Merge pull request #8722 from Minty-Meeo/master

Configurable MEM1 and MEM2 sizes at runtime via Dolphin.ini
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Léo Lam 2020-04-28 22:11:12 +02:00 committed by GitHub
commit 4b00ddf9aa
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27 changed files with 487 additions and 133 deletions

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@ -172,7 +172,7 @@ void CBoot::SetupGCMemory()
PowerPC::HostWrite_U32(0x0D15EA5E, 0x80000020); PowerPC::HostWrite_U32(0x0D15EA5E, 0x80000020);
// Physical Memory Size (24MB on retail) // Physical Memory Size (24MB on retail)
PowerPC::HostWrite_U32(Memory::REALRAM_SIZE, 0x80000028); PowerPC::HostWrite_U32(Memory::GetRamSizeReal(), 0x80000028);
// Console type - DevKit (retail ID == 0x00000003) see YAGCD 4.2.1.1.2 // Console type - DevKit (retail ID == 0x00000003) see YAGCD 4.2.1.1.2
// TODO: determine why some games fail when using a retail ID. // TODO: determine why some games fail when using a retail ID.
@ -371,14 +371,14 @@ bool CBoot::SetupWiiMemory(IOS::HLE::IOSC::ConsoleType console_type)
Memory::Write_U32(0x0D15EA5E, 0x00000020); // Another magic word Memory::Write_U32(0x0D15EA5E, 0x00000020); // Another magic word
Memory::Write_U32(0x00000001, 0x00000024); // Unknown Memory::Write_U32(0x00000001, 0x00000024); // Unknown
Memory::Write_U32(Memory::REALRAM_SIZE, 0x00000028); // MEM1 size 24MB Memory::Write_U32(Memory::GetRamSizeReal(), 0x00000028); // MEM1 size 24MB
u32 board_model = console_type == IOS::HLE::IOSC::ConsoleType::RVT ? 0x10000021 : 0x00000023; u32 board_model = console_type == IOS::HLE::IOSC::ConsoleType::RVT ? 0x10000021 : 0x00000023;
Memory::Write_U32(board_model, 0x0000002c); // Board Model Memory::Write_U32(board_model, 0x0000002c); // Board Model
Memory::Write_U32(0x00000000, 0x00000030); // Init Memory::Write_U32(0x00000000, 0x00000030); // Init
Memory::Write_U32(0x817FEC60, 0x00000034); // Init Memory::Write_U32(0x817FEC60, 0x00000034); // Init
// 38, 3C should get start, size of FST through apploader // 38, 3C should get start, size of FST through apploader
Memory::Write_U32(0x8008f7b8, 0x000000e4); // Thread Init Memory::Write_U32(0x8008f7b8, 0x000000e4); // Thread Init
Memory::Write_U32(Memory::REALRAM_SIZE, 0x000000f0); // "Simulated memory size" (debug mode?) Memory::Write_U32(Memory::GetRamSizeReal(), 0x000000f0); // "Simulated memory size" (debug mode?)
Memory::Write_U32(0x8179b500, 0x000000f4); // __start Memory::Write_U32(0x8179b500, 0x000000f4); // __start
Memory::Write_U32(0x0e7be2c0, 0x000000f8); // Bus speed Memory::Write_U32(0x0e7be2c0, 0x000000f8); // Bus speed
Memory::Write_U32(0x2B73A840, 0x000000fc); // CPU speed Memory::Write_U32(0x2B73A840, 0x000000fc); // CPU speed
@ -493,6 +493,9 @@ bool CBoot::EmulatedBS2_Wii(const DiscIO::VolumeDisc& volume)
if (!RunApploader(/*is_wii*/ true, volume)) if (!RunApploader(/*is_wii*/ true, volume))
return false; return false;
// The Apploader probably just overwrote values needed for RAM Override. Run this again!
IOS::HLE::RAMOverrideForIOSMemoryValues(IOS::HLE::MemorySetupType::IOSReload);
// Warning: This call will set incorrect running game metadata if our volume parameter // Warning: This call will set incorrect running game metadata if our volume parameter
// doesn't point to the same disc as the one that's inserted in the emulated disc drive! // doesn't point to the same disc as the one that's inserted in the emulated disc drive!
IOS::HLE::GetIOS()->GetES()->DIVerify(tmd, volume.GetTicket(partition)); IOS::HLE::GetIOS()->GetES()->DIVerify(tmd, volume.GetTicket(partition));

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@ -102,7 +102,7 @@ bool DolReader::LoadIntoMemory(bool only_in_mem1) const
for (size_t i = 0; i < m_text_sections.size(); ++i) for (size_t i = 0; i < m_text_sections.size(); ++i)
if (!m_text_sections[i].empty() && if (!m_text_sections[i].empty() &&
!(only_in_mem1 && !(only_in_mem1 &&
m_dolheader.textAddress[i] + m_text_sections[i].size() >= Memory::REALRAM_SIZE)) m_dolheader.textAddress[i] + m_text_sections[i].size() >= Memory::GetRamSizeReal()))
{ {
Memory::CopyToEmu(m_dolheader.textAddress[i], m_text_sections[i].data(), Memory::CopyToEmu(m_dolheader.textAddress[i], m_text_sections[i].data(),
m_text_sections[i].size()); m_text_sections[i].size());
@ -112,7 +112,7 @@ bool DolReader::LoadIntoMemory(bool only_in_mem1) const
for (size_t i = 0; i < m_data_sections.size(); ++i) for (size_t i = 0; i < m_data_sections.size(); ++i)
if (!m_data_sections[i].empty() && if (!m_data_sections[i].empty() &&
!(only_in_mem1 && !(only_in_mem1 &&
m_dolheader.dataAddress[i] + m_data_sections[i].size() >= Memory::REALRAM_SIZE)) m_dolheader.dataAddress[i] + m_data_sections[i].size() >= Memory::GetRamSizeReal()))
{ {
Memory::CopyToEmu(m_dolheader.dataAddress[i], m_data_sections[i].data(), Memory::CopyToEmu(m_dolheader.dataAddress[i], m_data_sections[i].data(),
m_data_sections[i].size()); m_data_sections[i].size());

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@ -151,7 +151,7 @@ bool ElfReader::LoadIntoMemory(bool only_in_mem1) const
u32 srcSize = p->p_filesz; u32 srcSize = p->p_filesz;
u32 dstSize = p->p_memsz; u32 dstSize = p->p_memsz;
if (only_in_mem1 && p->p_vaddr >= Memory::REALRAM_SIZE) if (only_in_mem1 && p->p_vaddr >= Memory::GetRamSizeReal())
continue; continue;
Memory::CopyToEmu(writeAddr, src, srcSize); Memory::CopyToEmu(writeAddr, src, srcSize);

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@ -9,6 +9,7 @@
#include "AudioCommon/AudioCommon.h" #include "AudioCommon/AudioCommon.h"
#include "Common/Config/Config.h" #include "Common/Config/Config.h"
#include "Core/HW/EXI/EXI_Device.h" #include "Core/HW/EXI/EXI_Device.h"
#include "Core/HW/Memmap.h"
#include "Core/HW/SI/SI_Device.h" #include "Core/HW/SI/SI_Device.h"
#include "Core/PowerPC/PowerPC.h" #include "Core/PowerPC/PowerPC.h"
@ -98,6 +99,9 @@ const ConfigInfo<bool> MAIN_ACCURATE_NANS{{System::Main, "Core", "AccurateNaNs"}
const ConfigInfo<float> MAIN_EMULATION_SPEED{{System::Main, "Core", "EmulationSpeed"}, 1.0f}; const ConfigInfo<float> MAIN_EMULATION_SPEED{{System::Main, "Core", "EmulationSpeed"}, 1.0f};
const ConfigInfo<float> MAIN_OVERCLOCK{{System::Main, "Core", "Overclock"}, 1.0f}; const ConfigInfo<float> MAIN_OVERCLOCK{{System::Main, "Core", "Overclock"}, 1.0f};
const ConfigInfo<bool> MAIN_OVERCLOCK_ENABLE{{System::Main, "Core", "OverclockEnable"}, false}; const ConfigInfo<bool> MAIN_OVERCLOCK_ENABLE{{System::Main, "Core", "OverclockEnable"}, false};
const ConfigInfo<bool> MAIN_RAM_OVERRIDE_ENABLE{{System::Main, "Core", "RAMOverrideEnable"}, false};
const ConfigInfo<u32> MAIN_MEM1_SIZE{{System::Main, "Core", "MEM1Size"}, Memory::MEM1_SIZE_RETAIL};
const ConfigInfo<u32> MAIN_MEM2_SIZE{{System::Main, "Core", "MEM2Size"}, Memory::MEM2_SIZE_RETAIL};
const ConfigInfo<std::string> MAIN_GFX_BACKEND{{System::Main, "Core", "GFXBackend"}, ""}; const ConfigInfo<std::string> MAIN_GFX_BACKEND{{System::Main, "Core", "GFXBackend"}, ""};
const ConfigInfo<std::string> MAIN_GPU_DETERMINISM_MODE{ const ConfigInfo<std::string> MAIN_GPU_DETERMINISM_MODE{
{System::Main, "Core", "GPUDeterminismMode"}, "auto"}; {System::Main, "Core", "GPUDeterminismMode"}, "auto"};

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@ -76,6 +76,9 @@ extern const ConfigInfo<bool> MAIN_ACCURATE_NANS;
extern const ConfigInfo<float> MAIN_EMULATION_SPEED; extern const ConfigInfo<float> MAIN_EMULATION_SPEED;
extern const ConfigInfo<float> MAIN_OVERCLOCK; extern const ConfigInfo<float> MAIN_OVERCLOCK;
extern const ConfigInfo<bool> MAIN_OVERCLOCK_ENABLE; extern const ConfigInfo<bool> MAIN_OVERCLOCK_ENABLE;
extern const ConfigInfo<bool> MAIN_RAM_OVERRIDE_ENABLE;
extern const ConfigInfo<u32> MAIN_MEM1_SIZE;
extern const ConfigInfo<u32> MAIN_MEM2_SIZE;
// Should really be part of System::GFX, but again, we're stuck with past mistakes. // Should really be part of System::GFX, but again, we're stuck with past mistakes.
extern const ConfigInfo<std::string> MAIN_GFX_BACKEND; extern const ConfigInfo<std::string> MAIN_GFX_BACKEND;
extern const ConfigInfo<std::string> MAIN_GPU_DETERMINISM_MODE; extern const ConfigInfo<std::string> MAIN_GPU_DETERMINISM_MODE;

