_PINVOKE_EXPORT double godotsharp_randf_range(double p_from, double p_to) {
return Math::random(p_from, p_to);
}
GD_PINVOKE_EXPORT double godotsharp_randfn(double p_mean, double p_deviation) {
return Math::randfn(p_mean, p_deviation);
}
GD_PINVOKE_EXPORT void godotsharp_seed(uint64_t p_seed) {
Math::seed(p_seed);
}
GD_PINVOKE_EXPORT uint32_t godotsharp_rand_from_seed(uint64_t p_seed, uint64_t *r_new_seed) {
uint32_t ret = Math::rand_from_seed(&p_seed);
*r_new_seed = p_seed;
return ret;
}
GD_PINVOKE_EXPORT void godotsharp_weakref(Object *p_ptr, Ref<RefCounted> *r_weak_ref) {
if (!p_ptr) {
return;
}
Ref<WeakRef> wref;
RefCounted *rc = Object::cast_to<RefCounted>(p_ptr);
if (rc) {
Ref<RefCounted> r = rc;
if (!r.is_valid()) {
return;
}
wref.instantiate();
wref->set_ref(r);
} else {
wref.instantiate();
wref->set_obj(p_ptr);
}
memnew_placement(r_weak_ref, Ref<RefCounted>(wref));
}
GD_PINVOKE_EXPORT void godotsharp_str(const godot_array *p_what, godot_string *r_ret) {
String &str = *memnew_placement(r_ret, String);
const Array &what = *reinterpret_cast<const Array *>(p_what);
for (int i = 0; i < what.size(); i++) {
String os = what[i].operator String();
if (i == 0) {
str = os;
} else {
str += os;
}
}
}
GD_PINVOKE_EXPORT void godotsharp_print(const godot_string *p_what) {
print_line(*reinterpret_cast<const String *>(p_what));
}
GD_PINVOKE_EXPORT void godotsharp_print_rich(const godot_string *p_what) {
print_line_rich(*reinterpret_cast<const String *>(p_what));
}
GD_PINVOKE_EXPORT void godotsharp_printerr(const godot_string *p_what) {
print_error(*reinterpret_cast<const String *>(p_what));
}
GD_PINVOKE_EXPORT void godotsharp_printt(const godot_string *p_what) {
print_line(*reinterpret_cast<const String *>(p_what));
}
GD_PINVOKE_EXPORT void godotsharp_prints(const godot_string *p_what) {
print_line(*reinterpret_cast<const String *>(p_what));
}
GD_PINVOKE_EXPORT void godotsharp_printraw(const godot_string *p_what) {
OS::get_singleton()->print("%s", reinterpret_cast<const String *>(p_what)->utf8().get_data());
}
GD_PINVOKE_EXPORT void godotsharp_pusherror(const godot_string *p_str) {
ERR_PRINT(*reinterpret_cast<const String *>(p_str));
}
GD_PINVOKE_EXPORT void godotsharp_pushwarning(const godot_string *p_str) {
WARN_PRINT(*reinterpret_cast<const String *>(p_str));
}
GD_PINVOKE_EXPORT void godotsharp_var2str(const godot_variant *p_var, godot_string *r_ret) {
const Variant &var = *reinterpret_cast<const Variant *>(p_var);
String &vars = *memnew_placement(r_ret, String);
VariantWriter::write_to_string(var, vars);
}
GD_PINVOKE_EXPORT void godotsharp_str2var(const godot_string *p_str, godot_variant *r_ret) {
Variant ret;
VariantParser::StreamString ss;
ss.s = *reinterpret_cast<const String *>(p_str);
String errs;
int line;
Error err = VariantParser::parse(&ss, ret, errs, line);
if (err != OK) {
String err_str = "Parse error at line " + itos(line) + ": " + errs + ".";
ERR_PRINT(err_str);
ret = err_str;
}
memnew_placement(r_ret, Variant(ret));
}
GD_PINVOKE_EXPORT void godotsharp_var2bytes(const godot_variant *p_var, bool p_full_objects, godot_packed_array *r_bytes) {
const Variant &var = *reinterpret_cast<const Variant *>(p_var);
PackedByteArray &bytes = *memnew_placement(r_bytes, PackedByteArray);
int len;
Error err = encode_variant(var, nullptr, len, p_full_objects);
ERR_FAIL_COND_MSG(err != OK, "Unexpected error encoding variable to bytes, likely unserializable type found (Object or RID).");
bytes.resize(len);
encode_variant(var, bytes.ptrw(), len, p_full_objects);
}
GD_PINVOKE_EXPORT void godotsharp_bytes2var(const godot_packed_array *p_bytes, bool p_allow_objects, godot_variant *r_ret) {
const PackedByteArray *bytes = reinterpret_cast<const PackedByteArray *>(p_bytes);
Variant ret;
Error err = decode_variant(ret, bytes->ptr(), bytes->size(), nullptr, p_allow_objects);
if (err != OK) {
ret = RTR("Not enough bytes for decoding bytes, or invalid format.");
}
memnew_placement(r_ret, Variant(ret));
}
GD_PINVOKE_EXPORT int godotsharp_hash(const godot_variant *p_var) {
return reinterpret_cast<const Variant *>(p_var)->hash();
