static void UpdateGyroscopeCallback(u64 userdata, int cycles_late) {
SharedMem* mem = reinterpret_cast<SharedMem*>(shared_mem->GetPointer());
mem->gyroscope.index = next_gyroscope_index;
next_gyroscope_index = (next_gyroscope_index + 1) % mem->gyroscope.entries.size();
GyroscopeDataEntry& gyroscope_entry = mem->gyroscope.entries[mem->gyroscope.index];
Math::Vec3<float> gyro;
std::tie(std::ignore, gyro) = motion_device->GetStatus();
double stretch = Core::System::GetInstance().perf_stats.GetLastFrameTimeScale();
gyro *= gyroscope_coef * static_cast<float>(stretch);
gyroscope_entry.x = static_cast<s16>(gyro.x);
gyroscope_entry.y = static_cast<s16>(gyro.y);
gyroscope_entry.z = static_cast<s16>(gyro.z);
// Make up "raw" entry
mem->gyroscope.raw_entry.x = gyroscope_entry.x;
mem->gyroscope.raw_entry.z = -gyroscope_entry.y;
mem->gyroscope.raw_entry.y = gyroscope_entry.z;
// If we just updated index 0, provide a new timestamp
if (mem->gyroscope.index == 0) {
mem->gyroscope.index_reset_ticks_previous = mem->gyroscope.index_reset_ticks;
mem->gyroscope.index_reset_ticks = (s64)CoreTiming::GetTicks();
}
event_gyroscope->Signal();
// Reschedule recurrent event
CoreTiming::ScheduleEvent(gyroscope_update_ticks - cycles_late, gyroscope_update_event);
}
static void UpdateCallback(u64 userdata, int cycles_late) {
SharedMem* mem = reinterpret_cast<SharedMem*>(shared_memory->GetPointer());
if (is_device_reload_pending.exchange(false))
LoadInputDevices();
PadState state;
state.zl.Assign(zl_button->GetStatus());
state.zr.Assign(zr_button->GetStatus());
// Get current c-stick position and update c-stick direction
float c_stick_x_f, c_stick_y_f;
std::tie(c_stick_x_f, c_stick_y_f) = c_stick->GetStatus();
constexpr int MAX_CSTICK_RADIUS = 0x9C; // Max value for a c-stick radius
const s16 c_stick_x = static_cast<s16>(c_stick_x_f * MAX_CSTICK_RADIUS);
const s16 c_stick_y = static_cast<s16>(c_stick_y_f * MAX_CSTICK_RADIUS);
if (!raw_c_stick) {
const HID::DirectionState direction = HID::GetStickDirectionState(c_stick_x, c_stick_y);
state.c_stick_up.Assign(direction.up);
state.c_stick_down.Assign(direction.down);
state.c_stick_left.Assign(direction.left);
state.c_stick_right.Assign(direction.right);
}
// TODO (wwylele): implement raw C-stick data for raw_c_stick = true
const u32 last_entry_index = mem->index;
mem->index = next_pad_index;
next_pad_index = (next_pad_index + 1) % mem->entries.size();
// Get the previous Pad state
PadState old_state{mem->entries[last_entry_index].current_state};
// Compute bitmask with 1s for bits different from the old state
PadState changed = {state.hex ^ old_state.hex};
// Get the current Pad entry
PadDataEntry& pad_entry = mem->entries[mem->index];
// Update entry properties
pad_entry.current_state.hex = state.hex;
pad_entry.delta_additions.hex = changed.hex & state.hex;
pad_entry.delta_removals.hex = changed.hex & old_state.hex;
pad_entry.c_stick_x = c_stick_x;
pad_entry.c_stick_y = c_stick_y;
// If we just updated index 0, provide a new timestamp
if (mem->index == 0) {
mem->index_reset_ticks_previous = mem->index_reset_ticks;
mem->index_reset_ticks = CoreTiming::GetTicks();
}
update_event->Signal();
// Reschedule recurrent event
CoreTiming::ScheduleEvent(msToCycles(update_period) - cycles_late, update_callback_id);
}
static ResultCode GetProcessInfo(s64* out, Handle process_handle, u32 type) {
LOG_TRACE(Kernel_SVC, "called process=0x%08X type=%u", process_handle, type);
using Kernel::Process;
Kernel::SharedPtr<Process> process = Kernel::g_handle_table.Get<Process>(process_handle);
if (process == nullptr)
return ERR_INVALID_HANDLE;
switch (type) {
case 0:
case 2:
// TODO(yuriks): Type 0 returns a slightly higher number than type 2, but I'm not sure
// what's the difference between them.