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@ -28,7 +28,7 @@ bool IsSettingSaveable(const Config::ConfigLocation& config_location)
return true; return true;
} }
static constexpr std::array<const Config::ConfigLocation*, 93> s_setting_saveable = { static constexpr std::array<const Config::ConfigLocation*, 96> s_setting_saveable = {
// Main.Core // Main.Core
&Config::MAIN_DEFAULT_ISO.location, &Config::MAIN_DEFAULT_ISO.location,
@ -37,8 +37,12 @@ bool IsSettingSaveable(const Config::ConfigLocation& config_location)
&Config::MAIN_AUTO_DISC_CHANGE.location, &Config::MAIN_AUTO_DISC_CHANGE.location,
&Config::MAIN_DPL2_DECODER.location, &Config::MAIN_DPL2_DECODER.location,
&Config::MAIN_DPL2_QUALITY.location, &Config::MAIN_DPL2_QUALITY.location,
&Config::MAIN_RAM_OVERRIDE_ENABLE.location,
&Config::MAIN_MEM1_SIZE.location,
&Config::MAIN_MEM2_SIZE.location,
// Main.Display // Main.Display
&Config::MAIN_FULLSCREEN_DISPLAY_RES.location, &Config::MAIN_FULLSCREEN_DISPLAY_RES.location,
&Config::MAIN_FULLSCREEN.location, &Config::MAIN_FULLSCREEN.location,
&Config::MAIN_RENDER_TO_MAIN.location, &Config::MAIN_RENDER_TO_MAIN.location,

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@ -11,12 +11,18 @@
#include <vector> #include <vector>
#include "Common/File.h" #include "Common/File.h"
#include "Common/MsgHandler.h"
#include "Core/Config/MainSettings.h"
#include "Core/HW/Memmap.h"
enum enum
{ {
FILE_ID = 0x0d01f1f0, FILE_ID = 0x0d01f1f0,
VERSION_NUMBER = 4, VERSION_NUMBER = 5,
MIN_LOADER_VERSION = 1, MIN_LOADER_VERSION = 1,
// This value is only used if the DFF file was created with overridden RAM sizes.
// If the MIN_LOADER_VERSION ever exceeds this, it's alright to remove it.
MIN_LOADER_VERSION_FOR_RAM_OVERRIDE = 5,
}; };
#pragma pack(push, 1) #pragma pack(push, 1)
@ -39,7 +45,11 @@ struct FileHeader
u32 flags; u32 flags;
u64 texMemOffset; u64 texMemOffset;
u32 texMemSize; u32 texMemSize;
u8 reserved[40]; // These are for overriden RAM sizes. Otherwise the FIFO Player
// will crash and burn with mismatched settings. See PR #8722.
u32 mem1_size;
u32 mem2_size;
u8 reserved[32];
}; };
static_assert(sizeof(FileHeader) == 128, "FileHeader should be 128 bytes"); static_assert(sizeof(FileHeader) == 128, "FileHeader should be 128 bytes");
@ -129,6 +139,10 @@ bool FifoDataFile::Save(const std::string& filename)
FileHeader header; FileHeader header;
header.fileId = FILE_ID; header.fileId = FILE_ID;
header.file_version = VERSION_NUMBER; header.file_version = VERSION_NUMBER;
// Maintain backwards compatability so long as the RAM sizes aren't overridden.
if (Config::Get(Config::MAIN_RAM_OVERRIDE_ENABLE))
header.min_loader_version = MIN_LOADER_VERSION_FOR_RAM_OVERRIDE;
else
header.min_loader_version = MIN_LOADER_VERSION; header.min_loader_version = MIN_LOADER_VERSION;
header.bpMemOffset = bpMemOffset; header.bpMemOffset = bpMemOffset;
@ -151,6 +165,9 @@ bool FifoDataFile::Save(const std::string& filename)
header.flags = m_Flags; header.flags = m_Flags;
header.mem1_size = Memory::GetRamSizeReal();
header.mem2_size = Memory::GetExRamSizeReal();
file.Seek(0, SEEK_SET); file.Seek(0, SEEK_SET);
file.WriteBytes(&header, sizeof(FileHeader)); file.WriteBytes(&header, sizeof(FileHeader));
@ -198,10 +215,22 @@ std::unique_ptr<FifoDataFile> FifoDataFile::Load(const std::string& filename, bo
if (header.fileId != FILE_ID || header.min_loader_version > VERSION_NUMBER) if (header.fileId != FILE_ID || header.min_loader_version > VERSION_NUMBER)
{ {
CriticalAlertT(
"The DFF's minimum loader version (%d) exceeds the version of this FIFO Player (%d)",
header.min_loader_version, VERSION_NUMBER);
file.Close(); file.Close();
return nullptr; return nullptr;
} }
// Official support for overridden RAM sizes was added in version 5.
if (header.file_version < 5)
{
// It's safe to assume FIFO Logs before PR #8722 weren't using this
// obscure feature, so load up these header values with the old defaults.
header.mem1_size = Memory::MEM1_SIZE_RETAIL;
header.mem2_size = Memory::MEM2_SIZE_RETAIL;
}
auto dataFile = std::make_unique<FifoDataFile>(); auto dataFile = std::make_unique<FifoDataFile>();
dataFile->m_Flags = header.flags; dataFile->m_Flags = header.flags;
@ -209,10 +238,36 @@ std::unique_ptr<FifoDataFile> FifoDataFile::Load(const std::string& filename, bo
if (flagsOnly) if (flagsOnly)
{ {
// Force settings to match those used when the DFF was created. This is sort of a hack.
// It only works because this function gets called twice, and the first time (flagsOnly mode)
// happens to be before HW::Init(). But the convenience is hard to deny!
Config::SetCurrent(Config::MAIN_RAM_OVERRIDE_ENABLE, true);
Config::SetCurrent(Config::MAIN_MEM1_SIZE, header.mem1_size);
Config::SetCurrent(Config::MAIN_MEM2_SIZE, header.mem2_size);
file.Close(); file.Close();
return dataFile; return dataFile;
} }
// To make up for such a hacky thing, here is a catch-all failsafe in case if the above code
// stops working or is otherwise removed. As it is, this should never end up running.
// It should be noted, however, that Dolphin *will still crash* from the nullptr being returned
// in a non-flagsOnly context, so if this code becomes necessary, it should be moved above the
// prior conditional.
if (header.mem1_size != Memory::GetRamSizeReal() ||
header.mem2_size != Memory::GetExRamSizeReal())
{
CriticalAlertT("Emulated memory size mismatch!\n"
"Current | MEM1 %08X (%3dMB) MEM2 %08X (%3dMB)\n"
"DFF | MEM1 %08X (%3dMB) MEM2 %08X (%3dMB)",
Memory::GetRamSizeReal(), Memory::GetRamSizeReal() / 0x100000,
Memory::GetExRamSizeReal(), Memory::GetExRamSizeReal() / 0x100000,
header.mem1_size, header.mem1_size / 0x100000, header.mem2_size,
header.mem2_size / 0x100000);
file.Close();
return nullptr;
}
u32 size = std::min<u32>(BP_MEM_SIZE, header.bpMemSize); u32 size = std::min<u32>(BP_MEM_SIZE, header.bpMemSize);
file.Seek(header.bpMemOffset, SEEK_SET); file.Seek(header.bpMemOffset, SEEK_SET);
file.ReadArray(dataFile->m_BPMem, size); file.ReadArray(dataFile->m_BPMem, size);
@ -238,6 +293,10 @@ std::unique_ptr<FifoDataFile> FifoDataFile::Load(const std::string& filename, bo
file.ReadArray(dataFile->m_TexMem, size); file.ReadArray(dataFile->m_TexMem, size);
} }
// idk what else these could be used for, but it'd be a shame to not make them available.
dataFile->m_ram_size_real = header.mem1_size;
dataFile->m_exram_size_real = header.mem2_size;
// Read frames // Read frames
for (u32 i = 0; i < header.frameCount; ++i) for (u32 i = 0; i < header.frameCount; ++i)
{ {

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@ -69,6 +69,9 @@ public:
u32* GetXFMem() { return m_XFMem; } u32* GetXFMem() { return m_XFMem; }
u32* GetXFRegs() { return m_XFRegs; } u32* GetXFRegs() { return m_XFRegs; }
u8* GetTexMem() { return m_TexMem; } u8* GetTexMem() { return m_TexMem; }
u32 GetRamSizeReal() { return m_ram_size_real; }
u32 GetExRamSizeReal() { return m_exram_size_real; }
void AddFrame(const FifoFrameInfo& frameInfo); void AddFrame(const FifoFrameInfo& frameInfo);
const FifoFrameInfo& GetFrame(u32 frame) const { return m_Frames[frame]; } const FifoFrameInfo& GetFrame(u32 frame) const { return m_Frames[frame]; }
u32 GetFrameCount() const { return static_cast<u32>(m_Frames.size()); } u32 GetFrameCount() const { return static_cast<u32>(m_Frames.size()); }
@ -96,6 +99,8 @@ private:
u32 m_XFMem[XF_MEM_SIZE]; u32 m_XFMem[XF_MEM_SIZE];
u32 m_XFRegs[XF_REGS_SIZE]; u32 m_XFRegs[XF_REGS_SIZE];
u8 m_TexMem[TEX_MEM_SIZE]; u8 m_TexMem[TEX_MEM_SIZE];
u32 m_ram_size_real;
u32 m_exram_size_real;
u32 m_Flags = 0; u32 m_Flags = 0;
u32 m_Version = 0; u32 m_Version = 0;