}
GD_PINVOKE_EXPORT void godotsharp_convert(const godot_variant *p_what, int32_t p_type, godot_variant *r_ret) {
const Variant *args[1] = { reinterpret_cast<const Variant *>(p_what) };
Callable::CallError ce;
Variant ret;
Variant::construct(Variant::Type(p_type), ret, args, 1, ce);
if (ce.error != Callable::CallError::CALL_OK) {
memnew_placement(r_ret, Variant);
ERR_FAIL_MSG("Unable to convert parameter from '" +
C#: Begin move to .NET Core We're targeting .NET 5 for now to make development easier while .NET 6 is not yet released. TEMPORARY REGRESSIONS --------------------- Assembly unloading is not implemented yet. As such, many Godot resources are leaked at exit. This will be re-implemented later together with assembly hot-reloading.
2021-09-12 20:23:05 +02:00
Variant::get_type_name(reinterpret_cast<const Variant *>(p_what)->get_type()) +
"' to '" + Variant::get_type_name(Variant::Type(p_type)) + "'.");
C#: Re-write GD and some other icalls as P/Invoke
2021-09-12 19:50:13 +02:00
}
memnew_placement(r_ret, Variant(ret));
}
GD_PINVOKE_EXPORT Object *godotsharp_instance_from_id(uint64_t p_instance_id) {
return ObjectDB::get_instance(ObjectID(p_instance_id));
}
GD_PINVOKE_EXPORT void godotsharp_object_to_string(Object *p_ptr, godot_string *r_str) {
#ifdef DEBUG_ENABLED
// Cannot happen in C#; would get an ObjectDisposedException instead.
CRASH_COND(p_ptr == nullptr);
#endif
// Can't call 'Object::to_string()' here, as that can end up calling 'ToString' again resulting in an endless circular loop.
memnew_placement(r_str,
String("[" + p_ptr->get_class() + ":" + itos(p_ptr->get_instance_id()) + "]"));
}
C#: Move marshaling logic and generated glue to C# We will be progressively moving most code to C#. The plan is to only use Mono's embedding APIs to set things at launch. This will make it much easier to later support CoreCLR too which doesn't have rich embedding APIs. Additionally the code in C# is more maintainable and makes it easier to implement new features, e.g.: runtime codegen which we could use to avoid using reflection for marshaling everytime a field, property or method is accessed. SOME NOTES ON INTEROP We make the same assumptions as GDNative about the size of the Godot structures we use. We take it a bit further by also assuming the layout of fields in some cases, which is riskier but let's us squeeze out some performance by avoiding unnecessary managed to native calls. Code that deals with native structs is less safe than before as there's no RAII and copy constructors in C#. It's like using the GDNative C API directly. One has to take special care to free values they own. Perhaps we could use roslyn analyzers to check this, but I don't know any that uses attributes to determine what's owned or borrowed. As to why we maily use pointers for native structs instead of ref/out: - AFAIK (and confirmed with a benchmark) ref/out are pinned during P/Invoke calls and that has a cost. - Native struct fields can't be ref/out in the first place. - A `using` local can't be passed as ref/out, only `in`. Calling a method or property on an `in` value makes a silent copy, so we want to avoid `in`. REGARDING THE BUILD SYSTEM There's no longer a `mono_glue=yes/no` SCons options. We no longer need to build with `mono_glue=no`, generate the glue and then build again with `mono_glue=yes`. We build only once and generate the glue (which is in C# now). However, SCons no longer builds the C# projects for us. Instead one must run `build_assemblies.py`, e.g.: ```sh %godot_src_root%/modules/mono/build_scripts/build_assemblies.py \ --godot-output-dir=%godot_src_root%/bin \ --godot-target=release_debug` ``` We could turn this into a custom build target, but I don't know how to do that with SCons (it's possible with Meson). OTHER NOTES Most of the moved code doesn't follow the C# naming convention and still has the word Mono in the names despite no longer dealing with Mono's embedding APIs. This is just temporary while transitioning, to make it easier to understand what was moved where.