*out = process->heap_used + process->linear_heap_used + process->misc_memory_used;
if(*out % Memory::PAGE_SIZE != 0) {
LOG_ERROR(Kernel_SVC, "called, memory size not page-aligned");
return ERR_MISALIGNED_SIZE;
}
break;
case 1:
case 3:
case 4:
case 5:
case 6:
case 7:
case 8:
// These are valid, but not implemented yet
LOG_ERROR(Kernel_SVC, "unimplemented GetProcessInfo type=%u", type);
break;
case 20:
*out = Memory::FCRAM_PADDR - process->GetLinearHeapBase();
break;
default:
LOG_ERROR(Kernel_SVC, "unknown GetProcessInfo type=%u", type);
if (type >= 21 && type <= 23) {
return ResultCode( // 0xE0E01BF4
ErrorDescription::NotImplemented, ErrorModule::OS,
ErrorSummary::InvalidArgument, ErrorLevel::Usage);
} else {
return ResultCode( // 0xD8E007ED
ErrorDescription::InvalidEnumValue, ErrorModule::Kernel,
ErrorSummary::InvalidArgument, ErrorLevel::Permanent);
}
break;
}
return RESULT_SUCCESS;
}
static void DriverInitialize(Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
conversion.input_format = InputFormat::YUV422_Indiv8;
conversion.output_format = OutputFormat::RGBA8;
conversion.rotation = Rotation::None;
conversion.block_alignment = BlockAlignment::Linear;
conversion.coefficients.fill(0);
conversion.SetInputLineWidth(1024);
conversion.SetInputLines(1024);
conversion.alpha = 0;
ConversionBuffer zero_buffer = {};
conversion.src_Y = zero_buffer;
conversion.src_U = zero_buffer;
conversion.src_V = zero_buffer;
conversion.dst = zero_buffer;
completion_event->Clear();
cmd_buff[0] = IPC::MakeHeader(0x2B, 1, 0);
cmd_buff[1] = RESULT_SUCCESS.raw;
LOG_DEBUG(Service_Y2R, "called");
}
void NotifyToWait(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
u32 app_id = cmd_buff[1];
// TODO(Subv): Verify this, it seems to get SWKBD and Home Menu further.
start_event->Signal();
cmd_buff[1] = RESULT_SUCCESS.raw; // No error
LOG_WARNING(Service_APT, "(STUBBED) app_id=%u", app_id);
}
void DisableGyroscopeLow(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
event_gyroscope->Signal();
cmd_buff[1] = RESULT_SUCCESS.raw;
LOG_WARNING(Service_HID, "(STUBBED) called");
}
void EnableAccelerometer(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
event_accelerometer->Signal();
cmd_buff[1] = RESULT_SUCCESS.raw;
LOG_WARNING(Service_HID, "(STUBBED) called");
}
void RequireConnection(Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
conn_status_event->Signal();
cmd_buff[1] = RESULT_SUCCESS.raw;
LOG_WARNING(Service_IR, "(STUBBED) called");
}
void Initialize(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
// TODO(bunnei): Check if these are created in Initialize or on APT process startup.
notification_event = Kernel::Event::Create(RESETTYPE_ONESHOT, "APT_U:Notification");
pause_event = Kernel::Event::Create(RESETTYPE_ONESHOT, "APT_U:Pause");
cmd_buff[3] = Kernel::g_handle_table.Create(notification_event).MoveFrom();
cmd_buff[4] = Kernel::g_handle_table.Create(pause_event).MoveFrom();
// TODO(bunnei): Check if these events are cleared/signaled every time Initialize is called.
notification_event->Clear();
pause_event->Signal(); // Fire start event
ASSERT_MSG((nullptr != lock), "Cannot initialize without lock");
lock->Release();
cmd_buff[1] = RESULT_SUCCESS.raw; // No error
}
void SignalInterrupt() {
// TODO(bunnei): This is just a stub, it does not do anything other than signal to the emulated
// application that a DSP interrupt occurred, without specifying which one. Since we do not
// emulate the DSP yet (and how it works is largely unknown), this is a work around to get games
// that check the DSP interrupt signal event to run. We should figure out the different types of
// DSP interrupts, and trigger them at the appropriate times.