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@ -356,9 +356,9 @@ void FifoPlayer::WriteMemory(const MemoryUpdate& memUpdate)
u8* mem = nullptr; u8* mem = nullptr;
if (memUpdate.address & 0x10000000) if (memUpdate.address & 0x10000000)
mem = &Memory::m_pEXRAM[memUpdate.address & Memory::EXRAM_MASK]; mem = &Memory::m_pEXRAM[memUpdate.address & Memory::GetExRamMask()];
else else
mem = &Memory::m_pRAM[memUpdate.address & Memory::RAM_MASK]; mem = &Memory::m_pRAM[memUpdate.address & Memory::GetRamMask()];
std::copy(memUpdate.data.begin(), memUpdate.data.end(), mem); std::copy(memUpdate.data.begin(), memUpdate.data.end(), mem);
} }

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@ -36,8 +36,8 @@ void FifoRecorder::StartRecording(s32 numFrames, CallbackFunc finishedCb)
// - Global variables suck // - Global variables suck
// - Multithreading with the above two sucks // - Multithreading with the above two sucks
// //
m_Ram.resize(Memory::RAM_SIZE); m_Ram.resize(Memory::GetRamSize());
m_ExRam.resize(Memory::EXRAM_SIZE); m_ExRam.resize(Memory::GetExRamSize());
std::fill(m_Ram.begin(), m_Ram.end(), 0); std::fill(m_Ram.begin(), m_Ram.end(), 0);
std::fill(m_ExRam.begin(), m_ExRam.end(), 0); std::fill(m_ExRam.begin(), m_ExRam.end(), 0);
@ -121,13 +121,13 @@ void FifoRecorder::UseMemory(u32 address, u32 size, MemoryUpdate::Type type, boo
u8* newData; u8* newData;
if (address & 0x10000000) if (address & 0x10000000)
{ {
curData = &m_ExRam[address & Memory::EXRAM_MASK]; curData = &m_ExRam[address & Memory::GetExRamMask()];
newData = &Memory::m_pEXRAM[address & Memory::EXRAM_MASK]; newData = &Memory::m_pEXRAM[address & Memory::GetExRamMask()];
} }
else else
{ {
curData = &m_Ram[address & Memory::RAM_MASK]; curData = &m_Ram[address & Memory::GetRamMask()];
newData = &Memory::m_pRAM[address & Memory::RAM_MASK]; newData = &Memory::m_pRAM[address & Memory::GetRamMask()];
} }
if (!dynamicUpdate && memcmp(curData, newData, size) != 0) if (!dynamicUpdate && memcmp(curData, newData, size) != 0)

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@ -234,6 +234,7 @@ struct AccessorMapping
struct CompositeAddressSpaceAccessors : Accessors struct CompositeAddressSpaceAccessors : Accessors
{ {
CompositeAddressSpaceAccessors() = default;
CompositeAddressSpaceAccessors(std::initializer_list<AccessorMapping> accessors) CompositeAddressSpaceAccessors(std::initializer_list<AccessorMapping> accessors)
: m_accessor_mappings(accessors.begin(), accessors.end()) : m_accessor_mappings(accessors.begin(), accessors.end())
{ {
@ -303,6 +304,7 @@ private:
struct SmallBlockAccessors : Accessors struct SmallBlockAccessors : Accessors
{ {
SmallBlockAccessors() = default;
SmallBlockAccessors(u8** alloc_base_, u32 size_) : alloc_base{alloc_base_}, size{size_} {} SmallBlockAccessors(u8** alloc_base_, u32 size_) : alloc_base{alloc_base_}, size{size_} {}
bool IsValidAddress(u32 address) const override bool IsValidAddress(u32 address) const override
@ -366,14 +368,11 @@ struct NullAccessors : Accessors
static EffectiveAddressSpaceAccessors s_effective_address_space_accessors; static EffectiveAddressSpaceAccessors s_effective_address_space_accessors;
static AuxiliaryAddressSpaceAccessors s_auxiliary_address_space_accessors; static AuxiliaryAddressSpaceAccessors s_auxiliary_address_space_accessors;
static SmallBlockAccessors s_mem1_address_space_accessors{&Memory::m_pRAM, Memory::REALRAM_SIZE}; static SmallBlockAccessors s_mem1_address_space_accessors;
static SmallBlockAccessors s_mem2_address_space_accessors{&Memory::m_pEXRAM, Memory::EXRAM_SIZE}; static SmallBlockAccessors s_mem2_address_space_accessors;
static SmallBlockAccessors s_fake_address_space_accessors{&Memory::m_pFakeVMEM, static SmallBlockAccessors s_fake_address_space_accessors;
Memory::FAKEVMEM_SIZE}; static CompositeAddressSpaceAccessors s_physical_address_space_accessors_gcn;
static CompositeAddressSpaceAccessors s_physical_address_space_accessors_gcn{ static CompositeAddressSpaceAccessors s_physical_address_space_accessors_wii;
{0x00000000, &s_mem1_address_space_accessors}};
static CompositeAddressSpaceAccessors s_physical_address_space_accessors_wii{
{0x00000000, &s_mem1_address_space_accessors}, {0x10000000, &s_mem2_address_space_accessors}};
static NullAccessors s_null_accessors; static NullAccessors s_null_accessors;
Accessors* GetAccessors(Type address_space) Accessors* GetAccessors(Type address_space)
@ -413,4 +412,14 @@ Accessors* GetAccessors(Type address_space)
return &s_null_accessors; return &s_null_accessors;
} }
void Init()
{
s_mem1_address_space_accessors = {&Memory::m_pRAM, Memory::GetRamSizeReal()};
s_mem2_address_space_accessors = {&Memory::m_pEXRAM, Memory::GetExRamSizeReal()};
s_fake_address_space_accessors = {&Memory::m_pFakeVMEM, Memory::GetFakeVMemSize()};
s_physical_address_space_accessors_gcn = {{0x00000000, &s_mem1_address_space_accessors}};
s_physical_address_space_accessors_wii = {{0x00000000, &s_mem1_address_space_accessors},
{0x10000000, &s_mem2_address_space_accessors}};
}
} // namespace AddressSpace } // namespace AddressSpace

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@ -47,4 +47,6 @@ struct Accessors
Accessors* GetAccessors(Type address_space); Accessors* GetAccessors(Type address_space);
void Init();
} // namespace AddressSpace } // namespace AddressSpace

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@ -193,8 +193,8 @@ void Reinit(bool hle)
if (SConfig::GetInstance().bWii) if (SConfig::GetInstance().bWii)
{ {
s_ARAM.wii_mode = true; s_ARAM.wii_mode = true;
s_ARAM.size = Memory::EXRAM_SIZE; s_ARAM.size = Memory::GetExRamSizeReal();
s_ARAM.mask = Memory::EXRAM_MASK; s_ARAM.mask = Memory::GetExRamMask();
s_ARAM.ptr = Memory::m_pEXRAM; s_ARAM.ptr = Memory::m_pEXRAM;
} }
else else
@ -589,7 +589,7 @@ u8 ReadARAM(u32 address)
if (address & 0x10000000) if (address & 0x10000000)
return s_ARAM.ptr[address & s_ARAM.mask]; return s_ARAM.ptr[address & s_ARAM.mask];
else else
return Memory::Read_U8(address & Memory::RAM_MASK); return Memory::Read_U8(address & Memory::GetRamMask());
} }
else else
{ {

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@ -39,17 +39,17 @@ constexpr bool ExramRead(u32 address)
u8 HLEMemory_Read_U8(u32 address) u8 HLEMemory_Read_U8(u32 address)
{ {
if (ExramRead(address)) if (ExramRead(address))
return Memory::m_pEXRAM[address & Memory::EXRAM_MASK]; return Memory::m_pEXRAM[address & Memory::GetExRamMask()];
return Memory::m_pRAM[address & Memory::RAM_MASK]; return Memory::m_pRAM[address & Memory::GetRamMask()];
} }
void HLEMemory_Write_U8(u32 address, u8 value) void HLEMemory_Write_U8(u32 address, u8 value)
{ {
if (ExramRead(address)) if (ExramRead(address))
Memory::m_pEXRAM[address & Memory::EXRAM_MASK] = value; Memory::m_pEXRAM[address & Memory::GetExRamMask()] = value;
else else
Memory::m_pRAM[address & Memory::RAM_MASK] = value; Memory::m_pRAM[address & Memory::GetRamMask()] = value;
} }
u16 HLEMemory_Read_U16LE(u32 address) u16 HLEMemory_Read_U16LE(u32 address)
@ -57,9 +57,9 @@ u16 HLEMemory_Read_U16LE(u32 address)
u16 value; u16 value;
if (ExramRead(address)) if (ExramRead(address))
std::memcpy(&value, &Memory::m_pEXRAM[address & Memory::EXRAM_MASK], sizeof(u16)); std::memcpy(&value, &Memory::m_pEXRAM[address & Memory::GetExRamMask()], sizeof(u16));
else else
std::memcpy(&value, &Memory::m_pRAM[address & Memory::RAM_MASK], sizeof(u16)); std::memcpy(&value, &Memory::m_pRAM[address & Memory::GetRamMask()], sizeof(u16));
return value; return value;
} }
@ -72,9 +72,9 @@ u16 HLEMemory_Read_U16(u32 address)
void HLEMemory_Write_U16LE(u32 address, u16 value) void HLEMemory_Write_U16LE(u32 address, u16 value)
{ {
if (ExramRead(address)) if (ExramRead(address))
std::memcpy(&Memory::m_pEXRAM[address & Memory::EXRAM_MASK], &value, sizeof(u16)); std::memcpy(&Memory::m_pEXRAM[address & Memory::GetExRamMask()], &value, sizeof(u16));
else else
std::memcpy(&Memory::m_pRAM[address & Memory::RAM_MASK], &value, sizeof(u16)); std::memcpy(&Memory::m_pRAM[address & Memory::GetRamMask()], &value, sizeof(u16));
} }
void HLEMemory_Write_U16(u32 address, u16 value) void HLEMemory_Write_U16(u32 address, u16 value)
@ -87,9 +87,9 @@ u32 HLEMemory_Read_U32LE(u32 address)
u32 value; u32 value;
if (ExramRead(address)) if (ExramRead(address))
std::memcpy(&value, &Memory::m_pEXRAM[address & Memory::EXRAM_MASK], sizeof(u32)); std::memcpy(&value, &Memory::m_pEXRAM[address & Memory::GetExRamMask()], sizeof(u32));
else else
std::memcpy(&value, &Memory::m_pRAM[address & Memory::RAM_MASK], sizeof(u32)); std::memcpy(&value, &Memory::m_pRAM[address & Memory::GetRamMask()], sizeof(u32));
return value; return value;
} }
@ -102,9 +102,9 @@ u32 HLEMemory_Read_U32(u32 address)
void HLEMemory_Write_U32LE(u32 address, u32 value) void HLEMemory_Write_U32LE(u32 address, u32 value)
{ {
if (ExramRead(address)) if (ExramRead(address))
std::memcpy(&Memory::m_pEXRAM[address & Memory::EXRAM_MASK], &value, sizeof(u32)); std::memcpy(&Memory::m_pEXRAM[address & Memory::GetExRamMask()], &value, sizeof(u32));
else else
std::memcpy(&Memory::m_pRAM[address & Memory::RAM_MASK], &value, sizeof(u32)); std::memcpy(&Memory::m_pRAM[address & Memory::GetRamMask()], &value, sizeof(u32));
} }
void HLEMemory_Write_U32(u32 address, u32 value) void HLEMemory_Write_U32(u32 address, u32 value)
@ -115,9 +115,9 @@ void HLEMemory_Write_U32(u32 address, u32 value)
void* HLEMemory_Get_Pointer(u32 address) void* HLEMemory_Get_Pointer(u32 address)
{ {
if (ExramRead(address)) if (ExramRead(address))
return &Memory::m_pEXRAM[address & Memory::EXRAM_MASK]; return &Memory::m_pEXRAM[address & Memory::GetExRamMask()];
return &Memory::m_pRAM[address & Memory::RAM_MASK]; return &Memory::m_pRAM[address & Memory::GetRamMask()];
} }
UCodeInterface::UCodeInterface(DSPHLE* dsphle, u32 crc) UCodeInterface::UCodeInterface(DSPHLE* dsphle, u32 crc)