2021-05-03 15:21:06 +02:00
#ifdef __cplusplus
}
#endif
// We need this to prevent the functions from being stripped.
C#: Add source generator for signals as events Changed the signal declaration signal to: ``` // The following generates a MySignal event [Signal] public delegate void MySignalEventHandler(int param); ```
2022-07-28 17:41:47 +02:00
void *godotsharp_pinvoke_funcs[185] = {
C#: Move marshaling logic and generated glue to C# We will be progressively moving most code to C#. The plan is to only use Mono's embedding APIs to set things at launch. This will make it much easier to later support CoreCLR too which doesn't have rich embedding APIs. Additionally the code in C# is more maintainable and makes it easier to implement new features, e.g.: runtime codegen which we could use to avoid using reflection for marshaling everytime a field, property or method is accessed. SOME NOTES ON INTEROP We make the same assumptions as GDNative about the size of the Godot structures we use. We take it a bit further by also assuming the layout of fields in some cases, which is riskier but let's us squeeze out some performance by avoiding unnecessary managed to native calls. Code that deals with native structs is less safe than before as there's no RAII and copy constructors in C#. It's like using the GDNative C API directly. One has to take special care to free values they own. Perhaps we could use roslyn analyzers to check this, but I don't know any that uses attributes to determine what's owned or borrowed. As to why we maily use pointers for native structs instead of ref/out: - AFAIK (and confirmed with a benchmark) ref/out are pinned during P/Invoke calls and that has a cost. - Native struct fields can't be ref/out in the first place. - A `using` local can't be passed as ref/out, only `in`. Calling a method or property on an `in` value makes a silent copy, so we want to avoid `in`. REGARDING THE BUILD SYSTEM There's no longer a `mono_glue=yes/no` SCons options. We no longer need to build with `mono_glue=no`, generate the glue and then build again with `mono_glue=yes`. We build only once and generate the glue (which is in C# now). However, SCons no longer builds the C# projects for us. Instead one must run `build_assemblies.py`, e.g.: ```sh %godot_src_root%/modules/mono/build_scripts/build_assemblies.py \ --godot-output-dir=%godot_src_root%/bin \ --godot-target=release_debug` ``` We could turn this into a custom build target, but I don't know how to do that with SCons (it's possible with Meson). OTHER NOTES Most of the moved code doesn't follow the C# naming convention and still has the word Mono in the names despite no longer dealing with Mono's embedding APIs. This is just temporary while transitioning, to make it easier to understand what was moved where.
2021-05-03 15:21:06 +02:00
(void *)godotsharp_method_bind_get_method,
(void *)godotsharp_get_class_constructor,
(void *)godotsharp_engine_get_singleton,
C#: Re-introduce exception logging and error stack traces in editor These two had been disabled while moving to .NET 5, as the previous implementation relied on Mono embedding APIs.
2022-02-27 21:57:39 +01:00
(void *)godotsharp_stack_info_vector_resize,
(void *)godotsharp_stack_info_vector_destroy,
(void *)godotsharp_internal_script_debugger_send_error,
(void *)godotsharp_internal_script_debugger_is_active,
C#: Add source generator for properties and exports default values The editor no longer needs to create temporary instances to get the default values. The initializer values of the exported properties are still evaluated at runtime. For example, in the following example, `GetInitialValue()` will be called when first looks for default values: ``` [Export] int MyValue = GetInitialValue(); ``` Exporting fields with a non-supported type now results in a compiler error rather than a runtime error when the script is used.
2022-02-27 21:57:30 +01:00
(void *)godotsharp_internal_object_get_associated_gchandle,
C#: Begin move to .NET Core We're targeting .NET 5 for now to make development easier while .NET 6 is not yet released. TEMPORARY REGRESSIONS --------------------- Assembly unloading is not implemented yet. As such, many Godot resources are leaked at exit. This will be re-implemented later together with assembly hot-reloading.
2021-09-12 20:23:05 +02:00
(void *)godotsharp_internal_object_disposed,
(void *)godotsharp_internal_refcounted_disposed,
(void *)godotsharp_internal_signal_awaiter_connect,
(void *)godotsharp_internal_unmanaged_get_script_instance_managed,
(void *)godotsharp_internal_unmanaged_get_instance_binding_managed,
(void *)godotsharp_internal_unmanaged_instance_binding_create_managed,
(void *)godotsharp_internal_tie_native_managed_to_unmanaged,
(void *)godotsharp_internal_tie_user_managed_to_unmanaged,
(void *)godotsharp_internal_tie_managed_to_unmanaged_with_pre_setup,
(void *)godotsharp_internal_new_csharp_script,
C#: Re-implement assembly reloading with ALCs
2022-05-28 04:56:46 +02:00
(void *)godotsharp_internal_script_load,
C#: Ensure we only create one CSharpScript per type Previously, for each scripts class instance that was created from code rather than by the engine, we were constructing, configuring and assigning a new CSharpScript. This has changed now and we make sure there's only one CSharpScript associated to each type.