if (interrupt_event != 0)
interrupt_event->Signal();
}
void Initialize(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
u32 app_id = cmd_buff[1];
u32 flags = cmd_buff[2];
cmd_buff[2] = 0x04000000; // According to 3dbrew, this value should be 0x04000000
cmd_buff[3] = Kernel::g_handle_table.Create(notification_event).MoveFrom();
cmd_buff[4] = Kernel::g_handle_table.Create(start_event).MoveFrom();
// TODO(bunnei): Check if these events are cleared every time Initialize is called.
notification_event->Clear();
start_event->Clear();
ASSERT_MSG((nullptr != lock), "Cannot initialize without lock");
lock->Release();
cmd_buff[1] = RESULT_SUCCESS.raw; // No error
LOG_TRACE(Service_APT, "called app_id=0x%08X, flags=0x%08X", app_id, flags);
}
static void UpdateAccelerometerCallback(u64 userdata, int cycles_late) {
SharedMem* mem = reinterpret_cast<SharedMem*>(shared_mem->GetPointer());
mem->accelerometer.index = next_accelerometer_index;
next_accelerometer_index = (next_accelerometer_index + 1) % mem->accelerometer.entries.size();
Math::Vec3<float> accel;
std::tie(accel, std::ignore) = motion_device->GetStatus();
accel *= accelerometer_coef;
// TODO(wwylele): do a time stretch like the one in UpdateGyroscopeCallback
// The time stretch formula should be like
// stretched_vector = (raw_vector - gravity) * stretch_ratio + gravity
AccelerometerDataEntry& accelerometer_entry =
mem->accelerometer.entries[mem->accelerometer.index];
accelerometer_entry.x = static_cast<s16>(accel.x);
accelerometer_entry.y = static_cast<s16>(accel.y);
accelerometer_entry.z = static_cast<s16>(accel.z);
// Make up "raw" entry
// TODO(wwylele):
// From hardware testing, the raw_entry values are approximately, but not exactly, as twice as
// corresponding entries (or with a minus sign). It may caused by system calibration to the
// accelerometer. Figure out how it works, or, if no game reads raw_entry, the following three
// lines can be removed and leave raw_entry unimplemented.
mem->accelerometer.raw_entry.x = -2 * accelerometer_entry.x;
mem->accelerometer.raw_entry.z = 2 * accelerometer_entry.y;
mem->accelerometer.raw_entry.y = -2 * accelerometer_entry.z;
// If we just updated index 0, provide a new timestamp
if (mem->accelerometer.index == 0) {
mem->accelerometer.index_reset_ticks_previous = mem->accelerometer.index_reset_ticks;
mem->accelerometer.index_reset_ticks = (s64)CoreTiming::GetTicks();
}
event_accelerometer->Signal();
// Reschedule recurrent event
CoreTiming::ScheduleEvent(accelerometer_update_ticks - cycles_late, accelerometer_update_event);
}
static void StartConversion(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
HW::Y2R::PerformConversion(conversion);
// dst_image_size would seem to be perfect for this, but it doesn't include the gap :(
u32 total_output_size = conversion.input_lines *
(conversion.dst.transfer_unit + conversion.dst.gap);
VideoCore::g_renderer->hw_rasterizer->NotifyFlush(
Memory::VirtualToPhysicalAddress(conversion.dst.address), total_output_size);
LOG_DEBUG(Service_Y2R, "called");
completion_event->Signal();
cmd_buff[1] = RESULT_SUCCESS.raw;
}
static void StartConversion(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
// dst_image_size would seem to be perfect for this, but it doesn't include the gap :(
u32 total_output_size = conversion.input_lines * (conversion.dst.transfer_unit + conversion.dst.gap);
Memory::RasterizerFlushAndInvalidateRegion(Memory::VirtualToPhysicalAddress(conversion.dst.address), total_output_size);
HW::Y2R::PerformConversion(conversion);