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@ -10,6 +10,7 @@
#include "Core/ConfigManager.h" #include "Core/ConfigManager.h"
#include "Core/Core.h" #include "Core/Core.h"
#include "Core/CoreTiming.h" #include "Core/CoreTiming.h"
#include "Core/HW/AddressSpace.h"
#include "Core/HW/AudioInterface.h" #include "Core/HW/AudioInterface.h"
#include "Core/HW/CPU.h" #include "Core/HW/CPU.h"
#include "Core/HW/DSP.h" #include "Core/HW/DSP.h"
@ -41,7 +42,8 @@ void Init()
SerialInterface::Init(); SerialInterface::Init();
ProcessorInterface::Init(); ProcessorInterface::Init();
ExpansionInterface::Init(); // Needs to be initialized before Memory ExpansionInterface::Init(); // Needs to be initialized before Memory
Memory::Init(); Memory::Init(); // Needs to be initialized before AddressSpace
AddressSpace::Init();
DSP::Init(SConfig::GetInstance().bDSPHLE); DSP::Init(SConfig::GetInstance().bDSPHLE);
DVDInterface::Init(); DVDInterface::Init();
GPFifo::Init(); GPFifo::Init();

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@ -10,6 +10,7 @@
#include "Core/HW/Memmap.h" #include "Core/HW/Memmap.h"
#include <algorithm> #include <algorithm>
#include <array>
#include <cstring> #include <cstring>
#include <memory> #include <memory>
@ -18,6 +19,7 @@
#include "Common/Logging/Log.h" #include "Common/Logging/Log.h"
#include "Common/MemArena.h" #include "Common/MemArena.h"
#include "Common/Swap.h" #include "Common/Swap.h"
#include "Core/Config/MainSettings.h"
#include "Core/ConfigManager.h" #include "Core/ConfigManager.h"
#include "Core/HW/AudioInterface.h" #include "Core/HW/AudioInterface.h"
#include "Core/HW/DSP.h" #include "Core/HW/DSP.h"
@ -57,6 +59,70 @@ u8* m_pL1Cache;
u8* m_pEXRAM; u8* m_pEXRAM;
u8* m_pFakeVMEM; u8* m_pFakeVMEM;
// s_ram_size is the amount allocated by the emulator, whereas s_ram_size_real
// is what will be reported in lowmem, and thus used by emulated software.
// Note: Writing to lowmem is done by IPL. If using retail IPL, it will
// always be set to 24MB.
static u32 s_ram_size_real;
static u32 s_ram_size;
static u32 s_ram_mask;
static u32 s_fakevmem_size;
static u32 s_fakevmem_mask;
static u32 s_L1_cache_size;
static u32 s_L1_cache_mask;
static u32 s_io_size;
// s_exram_size is the amount allocated by the emulator, whereas s_exram_size_real
// is what gets used by emulated software. If using retail IOS, it will
// always be set to 64MB.
static u32 s_exram_size_real;
static u32 s_exram_size;
static u32 s_exram_mask;
u32 GetRamSizeReal()
{
return s_ram_size_real;
}
u32 GetRamSize()
{
return s_ram_size;
}
u32 GetRamMask()
{
return s_ram_mask;
}
u32 GetFakeVMemSize()
{
return s_fakevmem_size;
}
u32 GetFakeVMemMask()
{
return s_fakevmem_mask;
}
u32 GetL1CacheSize()
{
return s_L1_cache_size;
}
u32 GetL1CacheMask()
{
return s_L1_cache_mask;
}
u32 GetIOSize()
{
return s_io_size;
}
u32 GetExRamSizeReal()
{
return s_exram_size_real;
}
u32 GetExRamSize()
{
return s_exram_size;
}
u32 GetExRamMask()
{
return s_exram_mask;
}
// MMIO mapping object. // MMIO mapping object.
std::unique_ptr<MMIO::Mapping> mmio_mapping; std::unique_ptr<MMIO::Mapping> mmio_mapping;
@ -154,15 +220,9 @@ struct LogicalMemoryView
// //
// Dolphin doesn't emulate the difference between cached and uncached access. // Dolphin doesn't emulate the difference between cached and uncached access.
// //
// TODO: The actual size of RAM is REALRAM_SIZE (24MB); the other 8MB shouldn't // TODO: The actual size of RAM is 24MB; the other 8MB shouldn't be backed by actual memory.
// be backed by actual memory.
// TODO: Do we want to handle the mirrors of the GC RAM? // TODO: Do we want to handle the mirrors of the GC RAM?
static PhysicalMemoryRegion physical_regions[] = { static std::array<PhysicalMemoryRegion, 4> physical_regions;
{&m_pRAM, 0x00000000, RAM_SIZE, PhysicalMemoryRegion::ALWAYS},
{&m_pL1Cache, 0xE0000000, L1_CACHE_SIZE, PhysicalMemoryRegion::ALWAYS},
{&m_pFakeVMEM, 0x7E000000, FAKEVMEM_SIZE, PhysicalMemoryRegion::FAKE_VMEM},
{&m_pEXRAM, 0x10000000, EXRAM_SIZE, PhysicalMemoryRegion::WII_ONLY},
};
static std::vector<LogicalMemoryView> logical_mapped_entries; static std::vector<LogicalMemoryView> logical_mapped_entries;
@ -189,6 +249,34 @@ static u32 GetFlags()
void Init() void Init()
{ {
const auto get_mem1_size = [] {
if (Config::Get(Config::MAIN_RAM_OVERRIDE_ENABLE))
return Config::Get(Config::MAIN_MEM1_SIZE);
return Memory::MEM1_SIZE_RETAIL;
};
const auto get_mem2_size = [] {
if (Config::Get(Config::MAIN_RAM_OVERRIDE_ENABLE))
return Config::Get(Config::MAIN_MEM2_SIZE);
return Memory::MEM2_SIZE_RETAIL;
};
s_ram_size_real = get_mem1_size();
s_ram_size = MathUtil::NextPowerOf2(GetRamSizeReal());
s_ram_mask = GetRamSize() - 1;
s_fakevmem_size = 0x02000000;
s_fakevmem_mask = GetFakeVMemSize() - 1;
s_L1_cache_size = 0x00040000;
s_L1_cache_mask = GetL1CacheSize() - 1;
s_io_size = 0x00010000;
s_exram_size_real = get_mem2_size();
s_exram_size = MathUtil::NextPowerOf2(GetExRamSizeReal());
s_exram_mask = GetExRamSize() - 1;
physical_regions[0] = {&m_pRAM, 0x00000000, GetRamSize(), PhysicalMemoryRegion::ALWAYS};
physical_regions[1] = {&m_pL1Cache, 0xE0000000, GetL1CacheSize(), PhysicalMemoryRegion::ALWAYS};
physical_regions[2] = {&m_pFakeVMEM, 0x7E000000, GetFakeVMemSize(),
PhysicalMemoryRegion::FAKE_VMEM};
physical_regions[3] = {&m_pEXRAM, 0x10000000, GetExRamSize(), PhysicalMemoryRegion::WII_ONLY};
bool wii = SConfig::GetInstance().bWii; bool wii = SConfig::GetInstance().bWii;
u32 flags = GetFlags(); u32 flags = GetFlags();
u32 mem_size = 0; u32 mem_size = 0;
@ -304,14 +392,14 @@ void UpdateLogicalMemory(const PowerPC::BatTable& dbat_table)
void DoState(PointerWrap& p) void DoState(PointerWrap& p)
{ {
bool wii = SConfig::GetInstance().bWii; bool wii = SConfig::GetInstance().bWii;
p.DoArray(m_pRAM, RAM_SIZE); p.DoArray(m_pRAM, GetRamSize());
p.DoArray(m_pL1Cache, L1_CACHE_SIZE); p.DoArray(m_pL1Cache, GetL1CacheSize());
p.DoMarker("Memory RAM"); p.DoMarker("Memory RAM");
if (m_pFakeVMEM) if (m_pFakeVMEM)
p.DoArray(m_pFakeVMEM, FAKEVMEM_SIZE); p.DoArray(m_pFakeVMEM, GetFakeVMemSize());
p.DoMarker("Memory FakeVMEM"); p.DoMarker("Memory FakeVMEM");
if (wii) if (wii)
p.DoArray(m_pEXRAM, EXRAM_SIZE); p.DoArray(m_pEXRAM, GetExRamSize());
p.DoMarker("Memory EXRAM"); p.DoMarker("Memory EXRAM");
} }
@ -363,19 +451,19 @@ void ShutdownFastmemArena()
void Clear() void Clear()
{ {
if (m_pRAM) if (m_pRAM)
memset(m_pRAM, 0, RAM_SIZE); memset(m_pRAM, 0, GetRamSize());
if (m_pL1Cache) if (m_pL1Cache)
memset(m_pL1Cache, 0, L1_CACHE_SIZE); memset(m_pL1Cache, 0, GetL1CacheSize());
if (m_pFakeVMEM) if (m_pFakeVMEM)
memset(m_pFakeVMEM, 0, FAKEVMEM_SIZE); memset(m_pFakeVMEM, 0, GetFakeVMemSize());
if (m_pEXRAM) if (m_pEXRAM)
memset(m_pEXRAM, 0, EXRAM_SIZE); memset(m_pEXRAM, 0, GetExRamSize());
} }
static inline u8* GetPointerForRange(u32 address, size_t size) static inline u8* GetPointerForRange(u32 address, size_t size)
{ {
// Make sure we don't have a range spanning 2 separate banks // Make sure we don't have a range spanning 2 separate banks
if (size >= EXRAM_SIZE) if (size >= GetExRamSizeReal())
return nullptr; return nullptr;
// Check that the beginning and end of the range are valid // Check that the beginning and end of the range are valid
@ -450,13 +538,13 @@ u8* GetPointer(u32 address)
// TODO: Should we be masking off more bits here? Can all devices access // TODO: Should we be masking off more bits here? Can all devices access
// EXRAM? // EXRAM?
address &= 0x3FFFFFFF; address &= 0x3FFFFFFF;
if (address < REALRAM_SIZE) if (address < GetRamSizeReal())
return m_pRAM + address; return m_pRAM + address;
if (m_pEXRAM) if (m_pEXRAM)
{ {
if ((address >> 28) == 0x1 && (address & 0x0fffffff) < EXRAM_SIZE) if ((address >> 28) == 0x1 && (address & 0x0fffffff) < GetExRamSizeReal())
return m_pEXRAM + (address & EXRAM_MASK); return m_pEXRAM + (address & GetExRamMask());
} }
PanicAlert("Unknown Pointer 0x%08x PC 0x%08x LR 0x%08x", address, PC, LR); PanicAlert("Unknown Pointer 0x%08x PC 0x%08x LR 0x%08x", address, PC, LR);