2022-02-27 21:57:36 +01:00
(void *)godotsharp_internal_reload_registered_script,
C#: Begin move to .NET Core We're targeting .NET 5 for now to make development easier while .NET 6 is not yet released. TEMPORARY REGRESSIONS --------------------- Assembly unloading is not implemented yet. As such, many Godot resources are leaked at exit. This will be re-implemented later together with assembly hot-reloading.
2021-09-12 20:23:05 +02:00
(void *)godotsharp_array_filter_godot_objects_by_native,
(void *)godotsharp_array_filter_godot_objects_by_non_native,
C#: Ensure we only create one CSharpScript per type Previously, for each scripts class instance that was created from code rather than by the engine, we were constructing, configuring and assigning a new CSharpScript. This has changed now and we make sure there's only one CSharpScript associated to each type.
2022-02-27 21:57:36 +01:00
(void *)godotsharp_ref_new_from_ref_counted_ptr,
C#: Move marshaling logic and generated glue to C# We will be progressively moving most code to C#. The plan is to only use Mono's embedding APIs to set things at launch. This will make it much easier to later support CoreCLR too which doesn't have rich embedding APIs. Additionally the code in C# is more maintainable and makes it easier to implement new features, e.g.: runtime codegen which we could use to avoid using reflection for marshaling everytime a field, property or method is accessed. SOME NOTES ON INTEROP We make the same assumptions as GDNative about the size of the Godot structures we use. We take it a bit further by also assuming the layout of fields in some cases, which is riskier but let's us squeeze out some performance by avoiding unnecessary managed to native calls. Code that deals with native structs is less safe than before as there's no RAII and copy constructors in C#. It's like using the GDNative C API directly. One has to take special care to free values they own. Perhaps we could use roslyn analyzers to check this, but I don't know any that uses attributes to determine what's owned or borrowed. As to why we maily use pointers for native structs instead of ref/out: - AFAIK (and confirmed with a benchmark) ref/out are pinned during P/Invoke calls and that has a cost. - Native struct fields can't be ref/out in the first place. - A `using` local can't be passed as ref/out, only `in`. Calling a method or property on an `in` value makes a silent copy, so we want to avoid `in`. REGARDING THE BUILD SYSTEM There's no longer a `mono_glue=yes/no` SCons options. We no longer need to build with `mono_glue=no`, generate the glue and then build again with `mono_glue=yes`. We build only once and generate the glue (which is in C# now). However, SCons no longer builds the C# projects for us. Instead one must run `build_assemblies.py`, e.g.: ```sh %godot_src_root%/modules/mono/build_scripts/build_assemblies.py \ --godot-output-dir=%godot_src_root%/bin \ --godot-target=release_debug` ``` We could turn this into a custom build target, but I don't know how to do that with SCons (it's possible with Meson). OTHER NOTES Most of the moved code doesn't follow the C# naming convention and still has the word Mono in the names despite no longer dealing with Mono's embedding APIs. This is just temporary while transitioning, to make it easier to understand what was moved where.