completion_event->Signal();
cmd_buff[0] = IPC::MakeHeader(0x26, 1, 0);
cmd_buff[1] = RESULT_SUCCESS.raw;
LOG_DEBUG(Service_Y2R, "called");
}
static void UpdatePadCallback(u64 userdata, int cycles_late) {
SharedMem* mem = reinterpret_cast<SharedMem*>(shared_mem->GetPointer());
if (is_device_reload_pending.exchange(false))
LoadInputDevices();
PadState state;
using namespace Settings::NativeButton;
state.a.Assign(buttons[A - BUTTON_HID_BEGIN]->GetStatus());
state.b.Assign(buttons[B - BUTTON_HID_BEGIN]->GetStatus());
state.x.Assign(buttons[X - BUTTON_HID_BEGIN]->GetStatus());
state.y.Assign(buttons[Y - BUTTON_HID_BEGIN]->GetStatus());
state.right.Assign(buttons[Right - BUTTON_HID_BEGIN]->GetStatus());
state.left.Assign(buttons[Left - BUTTON_HID_BEGIN]->GetStatus());
state.up.Assign(buttons[Up - BUTTON_HID_BEGIN]->GetStatus());
state.down.Assign(buttons[Down - BUTTON_HID_BEGIN]->GetStatus());
state.l.Assign(buttons[L - BUTTON_HID_BEGIN]->GetStatus());
state.r.Assign(buttons[R - BUTTON_HID_BEGIN]->GetStatus());
state.start.Assign(buttons[Start - BUTTON_HID_BEGIN]->GetStatus());
state.select.Assign(buttons[Select - BUTTON_HID_BEGIN]->GetStatus());
// Get current circle pad position and update circle pad direction
float circle_pad_x_f, circle_pad_y_f;
std::tie(circle_pad_x_f, circle_pad_y_f) = circle_pad->GetStatus();
constexpr int MAX_CIRCLEPAD_POS = 0x9C; // Max value for a circle pad position
s16 circle_pad_x = static_cast<s16>(circle_pad_x_f * MAX_CIRCLEPAD_POS);
s16 circle_pad_y = static_cast<s16>(circle_pad_y_f * MAX_CIRCLEPAD_POS);
const DirectionState direction = GetStickDirectionState(circle_pad_x, circle_pad_y);
state.circle_up.Assign(direction.up);
state.circle_down.Assign(direction.down);
state.circle_left.Assign(direction.left);
state.circle_right.Assign(direction.right);
mem->pad.current_state.hex = state.hex;
mem->pad.index = next_pad_index;
next_pad_index = (next_pad_index + 1) % mem->pad.entries.size();
// Get the previous Pad state
u32 last_entry_index = (mem->pad.index - 1) % mem->pad.entries.size();
PadState old_state = mem->pad.entries[last_entry_index].current_state;
// Compute bitmask with 1s for bits different from the old state
PadState changed = {{(state.hex ^ old_state.hex)}};
// Get the current Pad entry
PadDataEntry& pad_entry = mem->pad.entries[mem->pad.index];
// Update entry properties
pad_entry.current_state.hex = state.hex;
pad_entry.delta_additions.hex = changed.hex & state.hex;
pad_entry.delta_removals.hex = changed.hex & old_state.hex;
pad_entry.circle_pad_x = circle_pad_x;
pad_entry.circle_pad_y = circle_pad_y;
// If we just updated index 0, provide a new timestamp
if (mem->pad.index == 0) {
mem->pad.index_reset_ticks_previous = mem->pad.index_reset_ticks;
mem->pad.index_reset_ticks = (s64)CoreTiming::GetTicks();
}
mem->touch.index = next_touch_index;
next_touch_index = (next_touch_index + 1) % mem->touch.entries.size();
// Get the current touch entry
TouchDataEntry& touch_entry = mem->touch.entries[mem->touch.index];
bool pressed = false;
float x, y;
std::tie(x, y, pressed) = touch_device->GetStatus();
touch_entry.x = static_cast<u16>(x * Core::kScreenBottomWidth);
touch_entry.y = static_cast<u16>(y * Core::kScreenBottomHeight);
touch_entry.valid.Assign(pressed ? 1 : 0);
// TODO(bunnei): We're not doing anything with offset 0xA8 + 0x18 of HID SharedMemory, which
// supposedly is "Touch-screen entry, which contains the raw coordinate data prior to being
// converted to pixel coordinates." (http://3dbrew.org/wiki/HID_Shared_Memory#Offset_0xA8).