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@ -37,23 +37,24 @@ extern u8* m_pEXRAM;
extern u8* m_pL1Cache; extern u8* m_pL1Cache;
extern u8* m_pFakeVMEM; extern u8* m_pFakeVMEM;
enum u32 GetRamSizeReal();
{ u32 GetRamSize();
// RAM_SIZE is the amount allocated by the emulator, whereas REALRAM_SIZE is u32 GetRamMask();
// what will be reported in lowmem, and thus used by emulated software. u32 GetFakeVMemSize();
// Note: Writing to lowmem is done by IPL. If using retail IPL, it will u32 GetFakeVMemMask();
// always be set to 24MB. u32 GetL1CacheSize();
REALRAM_SIZE = 0x01800000, u32 GetL1CacheMask();
RAM_SIZE = MathUtil::NextPowerOf2(REALRAM_SIZE), u32 GetIOSize();
RAM_MASK = RAM_SIZE - 1, u32 GetExRamSizeReal();
FAKEVMEM_SIZE = 0x02000000, u32 GetExRamSize();
FAKEVMEM_MASK = FAKEVMEM_SIZE - 1, u32 GetExRamMask();
L1_CACHE_SIZE = 0x00040000,
L1_CACHE_MASK = L1_CACHE_SIZE - 1, constexpr u32 MEM1_BASE_ADDR = 0x80000000U;
IO_SIZE = 0x00010000, constexpr u32 MEM2_BASE_ADDR = 0x90000000U;
EXRAM_SIZE = 0x04000000, constexpr u32 MEM1_SIZE_RETAIL = 0x01800000U;
EXRAM_MASK = EXRAM_SIZE - 1, constexpr u32 MEM1_SIZE_GDEV = 0x04000000U;
}; constexpr u32 MEM2_SIZE_RETAIL = 0x04000000U;
constexpr u32 MEM2_SIZE_NDEV = 0x08000000U;
// MMIO mapping object. // MMIO mapping object.
extern std::unique_ptr<MMIO::Mapping> mmio_mapping; extern std::unique_ptr<MMIO::Mapping> mmio_mapping;

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@ -22,6 +22,7 @@
#include "Core/Boot/DolReader.h" #include "Core/Boot/DolReader.h"
#include "Core/Boot/ElfReader.h" #include "Core/Boot/ElfReader.h"
#include "Core/CommonTitles.h" #include "Core/CommonTitles.h"
#include "Core/Config/MainSettings.h"
#include "Core/ConfigManager.h" #include "Core/ConfigManager.h"
#include "Core/Core.h" #include "Core/Core.h"
#include "Core/CoreTiming.h" #include "Core/CoreTiming.h"
@ -85,8 +86,8 @@ constexpr u32 ADDR_HOLLYWOOD_REVISION = 0x3138;
constexpr u32 ADDR_PH3 = 0x313c; constexpr u32 ADDR_PH3 = 0x313c;
constexpr u32 ADDR_IOS_VERSION = 0x3140; constexpr u32 ADDR_IOS_VERSION = 0x3140;
constexpr u32 ADDR_IOS_DATE = 0x3144; constexpr u32 ADDR_IOS_DATE = 0x3144;
constexpr u32 ADDR_UNKNOWN_BEGIN = 0x3148; constexpr u32 ADDR_IOS_RESERVED_BEGIN = 0x3148;
constexpr u32 ADDR_UNKNOWN_END = 0x314c; constexpr u32 ADDR_IOS_RESERVED_END = 0x314c;
constexpr u32 ADDR_PH4 = 0x3150; constexpr u32 ADDR_PH4 = 0x3150;
constexpr u32 ADDR_PH5 = 0x3154; constexpr u32 ADDR_PH5 = 0x3154;
constexpr u32 ADDR_RAM_VENDOR = 0x3158; constexpr u32 ADDR_RAM_VENDOR = 0x3158;
@ -96,12 +97,6 @@ constexpr u32 ADDR_DEVKIT_BOOT_PROGRAM_VERSION = 0x315e;
constexpr u32 ADDR_SYSMENU_SYNC = 0x3160; constexpr u32 ADDR_SYSMENU_SYNC = 0x3160;
constexpr u32 PLACEHOLDER = 0xDEADBEEF; constexpr u32 PLACEHOLDER = 0xDEADBEEF;
enum class MemorySetupType
{
IOSReload,
Full,
};
static bool SetupMemory(u64 ios_title_id, MemorySetupType setup_type) static bool SetupMemory(u64 ios_title_id, MemorySetupType setup_type)
{ {
auto target_imv = std::find_if( auto target_imv = std::find_if(
@ -134,8 +129,10 @@ static bool SetupMemory(u64 ios_title_id, MemorySetupType setup_type)
Memory::Write_U32(target_imv->mem2_arena_end, ADDR_MEM2_ARENA_END); Memory::Write_U32(target_imv->mem2_arena_end, ADDR_MEM2_ARENA_END);
Memory::Write_U32(target_imv->ipc_buffer_begin, ADDR_IPC_BUFFER_BEGIN); Memory::Write_U32(target_imv->ipc_buffer_begin, ADDR_IPC_BUFFER_BEGIN);
Memory::Write_U32(target_imv->ipc_buffer_end, ADDR_IPC_BUFFER_END); Memory::Write_U32(target_imv->ipc_buffer_end, ADDR_IPC_BUFFER_END);
Memory::Write_U32(target_imv->unknown_begin, ADDR_UNKNOWN_BEGIN); Memory::Write_U32(target_imv->ios_reserved_begin, ADDR_IOS_RESERVED_BEGIN);
Memory::Write_U32(target_imv->unknown_end, ADDR_UNKNOWN_END); Memory::Write_U32(target_imv->ios_reserved_end, ADDR_IOS_RESERVED_END);
RAMOverrideForIOSMemoryValues(setup_type);
return true; return true;
} }
@ -158,8 +155,8 @@ static bool SetupMemory(u64 ios_title_id, MemorySetupType setup_type)
Memory::Write_U32(PLACEHOLDER, ADDR_PH3); Memory::Write_U32(PLACEHOLDER, ADDR_PH3);
Memory::Write_U32(target_imv->ios_version, ADDR_IOS_VERSION); Memory::Write_U32(target_imv->ios_version, ADDR_IOS_VERSION);
Memory::Write_U32(target_imv->ios_date, ADDR_IOS_DATE); Memory::Write_U32(target_imv->ios_date, ADDR_IOS_DATE);
Memory::Write_U32(target_imv->unknown_begin, ADDR_UNKNOWN_BEGIN); Memory::Write_U32(target_imv->ios_reserved_begin, ADDR_IOS_RESERVED_BEGIN);
Memory::Write_U32(target_imv->unknown_end, ADDR_UNKNOWN_END); Memory::Write_U32(target_imv->ios_reserved_end, ADDR_IOS_RESERVED_END);
Memory::Write_U32(PLACEHOLDER, ADDR_PH4); Memory::Write_U32(PLACEHOLDER, ADDR_PH4);
Memory::Write_U32(PLACEHOLDER, ADDR_PH5); Memory::Write_U32(PLACEHOLDER, ADDR_PH5);
Memory::Write_U32(target_imv->ram_vendor, ADDR_RAM_VENDOR); Memory::Write_U32(target_imv->ram_vendor, ADDR_RAM_VENDOR);
@ -167,9 +164,59 @@ static bool SetupMemory(u64 ios_title_id, MemorySetupType setup_type)
Memory::Write_U8(0xAD, ADDR_APPLOADER_FLAG); Memory::Write_U8(0xAD, ADDR_APPLOADER_FLAG);
Memory::Write_U16(0xBEEF, ADDR_DEVKIT_BOOT_PROGRAM_VERSION); Memory::Write_U16(0xBEEF, ADDR_DEVKIT_BOOT_PROGRAM_VERSION);
Memory::Write_U32(target_imv->sysmenu_sync, ADDR_SYSMENU_SYNC); Memory::Write_U32(target_imv->sysmenu_sync, ADDR_SYSMENU_SYNC);
RAMOverrideForIOSMemoryValues(setup_type);
return true; return true;
} }
void RAMOverrideForIOSMemoryValues(MemorySetupType setup_type)
{
// Don't touch anything if the feature isn't enabled.
if (!Config::Get(Config::MAIN_RAM_OVERRIDE_ENABLE))
return;
// Some unstated constants that can be inferred.
const u32 ipc_buffer_size =
Memory::Read_U32(ADDR_IPC_BUFFER_END) - Memory::Read_U32(ADDR_IPC_BUFFER_BEGIN);
const u32 ios_reserved_size =
Memory::Read_U32(ADDR_IOS_RESERVED_END) - Memory::Read_U32(ADDR_IOS_RESERVED_BEGIN);
const u32 mem1_physical_size = Memory::GetRamSizeReal();
const u32 mem1_simulated_size = Memory::GetRamSizeReal();
const u32 mem1_end = Memory::MEM1_BASE_ADDR + mem1_simulated_size;
const u32 mem1_arena_begin = 0;
const u32 mem1_arena_end = mem1_end;
const u32 mem2_physical_size = Memory::GetExRamSizeReal();
const u32 mem2_simulated_size = Memory::GetExRamSizeReal();
const u32 mem2_end = Memory::MEM2_BASE_ADDR + mem2_simulated_size - ios_reserved_size;
const u32 mem2_arena_begin = Memory::MEM2_BASE_ADDR + 0x800U;
const u32 mem2_arena_end = mem2_end - ipc_buffer_size;
const u32 ipc_buffer_begin = mem2_arena_end;
const u32 ipc_buffer_end = mem2_end;
const u32 ios_reserved_begin = mem2_end;
const u32 ios_reserved_end = Memory::MEM2_BASE_ADDR + mem2_simulated_size;
if (setup_type == MemorySetupType::Full)
{
// Overwriting these after the game's apploader sets them would be bad
Memory::Write_U32(mem1_physical_size, ADDR_MEM1_SIZE);
Memory::Write_U32(mem1_simulated_size, ADDR_MEM1_SIM_SIZE);
Memory::Write_U32(mem1_end, ADDR_MEM1_END);
Memory::Write_U32(mem1_arena_begin, ADDR_MEM1_ARENA_BEGIN);
Memory::Write_U32(mem1_arena_end, ADDR_MEM1_ARENA_END);
}
Memory::Write_U32(mem2_physical_size, ADDR_MEM2_SIZE);
Memory::Write_U32(mem2_simulated_size, ADDR_MEM2_SIM_SIZE);
Memory::Write_U32(mem2_end, ADDR_MEM2_END);
Memory::Write_U32(mem2_arena_begin, ADDR_MEM2_ARENA_BEGIN);
Memory::Write_U32(mem2_arena_end, ADDR_MEM2_ARENA_END);
Memory::Write_U32(ipc_buffer_begin, ADDR_IPC_BUFFER_BEGIN);
Memory::Write_U32(ipc_buffer_end, ADDR_IPC_BUFFER_END);
Memory::Write_U32(ios_reserved_begin, ADDR_IOS_RESERVED_BEGIN);
Memory::Write_U32(ios_reserved_end, ADDR_IOS_RESERVED_END);
}
void WriteReturnValue(s32 value, u32 address) void WriteReturnValue(s32 value, u32 address)
{ {
Memory::Write_U32(static_cast<u32>(value), address); Memory::Write_U32(static_cast<u32>(value), address);