2021-05-03 15:21:06 +02:00
(void *)godotsharp_ref_destroy,
(void *)godotsharp_string_name_new_from_string,
(void *)godotsharp_node_path_new_from_string,
(void *)godotsharp_string_name_as_string,
(void *)godotsharp_node_path_as_string,
(void *)godotsharp_packed_byte_array_new_mem_copy,
(void *)godotsharp_packed_int32_array_new_mem_copy,
(void *)godotsharp_packed_int64_array_new_mem_copy,
(void *)godotsharp_packed_float32_array_new_mem_copy,
(void *)godotsharp_packed_float64_array_new_mem_copy,
(void *)godotsharp_packed_vector2_array_new_mem_copy,
(void *)godotsharp_packed_vector3_array_new_mem_copy,
(void *)godotsharp_packed_color_array_new_mem_copy,
(void *)godotsharp_packed_string_array_add,
(void *)godotsharp_callable_new_with_delegate,
(void *)godotsharp_callable_get_data_for_marshalling,
C#: Code cleanup and greatly reduce use of C# pointers
2021-12-28 23:25:16 +01:00
(void *)godotsharp_callable_call,
(void *)godotsharp_callable_call_deferred,
C#: Move marshaling logic and generated glue to C# We will be progressively moving most code to C#. The plan is to only use Mono's embedding APIs to set things at launch. This will make it much easier to later support CoreCLR too which doesn't have rich embedding APIs. Additionally the code in C# is more maintainable and makes it easier to implement new features, e.g.: runtime codegen which we could use to avoid using reflection for marshaling everytime a field, property or method is accessed. SOME NOTES ON INTEROP We make the same assumptions as GDNative about the size of the Godot structures we use. We take it a bit further by also assuming the layout of fields in some cases, which is riskier but let's us squeeze out some performance by avoiding unnecessary managed to native calls. Code that deals with native structs is less safe than before as there's no RAII and copy constructors in C#. It's like using the GDNative C API directly. One has to take special care to free values they own. Perhaps we could use roslyn analyzers to check this, but I don't know any that uses attributes to determine what's owned or borrowed. As to why we maily use pointers for native structs instead of ref/out: - AFAIK (and confirmed with a benchmark) ref/out are pinned during P/Invoke calls and that has a cost. - Native struct fields can't be ref/out in the first place. - A `using` local can't be passed as ref/out, only `in`. Calling a method or property on an `in` value makes a silent copy, so we want to avoid `in`. REGARDING THE BUILD SYSTEM There's no longer a `mono_glue=yes/no` SCons options. We no longer need to build with `mono_glue=no`, generate the glue and then build again with `mono_glue=yes`. We build only once and generate the glue (which is in C# now). However, SCons no longer builds the C# projects for us. Instead one must run `build_assemblies.py`, e.g.: ```sh %godot_src_root%/modules/mono/build_scripts/build_assemblies.py \ --godot-output-dir=%godot_src_root%/bin \ --godot-target=release_debug` ``` We could turn this into a custom build target, but I don't know how to do that with SCons (it's possible with Meson). OTHER NOTES Most of the moved code doesn't follow the C# naming convention and still has the word Mono in the names despite no longer dealing with Mono's embedding APIs. This is just temporary while transitioning, to make it easier to understand what was moved where.
2021-05-03 15:21:06 +02:00
(void *)godotsharp_method_bind_ptrcall,
(void *)godotsharp_method_bind_call,
(void *)godotsharp_variant_new_string_name,
(void *)godotsharp_variant_new_node_path,
(void *)godotsharp_variant_new_object,
(void *)godotsharp_variant_new_transform2d,
(void *)godotsharp_variant_new_vector4,
(void *)godotsharp_variant_new_vector4i,
(void *)godotsharp_variant_new_basis,
(void *)godotsharp_variant_new_transform3d,
(void *)godotsharp_variant_new_projection,
(void *)godotsharp_variant_new_aabb,
(void *)godotsharp_variant_new_dictionary,
(void *)godotsharp_variant_new_array,
(void *)godotsharp_variant_new_packed_byte_array,
(void *)godotsharp_variant_new_packed_int32_array,
(void *)godotsharp_variant_new_packed_int64_array,
(void *)godotsharp_variant_new_packed_float32_array,
(void *)godotsharp_variant_new_packed_float64_array,
(void *)godotsharp_variant_new_packed_string_array,
(void *)godotsharp_variant_new_packed_vector2_array,
(void *)godotsharp_variant_new_packed_vector3_array,
(void *)godotsharp_variant_new_packed_color_array,
(void *)godotsharp_variant_as_bool,
(void *)godotsharp_variant_as_int,
(void *)godotsharp_variant_as_float,
(void *)godotsharp_variant_as_string,
(void *)godotsharp_variant_as_vector2,
(void *)godotsharp_variant_as_vector2i,
(void *)godotsharp_variant_as_rect2,
(void *)godotsharp_variant_as_rect2i,
(void *)godotsharp_variant_as_vector3,
(void *)godotsharp_variant_as_vector3i,
(void *)godotsharp_variant_as_transform2d,
(void *)godotsharp_variant_as_vector4,
(void *)godotsharp_variant_as_vector4i,
(void *)godotsharp_variant_as_plane,
(void *)godotsharp_variant_as_quaternion,
(void *)godotsharp_variant_as_aabb,
(void *)godotsharp_variant_as_basis,
(void *)godotsharp_variant_as_transform3d,
(void *)godotsharp_variant_as_projection,
(void *)godotsharp_variant_as_color,
(void *)godotsharp_variant_as_string_name,
(void *)godotsharp_variant_as_node_path,
(void *)godotsharp_variant_as_rid,
(void *)godotsharp_variant_as_callable,
(void *)godotsharp_variant_as_signal,
(void *)godotsharp_variant_as_dictionary,
(void *)godotsharp_variant_as_array,
(void *)godotsharp_variant_as_packed_byte_array,
(void *)godotsharp_variant_as_packed_int32_array,
