void Initialize()
{
Units::Initialize();
Memory::WriteRelativeCall(&ObjectsUpdate, GET_FUNC_VPTR(OBJECTS_UPDATE_CALL), true);
Memory::WriteRelativeCall(&ObjectDepleteBodyKillChildUnit, GET_FUNC_VPTR(OBJECT_DEPLETE_BODY_UNIT_KILL_CALL), true);
}
void Initialize()
{
// TODO: If using DX_WRAPPER, refer to the DxWrapper.cpp file
// instead of hooking the game render loop
#if !defined(DX_WRAPPER)
Memory::WriteRelativeCall(&Rasterizer::Update, GET_FUNC_VPTR(RENDER_WINDOW_END_HOOK));
#endif
Memory::WriteRelativeCall(&RenderWindowHook, GET_FUNC_VPTR(RENDER_WINDOW_REFLECTION_CALL), true);
}
void Initialize()
{
c_settings_rasterizer::Register(Settings::Manager());
Render::Initialize();
// hook the calls to rasterizer_dispose
Memory::WriteRelativeCall(&RasterizerDisposeHook, GET_FUNC_VPTR(RASTERIZER_DISPOSE_CALL_FROM_RASTERIZER));
Memory::WriteRelativeCall(&RasterizerDisposeHook, GET_FUNC_VPTR(RASTERIZER_DISPOSE_CALL_FROM_SHELL));
size_t address = CAST_PTR(size_t, Rasterizer::DebugOptions());
for(const auto& rdt : k_rasterizer_debug_table)
{
// this is the only time we should be modifying the hs definitions
// outside of the ScriptLibrary code, so do some cast magic
Scripting::hs_global_definition* global_def = CAST_QUAL(Scripting::hs_global_definition*,
&(Scripting::HSExternalGlobals()[rdt.index]) ); // get the hs global definition we're about to fix up
global_def->address = CAST_PTR(void*, address + rdt.field);// fix the global definition's address to point to the correct memory
}
#if PLATFORM_VERSION <= 0x1090
// update the resolution definition array length
// definition count has been increased to 64 so that ridiculous amounts of resolutions in the future are accommodated
GET_PTR(RESOLUTION_LIST_COUNT) = NUMBEROF(g_resolution_list);
// redirect all resolution definition pointers to the new array
for(auto ptr : K_RESOLUTION_LIST_X_REFERENCES)
*ptr = &g_resolution_list[0].width;
for(auto ptr : K_RESOLUTION_LIST_Y_REFERENCES)
*ptr = &g_resolution_list[0].height;
for(auto ptr : K_RESOLUTION_LIST_STRING_REFERENCES)
*ptr = &g_resolution_list[0].resolution_string;
*GET_PTR(RESOLUTION_LIST_STRING_NULL_REFERENCE) = &(g_resolution_list[0].resolution_string[15]);
for(auto ptr : K_RESOLUTION_LIST_REFRESH_COUNT_REFERENCES)
*ptr = &g_resolution_list[0].refresh_rate_count;
for(auto ptr : K_RESOLUTION_LIST_REFRESH_RATE_REFERENCES)
*ptr = &g_resolution_list[0].refresh_rates;
// replace the original resolution populator with the new one
Memory::WriteRelativeCall(&SetupResolutions, GET_FUNC_VPTR(RESOLUTION_LIST_SETUP_RESOLUTIONS_CALL), true);
#endif
// make the screenshot function use a unique subfolder
tag_string screenshots_folder;
GetTimeStampStringForFile(screenshots_folder);
strcat_s(g_screenshot_folder, sizeof(g_screenshot_folder), screenshots_folder);
for(auto ptr : K_SCREENSHOT_FOLDER_REFERENCES)
*ptr = &g_screenshot_folder[0];
}
void c_gbuffer_system::Initialize()
{
char file_string[MAX_PATH];
file_string[0] = '\0';