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@ -55,6 +55,14 @@ enum IPCCommandType : u32
IPC_REPLY = 8, IPC_REPLY = 8,
}; };
enum class MemorySetupType
{
IOSReload,
Full,
};
void RAMOverrideForIOSMemoryValues(MemorySetupType setup_type);
void WriteReturnValue(s32 value, u32 address); void WriteReturnValue(s32 value, u32 address);
// HLE for the IOS kernel: IPC, device management, syscalls, and Dolphin-specific, IOS-wide calls. // HLE for the IOS kernel: IPC, device management, syscalls, and Dolphin-specific, IOS-wide calls.

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@ -32,7 +32,7 @@ static void ReinitHardware()
SConfig::GetInstance().bWii = false; SConfig::GetInstance().bWii = false;
// IOS clears mem2 and overwrites it with pseudo-random data (for security). // IOS clears mem2 and overwrites it with pseudo-random data (for security).
std::memset(Memory::m_pEXRAM, 0, Memory::EXRAM_SIZE); std::memset(Memory::m_pEXRAM, 0, Memory::GetExRamSizeReal());
// MIOS appears to only reset the DI and the PPC. // MIOS appears to only reset the DI and the PPC.
// HACK However, resetting DI will reset the DTK config, which is set by the system menu // HACK However, resetting DI will reset the DTK config, which is set by the system menu
// (and not by MIOS), causing games that use DTK to break. Perhaps MIOS doesn't actually // (and not by MIOS), causing games that use DTK to break. Perhaps MIOS doesn't actually

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@ -29,8 +29,8 @@ struct MemoryValues
u32 ipc_buffer_end; u32 ipc_buffer_end;
u32 hollywood_revision; u32 hollywood_revision;
u32 ram_vendor; u32 ram_vendor;
u32 unknown_begin; u32 ios_reserved_begin;
u32 unknown_end; u32 ios_reserved_end;
u32 sysmenu_sync; u32 sysmenu_sync;
}; };