(void *)godotsharp_variant_as_packed_int64_array,
(void *)godotsharp_variant_as_packed_float32_array,
(void *)godotsharp_variant_as_packed_float64_array,
(void *)godotsharp_variant_as_packed_string_array,
(void *)godotsharp_variant_as_packed_vector2_array,
(void *)godotsharp_variant_as_packed_vector3_array,
(void *)godotsharp_variant_as_packed_color_array,
C#: Re-write Array, Dictionary, NodePath, String icalls as P/Invoke
2021-09-12 19:49:39 +02:00
(void *)godotsharp_variant_equals,
C#: Move marshaling logic and generated glue to C# We will be progressively moving most code to C#. The plan is to only use Mono's embedding APIs to set things at launch. This will make it much easier to later support CoreCLR too which doesn't have rich embedding APIs. Additionally the code in C# is more maintainable and makes it easier to implement new features, e.g.: runtime codegen which we could use to avoid using reflection for marshaling everytime a field, property or method is accessed. SOME NOTES ON INTEROP We make the same assumptions as GDNative about the size of the Godot structures we use. We take it a bit further by also assuming the layout of fields in some cases, which is riskier but let's us squeeze out some performance by avoiding unnecessary managed to native calls. Code that deals with native structs is less safe than before as there's no RAII and copy constructors in C#. It's like using the GDNative C API directly. One has to take special care to free values they own. Perhaps we could use roslyn analyzers to check this, but I don't know any that uses attributes to determine what's owned or borrowed. As to why we maily use pointers for native structs instead of ref/out: - AFAIK (and confirmed with a benchmark) ref/out are pinned during P/Invoke calls and that has a cost. - Native struct fields can't be ref/out in the first place. - A `using` local can't be passed as ref/out, only `in`. Calling a method or property on an `in` value makes a silent copy, so we want to avoid `in`. REGARDING THE BUILD SYSTEM There's no longer a `mono_glue=yes/no` SCons options. We no longer need to build with `mono_glue=no`, generate the glue and then build again with `mono_glue=yes`. We build only once and generate the glue (which is in C# now). However, SCons no longer builds the C# projects for us. Instead one must run `build_assemblies.py`, e.g.: ```sh %godot_src_root%/modules/mono/build_scripts/build_assemblies.py \ --godot-output-dir=%godot_src_root%/bin \ --godot-target=release_debug` ``` We could turn this into a custom build target, but I don't know how to do that with SCons (it's possible with Meson). OTHER NOTES Most of the moved code doesn't follow the C# naming convention and still has the word Mono in the names despite no longer dealing with Mono's embedding APIs. This is just temporary while transitioning, to make it easier to understand what was moved where.
2021-05-03 15:21:06 +02:00
(void *)godotsharp_string_new_with_utf16_chars,
(void *)godotsharp_string_name_new_copy,
(void *)godotsharp_node_path_new_copy,
C#: Re-write Array, Dictionary, NodePath, String icalls as P/Invoke
2021-09-12 19:49:39 +02:00
(void *)godotsharp_array_new,
C#: Move marshaling logic and generated glue to C# We will be progressively moving most code to C#. The plan is to only use Mono's embedding APIs to set things at launch. This will make it much easier to later support CoreCLR too which doesn't have rich embedding APIs. Additionally the code in C# is more maintainable and makes it easier to implement new features, e.g.: runtime codegen which we could use to avoid using reflection for marshaling everytime a field, property or method is accessed. SOME NOTES ON INTEROP We make the same assumptions as GDNative about the size of the Godot structures we use. We take it a bit further by also assuming the layout of fields in some cases, which is riskier but let's us squeeze out some performance by avoiding unnecessary managed to native calls. Code that deals with native structs is less safe than before as there's no RAII and copy constructors in C#. It's like using the GDNative C API directly. One has to take special care to free values they own. Perhaps we could use roslyn analyzers to check this, but I don't know any that uses attributes to determine what's owned or borrowed. As to why we maily use pointers for native structs instead of ref/out: - AFAIK (and confirmed with a benchmark) ref/out are pinned during P/Invoke calls and that has a cost. - Native struct fields can't be ref/out in the first place. - A `using` local can't be passed as ref/out, only `in`. Calling a method or property on an `in` value makes a silent copy, so we want to avoid `in`. REGARDING THE BUILD SYSTEM There's no longer a `mono_glue=yes/no` SCons options. We no longer need to build with `mono_glue=no`, generate the glue and then build again with `mono_glue=yes`. We build only once and generate the glue (which is in C# now). However, SCons no longer builds the C# projects for us. Instead one must run `build_assemblies.py`, e.g.: ```sh %godot_src_root%/modules/mono/build_scripts/build_assemblies.py \ --godot-output-dir=%godot_src_root%/bin \ --godot-target=release_debug` ``` We could turn this into a custom build target, but I don't know how to do that with SCons (it's possible with Meson). OTHER NOTES Most of the moved code doesn't follow the C# naming convention and still has the word Mono in the names despite no longer dealing with Mono's embedding APIs. This is just temporary while transitioning, to make it easier to understand what was moved where.