g_default_system.Ctor();
c_gbuffer_system::g_output_object_tbn = false;
// leave as false, not enough vertex shader registers available to do object velocity with bones
c_gbuffer_system::g_output_object_velocity = false;
c_gbuffer_system::g_output_velocity = true;
D3DXMatrixIdentity(&c_gbuffer_system::g_identity_matrix);
Memory::WriteRelativeJmp(&Hook_RenderObjectList_GetObjectIndex,
GET_FUNC_VPTR(RENDER_OBJECT_LIST_HOOK), true);
Memory::WriteRelativeJmp(&Hook_RenderObjectList_ClearObjectIndex,
GET_FUNC_VPTR(RENDER_OBJECT_LIST_END_HOOK), true);
Memory::WriteRelativeJmp(&Hook_FirstPersonWeaponDraw_GetObjectIndex,
GET_FUNC_VPTR(FIRST_PERSON_WEAPON_DRAW_HOOK), true);
Memory::WriteRelativeJmp(&Hook_RenderObject_GetCurrentLOD,
GET_FUNC_VPTR(RENDER_OBJECT_OBJECT_LOD_HOOK), true);
Memory::WriteRelativeJmp(&Hook_CommandCameraSet,
GET_FUNC_VPTR(COMMAND_CAMERA_SET_HOOK), true);
Memory::WriteRelativeJmp(&Hook_CommandSwitchBSP,
GET_FUNC_VPTR(COMMAND_SWITCH_BSP_HOOK), true);
Memory::WriteRelativeJmp(&Hook_CommandGameSave,
GET_FUNC_VPTR(COMMAND_GAME_SAVE_HOOK), true);
Memory::WriteRelativeJmp(&Hook_RenderObjectsTransparent,
GET_FUNC_VPTR(RENDER_WINDOW_CALL_RENDER_OBJECTS_TRANSPARENT_HOOK), true);
byte NOP = 0x90;
byte* call_address;
call_address = CAST_PTR(byte*, GET_FUNC_VPTR(RASTERIZER_DRAW_STATIC_TRIANGLES_STATIC_VERTICES__DRAW_INDEXED_PRIMITIVE_HOOK));
Memory::WriteRelativeCall(&DrawIndexedPrimitive_Object,
call_address, true);
Memory::WriteMemory(call_address + 5, &NOP, sizeof(NOP));
call_address = CAST_PTR(byte*, GET_FUNC_VPTR(RASTERIZER_DRAW_DYNAMIC_TRIANGLES_STATIC_VERTICES2__DRAW_INDEXED_PRIMITIVE_HOOK));
Memory::WriteRelativeCall(&DrawIndexedPrimitive_Structure,
call_address, true);
Memory::WriteMemory(call_address + 5, &NOP, sizeof(NOP));
}
void Initialize()
{
Animations::Initialize();
SeatBoarding::Initialize();
// Enables biped seats
Memory::WriteMemory(GET_FUNC_VPTR(BIPED_UPDATE_CHECK_PARENT_UNIT_TYPE), Enums::_x86_opcode_nop, 2);
*CAST_PTR(byte*, GET_FUNC_PTR(BIPED_UPDATE_PARENT_UNIT_TYPE_MASK)) = Enums::_object_type_mask_unit;
*CAST_PTR(byte*, GET_FUNC_PTR(BIPED_VEHICLE_SPEECH_PARENT_UNIT_TYPE_MASK)) = Enums::_object_type_mask_unit;
*CAST_PTR(tag*, GET_FUNC_PTR(BIPED_VEHICLE_SPEECH_PARENT_UNIT_TYPE_TAG)) = 'unit';
// Stop an assertion when a unit with a parent tries to enter another seat
Memory::WriteMemory(GET_FUNC_VPTR(INTER_VEHICLE_SEAT_ASSERT_JZ), Enums::_x86_opcode_jmp_short, 1);
Memory::WriteRelativeCall(&UnitDamageAftermathHook, GET_FUNC_VPTR(UNIT_DAMAGE_AFTERMATH_CALL), true);
Memory::WriteRelativeJmp(&UnitCanEnterSeat, GET_FUNC_VPTR(UNIT_CAN_ENTER_SEAT_HOOK), true);
Memory::WriteRelativeJmp(&BipedSeatedMeleeHook, GET_FUNC_VPTR(BIPED_SEATED_MELEE_HOOK), true);
Memory::WriteRelativeCall(&UnitThrowGrenadeReleaseHook, GET_FUNC_VPTR(UNIT_THROW_GRENADE_RELEASE_HOOK), true);
Memory::WriteRelativeJmp(&WeaponPreventsGrenadeThrowingHook, GET_FUNC_VPTR(WEAPON_PREVENTS_GRENADE_THROWING_HOOK), true);
}