View File

@ -211,14 +211,14 @@ static T ReadFromHardware(u32 em_address)
{ {
// Handle RAM; the masking intentionally discards bits (essentially creating // Handle RAM; the masking intentionally discards bits (essentially creating
// mirrors of memory). // mirrors of memory).
// TODO: Only the first REALRAM_SIZE is supposed to be backed by actual memory. // TODO: Only the first GetRamSizeReal() is supposed to be backed by actual memory.
T value; T value;
std::memcpy(&value, &Memory::m_pRAM[em_address & Memory::RAM_MASK], sizeof(T)); std::memcpy(&value, &Memory::m_pRAM[em_address & Memory::GetRamMask()], sizeof(T));
return bswap(value); return bswap(value);
} }
if (Memory::m_pEXRAM && (em_address >> 28) == 0x1 && if (Memory::m_pEXRAM && (em_address >> 28) == 0x1 &&
(em_address & 0x0FFFFFFF) < Memory::EXRAM_SIZE) (em_address & 0x0FFFFFFF) < Memory::GetExRamSizeReal())
{ {
T value; T value;
std::memcpy(&value, &Memory::m_pEXRAM[em_address & 0x0FFFFFFF], sizeof(T)); std::memcpy(&value, &Memory::m_pEXRAM[em_address & 0x0FFFFFFF], sizeof(T));
@ -226,7 +226,7 @@ static T ReadFromHardware(u32 em_address)
} }
// Locked L1 technically doesn't have a fixed address, but games all use 0xE0000000. // Locked L1 technically doesn't have a fixed address, but games all use 0xE0000000.
if ((em_address >> 28) == 0xE && (em_address < (0xE0000000 + Memory::L1_CACHE_SIZE))) if ((em_address >> 28) == 0xE && (em_address < (0xE0000000 + Memory::GetL1CacheSize())))
{ {
T value; T value;
std::memcpy(&value, &Memory::m_pL1Cache[em_address & 0x0FFFFFFF], sizeof(T)); std::memcpy(&value, &Memory::m_pL1Cache[em_address & 0x0FFFFFFF], sizeof(T));
@ -238,7 +238,7 @@ static T ReadFromHardware(u32 em_address)
if (Memory::m_pFakeVMEM && ((em_address & 0xFE000000) == 0x7E000000)) if (Memory::m_pFakeVMEM && ((em_address & 0xFE000000) == 0x7E000000))
{ {
T value; T value;
std::memcpy(&value, &Memory::m_pFakeVMEM[em_address & Memory::RAM_MASK], sizeof(T)); std::memcpy(&value, &Memory::m_pFakeVMEM[em_address & Memory::GetRamMask()], sizeof(T));
return bswap(value); return bswap(value);
} }
@ -300,14 +300,14 @@ static void WriteToHardware(u32 em_address, const T data)
{ {
// Handle RAM; the masking intentionally discards bits (essentially creating // Handle RAM; the masking intentionally discards bits (essentially creating
// mirrors of memory). // mirrors of memory).
// TODO: Only the first REALRAM_SIZE is supposed to be backed by actual memory. // TODO: Only the first GetRamSizeReal() is supposed to be backed by actual memory.
const T swapped_data = bswap(data); const T swapped_data = bswap(data);
std::memcpy(&Memory::m_pRAM[em_address & Memory::RAM_MASK], &swapped_data, sizeof(T)); std::memcpy(&Memory::m_pRAM[em_address & Memory::GetRamMask()], &swapped_data, sizeof(T));
return; return;
} }
if (Memory::m_pEXRAM && (em_address >> 28) == 0x1 && if (Memory::m_pEXRAM && (em_address >> 28) == 0x1 &&
(em_address & 0x0FFFFFFF) < Memory::EXRAM_SIZE) (em_address & 0x0FFFFFFF) < Memory::GetExRamSizeReal())
{ {
const T swapped_data = bswap(data); const T swapped_data = bswap(data);
std::memcpy(&Memory::m_pEXRAM[em_address & 0x0FFFFFFF], &swapped_data, sizeof(T)); std::memcpy(&Memory::m_pEXRAM[em_address & 0x0FFFFFFF], &swapped_data, sizeof(T));
@ -315,7 +315,7 @@ static void WriteToHardware(u32 em_address, const T data)
} }
// Locked L1 technically doesn't have a fixed address, but games all use 0xE0000000. // Locked L1 technically doesn't have a fixed address, but games all use 0xE0000000.
if ((em_address >> 28 == 0xE) && (em_address < (0xE0000000 + Memory::L1_CACHE_SIZE))) if ((em_address >> 28 == 0xE) && (em_address < (0xE0000000 + Memory::GetL1CacheSize())))
{ {
const T swapped_data = bswap(data); const T swapped_data = bswap(data);
std::memcpy(&Memory::m_pL1Cache[em_address & 0x0FFFFFFF], &swapped_data, sizeof(T)); std::memcpy(&Memory::m_pL1Cache[em_address & 0x0FFFFFFF], &swapped_data, sizeof(T));
@ -328,7 +328,7 @@ static void WriteToHardware(u32 em_address, const T data)
if (Memory::m_pFakeVMEM && ((em_address & 0xFE000000) == 0x7E000000)) if (Memory::m_pFakeVMEM && ((em_address & 0xFE000000) == 0x7E000000))
{ {
const T swapped_data = bswap(data); const T swapped_data = bswap(data);
std::memcpy(&Memory::m_pFakeVMEM[em_address & Memory::RAM_MASK], &swapped_data, sizeof(T)); std::memcpy(&Memory::m_pFakeVMEM[em_address & Memory::GetRamMask()], &swapped_data, sizeof(T));
return; return;
} }
@ -412,7 +412,7 @@ TryReadInstResult TryReadInstruction(u32 address)
// TODO: Refactor this. This icache implementation is totally wrong if used with the fake vmem. // TODO: Refactor this. This icache implementation is totally wrong if used with the fake vmem.
if (Memory::m_pFakeVMEM && ((address & 0xFE000000) == 0x7E000000)) if (Memory::m_pFakeVMEM && ((address & 0xFE000000) == 0x7E000000))
{ {
hex = Common::swap32(&Memory::m_pFakeVMEM[address & Memory::FAKEVMEM_MASK]); hex = Common::swap32(&Memory::m_pFakeVMEM[address & Memory::GetFakeVMemMask()]);
} }
else else
{ {
@ -667,13 +667,14 @@ static bool IsRAMAddress(u32 address, bool translate)
} }
u32 segment = address >> 28; u32 segment = address >> 28;
if (segment == 0x0 && (address & 0x0FFFFFFF) < Memory::REALRAM_SIZE) if (segment == 0x0 && (address & 0x0FFFFFFF) < Memory::GetRamSizeReal())
return true; return true;
else if (Memory::m_pEXRAM && segment == 0x1 && (address & 0x0FFFFFFF) < Memory::EXRAM_SIZE) else if (Memory::m_pEXRAM && segment == 0x1 &&
(address & 0x0FFFFFFF) < Memory::GetExRamSizeReal())
return true; return true;
else if (Memory::m_pFakeVMEM && ((address & 0xFE000000) == 0x7E000000)) else if (Memory::m_pFakeVMEM && ((address & 0xFE000000) == 0x7E000000))
return true; return true;
else if (segment == 0xE && (address < (0xE0000000 + Memory::L1_CACHE_SIZE))) else if (segment == 0xE && (address < (0xE0000000 + Memory::GetL1CacheSize())))
return true; return true;
return false; return false;
} }
@ -1212,13 +1213,13 @@ static void UpdateBATs(BatTable& bat_table, u32 base_spr)
u32 valid_bit = BAT_MAPPED_BIT; u32 valid_bit = BAT_MAPPED_BIT;
if (Memory::m_pFakeVMEM && (physical_address & 0xFE000000) == 0x7E000000) if (Memory::m_pFakeVMEM && (physical_address & 0xFE000000) == 0x7E000000)
valid_bit |= BAT_PHYSICAL_BIT; valid_bit |= BAT_PHYSICAL_BIT;
else if (physical_address < Memory::REALRAM_SIZE) else if (physical_address < Memory::GetRamSizeReal())
valid_bit |= BAT_PHYSICAL_BIT; valid_bit |= BAT_PHYSICAL_BIT;
else if (Memory::m_pEXRAM && physical_address >> 28 == 0x1 && else if (Memory::m_pEXRAM && physical_address >> 28 == 0x1 &&
(physical_address & 0x0FFFFFFF) < Memory::EXRAM_SIZE) (physical_address & 0x0FFFFFFF) < Memory::GetExRamSizeReal())
valid_bit |= BAT_PHYSICAL_BIT; valid_bit |= BAT_PHYSICAL_BIT;
else if (physical_address >> 28 == 0xE && else if (physical_address >> 28 == 0xE &&
physical_address < 0xE0000000 + Memory::L1_CACHE_SIZE) physical_address < 0xE0000000 + Memory::GetL1CacheSize())
valid_bit |= BAT_PHYSICAL_BIT; valid_bit |= BAT_PHYSICAL_BIT;
// Fastmem doesn't support memchecks, so disable it for all overlapping virtual pages. // Fastmem doesn't support memchecks, so disable it for all overlapping virtual pages.
@ -1239,7 +1240,7 @@ static void UpdateFakeMMUBat(BatTable& bat_table, u32 start_addr)
// Map from 0x4XXXXXXX or 0x7XXXXXXX to the range // Map from 0x4XXXXXXX or 0x7XXXXXXX to the range
// [0x7E000000,0x80000000). // [0x7E000000,0x80000000).
u32 e_address = i + (start_addr >> BAT_INDEX_SHIFT); u32 e_address = i + (start_addr >> BAT_INDEX_SHIFT);
u32 p_address = 0x7E000000 | (i << BAT_INDEX_SHIFT & Memory::FAKEVMEM_MASK); u32 p_address = 0x7E000000 | (i << BAT_INDEX_SHIFT & Memory::GetFakeVMemMask());
u32 flags = BAT_MAPPED_BIT | BAT_PHYSICAL_BIT; u32 flags = BAT_MAPPED_BIT | BAT_PHYSICAL_BIT;
if (PowerPC::memchecks.OverlapsMemcheck(e_address << BAT_INDEX_SHIFT, BAT_PAGE_SIZE)) if (PowerPC::memchecks.OverlapsMemcheck(e_address << BAT_INDEX_SHIFT, BAT_PAGE_SIZE))

View File

@ -30,6 +30,7 @@
#include "Core/CoreTiming.h" #include "Core/CoreTiming.h"
#include "Core/GeckoCode.h" #include "Core/GeckoCode.h"
#include "Core/HW/HW.h" #include "Core/HW/HW.h"
#include "Core/HW/Memmap.h"
#include "Core/HW/Wiimote.h" #include "Core/HW/Wiimote.h"
#include "Core/Host.h" #include "Core/Host.h"
#include "Core/Movie.h" #include "Core/Movie.h"
@ -73,7 +74,7 @@ static Common::Event g_compressAndDumpStateSyncEvent;
static std::thread g_save_thread; static std::thread g_save_thread;
// Don't forget to increase this after doing changes on the savestate system // Don't forget to increase this after doing changes on the savestate system
constexpr u32 STATE_VERSION = 114; // Last changed in PR 8394 constexpr u32 STATE_VERSION = 115; // Last changed in PR 8722
// Maps savestate versions to Dolphin versions. // Maps savestate versions to Dolphin versions.
// Versions after 42 don't need to be added to this list, // Versions after 42 don't need to be added to this list,
@ -171,6 +172,24 @@ static void DoState(PointerWrap& p)
return; return;
} }
// Check to make sure the emulated memory sizes are the same as the savestate
u32 state_mem1_size = Memory::GetRamSizeReal();
u32 state_mem2_size = Memory::GetExRamSizeReal();
p.Do(state_mem1_size);
p.Do(state_mem2_size);
if (state_mem1_size != Memory::GetRamSizeReal() || state_mem2_size != Memory::GetExRamSizeReal())
{
OSD::AddMessage(fmt::format("Memory size mismatch!\n"
"Current | MEM1 {:08X} ({:3}MB) MEM2 {:08X} ({:3}MB)\n"
"State | MEM1 {:08X} ({:3}MB) MEM2 {:08X} ({:3}MB)",
Memory::GetRamSizeReal(), Memory::GetRamSizeReal() / 0x100000U,
Memory::GetExRamSizeReal(), Memory::GetExRamSizeReal() / 0x100000U,
state_mem1_size, state_mem1_size / 0x100000U, state_mem2_size,
state_mem2_size / 0x100000U));
p.SetMode(PointerWrap::MODE_MEASURE);
return;
}
// Movie must be done before the video backend, because the window is redrawn in the video backend // Movie must be done before the video backend, because the window is redrawn in the video backend
// state load, and the frame number must be up-to-date. // state load, and the frame number must be up-to-date.
Movie::DoState(p); Movie::DoState(p);

View File

@ -571,7 +571,7 @@ void CheatsManager::NewSearch()
return; return;
Core::RunAsCPUThread([&] { Core::RunAsCPUThread([&] {
for (u32 i = 0; i < Memory::REALRAM_SIZE - GetTypeSize(); i++) for (u32 i = 0; i < Memory::GetRamSizeReal() - GetTypeSize(); i++)
{ {
if (PowerPC::HostIsRAMAddress(base_address + i) && matches_func(base_address + i)) if (PowerPC::HostIsRAMAddress(base_address + i) && matches_func(base_address + i))
m_results.push_back( m_results.push_back(