2021-05-03 15:21:06 +02:00
(void *)godotsharp_array_new_copy,
C#: Re-write Array, Dictionary, NodePath, String icalls as P/Invoke
2021-09-12 19:49:39 +02:00
(void *)godotsharp_array_ptrw,
(void *)godotsharp_dictionary_new,
C#: Move marshaling logic and generated glue to C# We will be progressively moving most code to C#. The plan is to only use Mono's embedding APIs to set things at launch. This will make it much easier to later support CoreCLR too which doesn't have rich embedding APIs. Additionally the code in C# is more maintainable and makes it easier to implement new features, e.g.: runtime codegen which we could use to avoid using reflection for marshaling everytime a field, property or method is accessed. SOME NOTES ON INTEROP We make the same assumptions as GDNative about the size of the Godot structures we use. We take it a bit further by also assuming the layout of fields in some cases, which is riskier but let's us squeeze out some performance by avoiding unnecessary managed to native calls. Code that deals with native structs is less safe than before as there's no RAII and copy constructors in C#. It's like using the GDNative C API directly. One has to take special care to free values they own. Perhaps we could use roslyn analyzers to check this, but I don't know any that uses attributes to determine what's owned or borrowed. As to why we maily use pointers for native structs instead of ref/out: - AFAIK (and confirmed with a benchmark) ref/out are pinned during P/Invoke calls and that has a cost. - Native struct fields can't be ref/out in the first place. - A `using` local can't be passed as ref/out, only `in`. Calling a method or property on an `in` value makes a silent copy, so we want to avoid `in`. REGARDING THE BUILD SYSTEM There's no longer a `mono_glue=yes/no` SCons options. We no longer need to build with `mono_glue=no`, generate the glue and then build again with `mono_glue=yes`. We build only once and generate the glue (which is in C# now). However, SCons no longer builds the C# projects for us. Instead one must run `build_assemblies.py`, e.g.: ```sh %godot_src_root%/modules/mono/build_scripts/build_assemblies.py \ --godot-output-dir=%godot_src_root%/bin \ --godot-target=release_debug` ``` We could turn this into a custom build target, but I don't know how to do that with SCons (it's possible with Meson). OTHER NOTES Most of the moved code doesn't follow the C# naming convention and still has the word Mono in the names despite no longer dealing with Mono's embedding APIs. This is just temporary while transitioning, to make it easier to understand what was moved where.