// If we just updated index 0, provide a new timestamp
if (mem->touch.index == 0) {
mem->touch.index_reset_ticks_previous = mem->touch.index_reset_ticks;
mem->touch.index_reset_ticks = (s64)CoreTiming::GetTicks();
}
// Signal both handles when there's an update to Pad or touch
event_pad_or_touch_1->Signal();
event_pad_or_touch_2->Signal();
// Reschedule recurrent event
CoreTiming::ScheduleEvent(pad_update_ticks - cycles_late, pad_update_event);
}
namespace IR {
static Kernel::SharedPtr<Kernel::Event> handle_event;
static Kernel::SharedPtr<Kernel::Event> conn_status_event;
static Kernel::SharedPtr<Kernel::SharedMemory> shared_memory;
static Kernel::SharedPtr<Kernel::SharedMemory> transfer_shared_memory;
void GetHandles(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
cmd_buff[1] = RESULT_SUCCESS.raw;
cmd_buff[2] = 0x4000000;
cmd_buff[3] = Kernel::g_handle_table.Create(Service::IR::shared_memory).MoveFrom();
cmd_buff[4] = Kernel::g_handle_table.Create(Service::IR::handle_event).MoveFrom();
}
void InitializeIrNopShared(Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
u32 transfer_buff_size = cmd_buff[1];
u32 recv_buff_size = cmd_buff[2];
u32 unk1 = cmd_buff[3];
u32 send_buff_size = cmd_buff[4];
u32 unk2 = cmd_buff[5];
u8 baud_rate = cmd_buff[6] & 0xFF;
Handle handle = cmd_buff[8];
if(Kernel::g_handle_table.IsValid(handle)) {
transfer_shared_memory = Kernel::g_handle_table.Get<Kernel::SharedMemory>(handle);
transfer_shared_memory->name = "IR:TransferSharedMemory";
}
cmd_buff[1] = RESULT_SUCCESS.raw;
LOG_WARNING(Service_IR, "(STUBBED) called, transfer_buff_size=%d, recv_buff_size=%d, "
"unk1=%d, send_buff_size=%d, unk2=%d, baud_rate=%u, handle=0x%08X",
transfer_buff_size, recv_buff_size, unk1, send_buff_size, unk2, baud_rate, handle);
}
void RequireConnection(Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
conn_status_event->Signal();
cmd_buff[1] = RESULT_SUCCESS.raw;
LOG_WARNING(Service_IR, "(STUBBED) called");
}
void Disconnect(Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
cmd_buff[1] = RESULT_SUCCESS.raw;
LOG_WARNING(Service_IR, "(STUBBED) called");
}
void GetConnectionStatusEvent(Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
cmd_buff[1] = RESULT_SUCCESS.raw;
cmd_buff[3] = Kernel::g_handle_table.Create(Service::IR::conn_status_event).MoveFrom();
LOG_WARNING(Service_IR, "(STUBBED) called");
}
void FinalizeIrNop(Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
cmd_buff[1] = RESULT_SUCCESS.raw;
LOG_WARNING(Service_IR, "(STUBBED) called");
}
void Init() {
using namespace Kernel;
AddService(new IR_RST_Interface);
AddService(new IR_U_Interface);
AddService(new IR_User_Interface);
using Kernel::MemoryPermission;
shared_memory = SharedMemory::Create(0x1000, Kernel::MemoryPermission::ReadWrite,
Kernel::MemoryPermission::ReadWrite, "IR:SharedMemory");
transfer_shared_memory = nullptr;
// Create event handle(s)
handle_event = Event::Create(RESETTYPE_ONESHOT, "IR:HandleEvent");
conn_status_event = Event::Create(RESETTYPE_ONESHOT, "IR:ConnectionStatusEvent");
}
void Shutdown() {
transfer_shared_memory = nullptr;
shared_memory = nullptr;
handle_event = nullptr;
conn_status_event = nullptr;
}
} // namespace IR
namespace HID {
// Handle to shared memory region designated to HID_User service
static Kernel::SharedPtr<Kernel::SharedMemory> shared_mem;
// Event handles
static Kernel::SharedPtr<Kernel::Event> event_pad_or_touch_1;
static Kernel::SharedPtr<Kernel::Event> event_pad_or_touch_2;
static Kernel::SharedPtr<Kernel::Event> event_accelerometer;
static Kernel::SharedPtr<Kernel::Event> event_gyroscope;
static Kernel::SharedPtr<Kernel::Event> event_debug_pad;
static u32 next_pad_index;
static u32 next_touch_index;
static u32 next_accelerometer_index;
static u32 next_gyroscope_index;
static int enable_accelerometer_count; // positive means enabled
static int enable_gyroscope_count; // positive means enabled
static int pad_update_event;
static int accelerometer_update_event;
static int gyroscope_update_event;
// Updating period for each HID device. These empirical values are measured from a 11.2 3DS.