View File

@ -26,6 +26,7 @@
#include "Core/Debugger/RSO.h" #include "Core/Debugger/RSO.h"
#include "Core/HLE/HLE.h" #include "Core/HLE/HLE.h"
#include "Core/HW/AddressSpace.h" #include "Core/HW/AddressSpace.h"
#include "Core/HW/Memmap.h"
#include "Core/HW/WiiSave.h" #include "Core/HW/WiiSave.h"
#include "Core/HW/Wiimote.h" #include "Core/HW/Wiimote.h"
#include "Core/IOS/ES/ES.h" #include "Core/IOS/ES/ES.h"
@ -1178,13 +1179,15 @@ void MenuBar::ClearSymbols()
void MenuBar::GenerateSymbolsFromAddress() void MenuBar::GenerateSymbolsFromAddress()
{ {
PPCAnalyst::FindFunctions(0x80000000, 0x81800000, &g_symbolDB); PPCAnalyst::FindFunctions(Memory::MEM1_BASE_ADDR,
Memory::MEM1_BASE_ADDR + Memory::GetRamSizeReal(), &g_symbolDB);
emit NotifySymbolsUpdated(); emit NotifySymbolsUpdated();
} }
void MenuBar::GenerateSymbolsFromSignatureDB() void MenuBar::GenerateSymbolsFromSignatureDB()
{ {
PPCAnalyst::FindFunctions(0x80000000, 0x81800000, &g_symbolDB); PPCAnalyst::FindFunctions(Memory::MEM1_BASE_ADDR,
Memory::MEM1_BASE_ADDR + Memory::GetRamSizeReal(), &g_symbolDB);
SignatureDB db(SignatureDB::HandlerType::DSY); SignatureDB db(SignatureDB::HandlerType::DSY);
if (db.Load(File::GetSysDirectory() + TOTALDB)) if (db.Load(File::GetSysDirectory() + TOTALDB))
{ {
@ -1315,7 +1318,8 @@ void MenuBar::LoadSymbolMap()
if (!map_exists) if (!map_exists)
{ {
g_symbolDB.Clear(); g_symbolDB.Clear();
PPCAnalyst::FindFunctions(0x81300000, 0x81800000, &g_symbolDB); PPCAnalyst::FindFunctions(Memory::MEM1_BASE_ADDR + 0x1300000,
Memory::MEM1_BASE_ADDR + Memory::GetRamSizeReal(), &g_symbolDB);
SignatureDB db(SignatureDB::HandlerType::DSY); SignatureDB db(SignatureDB::HandlerType::DSY);
if (db.Load(File::GetSysDirectory() + TOTALDB)) if (db.Load(File::GetSysDirectory() + TOTALDB))
db.Apply(&g_symbolDB); db.Apply(&g_symbolDB);
@ -1554,7 +1558,8 @@ void MenuBar::SearchInstruction()
return; return;
bool found = false; bool found = false;
for (u32 addr = 0x80000000; addr < 0x81800000; addr += 4) for (u32 addr = Memory::MEM1_BASE_ADDR; addr < Memory::MEM1_BASE_ADDR + Memory::GetRamSizeReal();
addr += 4)
{ {
auto ins_name = auto ins_name =
QString::fromStdString(PPCTables::GetInstructionName(PowerPC::HostRead_U32(addr))); QString::fromStdString(PPCTables::GetInstructionName(PowerPC::HostRead_U32(addr)));

View File

@ -96,6 +96,44 @@ void AdvancedPane::CreateLayout()
cpu_clock_override_description->setWordWrap(true); cpu_clock_override_description->setWordWrap(true);
clock_override_layout->addWidget(cpu_clock_override_description); clock_override_layout->addWidget(cpu_clock_override_description);
auto* ram_override = new QGroupBox(tr("Memory Override"));
auto* ram_override_layout = new QVBoxLayout();
ram_override->setLayout(ram_override_layout);
main_layout->addWidget(ram_override);
m_ram_override_checkbox = new QCheckBox(tr("Enable Emulated Memory Size Override"));
ram_override_layout->addWidget(m_ram_override_checkbox);
auto* mem1_override_slider_layout = new QHBoxLayout();
mem1_override_slider_layout->setContentsMargins(0, 0, 0, 0);
ram_override_layout->addLayout(mem1_override_slider_layout);
m_mem1_override_slider = new QSlider(Qt::Horizontal);
m_mem1_override_slider->setRange(24, 64);
mem1_override_slider_layout->addWidget(m_mem1_override_slider);
m_mem1_override_slider_label = new QLabel();
mem1_override_slider_layout->addWidget(m_mem1_override_slider_label);
auto* mem2_override_slider_layout = new QHBoxLayout();
mem2_override_slider_layout->setContentsMargins(0, 0, 0, 0);
ram_override_layout->addLayout(mem2_override_slider_layout);
m_mem2_override_slider = new QSlider(Qt::Horizontal);
m_mem2_override_slider->setRange(64, 128);
mem2_override_slider_layout->addWidget(m_mem2_override_slider);
m_mem2_override_slider_label = new QLabel();
mem2_override_slider_layout->addWidget(m_mem2_override_slider_label);
auto* ram_override_description =
new QLabel(tr("Adjusts the emulated sizes of MEM1 and MEM2.\n\n"
"Some titles may recognize the larger memory arena(s) and take "
"advantage of it, though retail titles should be optimized for "
"the retail memory limitations."));
ram_override_description->setWordWrap(true);
ram_override_layout->addWidget(ram_override_description);
auto* rtc_options = new QGroupBox(tr("Custom RTC Options")); auto* rtc_options = new QGroupBox(tr("Custom RTC Options"));
rtc_options->setLayout(new QVBoxLayout()); rtc_options->setLayout(new QVBoxLayout());
main_layout->addWidget(rtc_options); main_layout->addWidget(rtc_options);
@ -154,6 +192,24 @@ void AdvancedPane::ConnectLayout()
Update(); Update();
}); });
m_ram_override_checkbox->setChecked(Config::Get(Config::MAIN_RAM_OVERRIDE_ENABLE));
connect(m_ram_override_checkbox, &QCheckBox::toggled, [this](bool enable_ram_override) {
Config::SetBaseOrCurrent(Config::MAIN_RAM_OVERRIDE_ENABLE, enable_ram_override);
Update();
});
connect(m_mem1_override_slider, &QSlider::valueChanged, [this](int slider_value) {
const u32 mem1_size = m_mem1_override_slider->value() * 0x100000;
Config::SetBaseOrCurrent(Config::MAIN_MEM1_SIZE, mem1_size);
Update();
});
connect(m_mem2_override_slider, &QSlider::valueChanged, [this](int slider_value) {
const u32 mem2_size = m_mem2_override_slider->value() * 0x100000;
Config::SetBaseOrCurrent(Config::MAIN_MEM2_SIZE, mem2_size);
Update();
});
m_custom_rtc_checkbox->setChecked(SConfig::GetInstance().bEnableCustomRTC); m_custom_rtc_checkbox->setChecked(SConfig::GetInstance().bEnableCustomRTC);
connect(m_custom_rtc_checkbox, &QCheckBox::toggled, [this](bool enable_custom_rtc) { connect(m_custom_rtc_checkbox, &QCheckBox::toggled, [this](bool enable_custom_rtc) {
SConfig::GetInstance().bEnableCustomRTC = enable_custom_rtc; SConfig::GetInstance().bEnableCustomRTC = enable_custom_rtc;
@ -173,6 +229,7 @@ void AdvancedPane::Update()
{ {
const bool running = Core::GetState() != Core::State::Uninitialized; const bool running = Core::GetState() != Core::State::Uninitialized;
const bool enable_cpu_clock_override_widgets = SConfig::GetInstance().m_OCEnable; const bool enable_cpu_clock_override_widgets = SConfig::GetInstance().m_OCEnable;
const bool enable_ram_override_widgets = Config::Get(Config::MAIN_RAM_OVERRIDE_ENABLE);
const bool enable_custom_rtc_widgets = SConfig::GetInstance().bEnableCustomRTC && !running; const bool enable_custom_rtc_widgets = SConfig::GetInstance().bEnableCustomRTC && !running;
const std::vector<PowerPC::CPUCore>& available_cpu_cores = PowerPC::AvailableCPUCores(); const std::vector<PowerPC::CPUCore>& available_cpu_cores = PowerPC::AvailableCPUCores();
@ -208,6 +265,36 @@ void AdvancedPane::Update()
return tr("%1 % (%2 MHz)").arg(QString::number(percent), QString::number(clock)); return tr("%1 % (%2 MHz)").arg(QString::number(percent), QString::number(clock));
}()); }());
m_ram_override_checkbox->setEnabled(!running);
m_mem1_override_slider->setEnabled(enable_ram_override_widgets && !running);
m_mem1_override_slider_label->setEnabled(enable_ram_override_widgets && !running);
{
const QSignalBlocker blocker(m_mem1_override_slider);
const u32 mem1_size = Config::Get(Config::MAIN_MEM1_SIZE) / 0x100000;
m_mem1_override_slider->setValue(mem1_size);
}
m_mem1_override_slider_label->setText([] {
const u32 mem1_size = Config::Get(Config::MAIN_MEM1_SIZE) / 0x100000;
return tr("%1MB (MEM1)").arg(QString::number(mem1_size));
}());
m_mem2_override_slider->setEnabled(enable_ram_override_widgets && !running);
m_mem2_override_slider_label->setEnabled(enable_ram_override_widgets && !running);
{
const QSignalBlocker blocker(m_mem2_override_slider);
const u32 mem2_size = Config::Get(Config::MAIN_MEM2_SIZE) / 0x100000;
m_mem2_override_slider->setValue(mem2_size);
}
m_mem2_override_slider_label->setText([] {
const u32 mem2_size = Config::Get(Config::MAIN_MEM2_SIZE) / 0x100000;
return tr("%1MB (MEM2)").arg(QString::number(mem2_size));
}());
m_custom_rtc_checkbox->setEnabled(!running); m_custom_rtc_checkbox->setEnabled(!running);
m_custom_rtc_datetime->setEnabled(enable_custom_rtc_widgets); m_custom_rtc_datetime->setEnabled(enable_custom_rtc_widgets);
} }

View File

@ -40,4 +40,11 @@ private:
QCheckBox* m_custom_rtc_checkbox; QCheckBox* m_custom_rtc_checkbox;
QDateTimeEdit* m_custom_rtc_datetime; QDateTimeEdit* m_custom_rtc_datetime;
QCheckBox* m_ram_override_checkbox;
QSlider* m_mem1_override_slider;
QLabel* m_mem1_override_slider_label;
QSlider* m_mem2_override_slider;
QLabel* m_mem2_override_slider_label;
QLabel* m_ram_override_description;
}; };