2021-05-03 15:21:06 +02:00
(void *)godotsharp_dictionary_new_copy,
(void *)godotsharp_packed_byte_array_destroy,
(void *)godotsharp_packed_int32_array_destroy,
(void *)godotsharp_packed_int64_array_destroy,
(void *)godotsharp_packed_float32_array_destroy,
(void *)godotsharp_packed_float64_array_destroy,
(void *)godotsharp_packed_string_array_destroy,
(void *)godotsharp_packed_vector2_array_destroy,
(void *)godotsharp_packed_vector3_array_destroy,
(void *)godotsharp_packed_color_array_destroy,
(void *)godotsharp_variant_destroy,
(void *)godotsharp_string_destroy,
(void *)godotsharp_string_name_destroy,
(void *)godotsharp_node_path_destroy,
(void *)godotsharp_signal_destroy,
(void *)godotsharp_callable_destroy,
(void *)godotsharp_array_destroy,
C#: Re-write Array, Dictionary, NodePath, String icalls as P/Invoke
2021-09-12 19:49:39 +02:00
(void *)godotsharp_dictionary_destroy,
(void *)godotsharp_array_add,
(void *)godotsharp_array_duplicate,
(void *)godotsharp_array_index_of,
(void *)godotsharp_array_insert,
(void *)godotsharp_array_remove_at,
(void *)godotsharp_array_resize,
(void *)godotsharp_array_shuffle,
(void *)godotsharp_dictionary_try_get_value,
(void *)godotsharp_dictionary_set_value,
(void *)godotsharp_dictionary_keys,
(void *)godotsharp_dictionary_values,
(void *)godotsharp_dictionary_count,
(void *)godotsharp_dictionary_key_value_pair_at,
(void *)godotsharp_dictionary_add,
(void *)godotsharp_dictionary_clear,
(void *)godotsharp_dictionary_contains_key,
(void *)godotsharp_dictionary_duplicate,
(void *)godotsharp_dictionary_remove_key,
(void *)godotsharp_string_md5_buffer,
(void *)godotsharp_string_md5_text,
(void *)godotsharp_string_rfind,
(void *)godotsharp_string_rfindn,
(void *)godotsharp_string_sha256_buffer,
(void *)godotsharp_string_sha256_text,
(void *)godotsharp_string_simplify_path,
(void *)godotsharp_node_path_get_as_property_path,
(void *)godotsharp_node_path_get_concatenated_names,
(void *)godotsharp_node_path_get_concatenated_subnames,
(void *)godotsharp_node_path_get_name,
(void *)godotsharp_node_path_get_name_count,
(void *)godotsharp_node_path_get_subname,
(void *)godotsharp_node_path_get_subname_count,
C#: Re-write GD and some other icalls as P/Invoke
2021-09-12 19:50:13 +02:00
(void *)godotsharp_node_path_is_absolute,
(void *)godotsharp_randomize,
(void *)godotsharp_randi,
(void *)godotsharp_randf,
(void *)godotsharp_randi_range,
(void *)godotsharp_randf_range,
(void *)godotsharp_randfn,
(void *)godotsharp_seed,
(void *)godotsharp_rand_from_seed,
(void *)godotsharp_weakref,
(void *)godotsharp_str,
(void *)godotsharp_print,
(void *)godotsharp_print_rich,
(void *)godotsharp_printerr,
(void *)godotsharp_printt,
(void *)godotsharp_prints,
(void *)godotsharp_printraw,
(void *)godotsharp_pusherror,
(void *)godotsharp_pushwarning,
(void *)godotsharp_var2str,
(void *)godotsharp_str2var,
(void *)godotsharp_var2bytes,
(void *)godotsharp_bytes2var,
(void *)godotsharp_hash,
(void *)godotsharp_convert,
(void *)godotsharp_instance_from_id,
(void *)godotsharp_object_to_string,
C#: Move marshaling logic and generated glue to C# We will be progressively moving most code to C#. The plan is to only use Mono's embedding APIs to set things at launch. This will make it much easier to later support CoreCLR too which doesn't have rich embedding APIs. Additionally the code in C# is more maintainable and makes it easier to implement new features, e.g.: runtime codegen which we could use to avoid using reflection for marshaling everytime a field, property or method is accessed. SOME NOTES ON INTEROP We make the same assumptions as GDNative about the size of the Godot structures we use. We take it a bit further by also assuming the layout of fields in some cases, which is riskier but let's us squeeze out some performance by avoiding unnecessary managed to native calls. Code that deals with native structs is less safe than before as there's no RAII and copy constructors in C#. It's like using the GDNative C API directly. One has to take special care to free values they own. Perhaps we could use roslyn analyzers to check this, but I don't know any that uses attributes to determine what's owned or borrowed. As to why we maily use pointers for native structs instead of ref/out: - AFAIK (and confirmed with a benchmark) ref/out are pinned during P/Invoke calls and that has a cost. - Native struct fields can't be ref/out in the first place. - A `using` local can't be passed as ref/out, only `in`. Calling a method or property on an `in` value makes a silent copy, so we want to avoid `in`. REGARDING THE BUILD SYSTEM There's no longer a `mono_glue=yes/no` SCons options. We no longer need to build with `mono_glue=no`, generate the glue and then build again with `mono_glue=yes`. We build only once and generate the glue (which is in C# now). However, SCons no longer builds the C# projects for us. Instead one must run `build_assemblies.py`, e.g.: ```sh %godot_src_root%/modules/mono/build_scripts/build_assemblies.py \ --godot-output-dir=%godot_src_root%/bin \ --godot-target=release_debug` ``` We could turn this into a custom build target, but I don't know how to do that with SCons (it's possible with Meson). OTHER NOTES Most of the moved code doesn't follow the C# naming convention and still has the word Mono in the names despite no longer dealing with Mono's embedding APIs. This is just temporary while transitioning, to make it easier to understand what was moved where.
2021-05-03 15:21:06 +02:00
};
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