constexpr u64 pad_update_ticks = BASE_CLOCK_RATE_ARM11 / 234;
constexpr u64 accelerometer_update_ticks = BASE_CLOCK_RATE_ARM11 / 104;
constexpr u64 gyroscope_update_ticks = BASE_CLOCK_RATE_ARM11 / 101;
constexpr float accelerometer_coef = 512.0f; // measured from hw test result
constexpr float gyroscope_coef = 14.375f; // got from hwtest GetGyroscopeLowRawToDpsCoefficient call
static std::atomic<bool> is_device_reload_pending;
static std::array<std::unique_ptr<Input::ButtonDevice>, Settings::NativeButton::NUM_BUTTONS_HID>
buttons;
static std::unique_ptr<Input::AnalogDevice> circle_pad;
static std::unique_ptr<Input::MotionDevice> motion_device;
static std::unique_ptr<Input::TouchDevice> touch_device;
DirectionState GetStickDirectionState(s16 circle_pad_x, s16 circle_pad_y) {
// 30 degree and 60 degree are angular thresholds for directions
constexpr float TAN30 = 0.577350269f;
constexpr float TAN60 = 1 / TAN30;
// a circle pad radius greater than 40 will trigger circle pad direction
constexpr int CIRCLE_PAD_THRESHOLD_SQUARE = 40 * 40;
DirectionState state{false, false, false, false};
if (circle_pad_x * circle_pad_x + circle_pad_y * circle_pad_y > CIRCLE_PAD_THRESHOLD_SQUARE) {
float t = std::abs(static_cast<float>(circle_pad_y) / circle_pad_x);
if (circle_pad_x != 0 && t < TAN60) {
if (circle_pad_x > 0)
state.right = true;
else
state.left = true;
}
if (circle_pad_x == 0 || t > TAN30) {
if (circle_pad_y > 0)
state.up = true;
else
state.down = true;
}
}
return state;
}
static void LoadInputDevices() {
std::transform(Settings::values.buttons.begin() + Settings::NativeButton::BUTTON_HID_BEGIN,
Settings::values.buttons.begin() + Settings::NativeButton::BUTTON_HID_END,
buttons.begin(), Input::CreateDevice<Input::ButtonDevice>);
circle_pad = Input::CreateDevice<Input::AnalogDevice>(
Settings::values.analogs[Settings::NativeAnalog::CirclePad]);
motion_device = Input::CreateDevice<Input::MotionDevice>(Settings::values.motion_device);
touch_device = Input::CreateDevice<Input::TouchDevice>(Settings::values.touch_device);
}
static void UnloadInputDevices() {
for (auto& button : buttons) {
button.reset();
}
circle_pad.reset();
motion_device.reset();
touch_device.reset();
}
static void UpdatePadCallback(u64 userdata, int cycles_late) {
SharedMem* mem = reinterpret_cast<SharedMem*>(shared_mem->GetPointer());
if (is_device_reload_pending.exchange(false))
LoadInputDevices();
PadState state;
using namespace Settings::NativeButton;
state.a.Assign(buttons[A - BUTTON_HID_BEGIN]->GetStatus());
state.b.Assign(buttons[B - BUTTON_HID_BEGIN]->GetStatus());
state.x.Assign(buttons[X - BUTTON_HID_BEGIN]->GetStatus());
state.y.Assign(buttons[Y - BUTTON_HID_BEGIN]->GetStatus());
state.right.Assign(buttons[Right - BUTTON_HID_BEGIN]->GetStatus());
state.left.Assign(buttons[Left - BUTTON_HID_BEGIN]->GetStatus());
state.up.Assign(buttons[Up - BUTTON_HID_BEGIN]->GetStatus());
state.down.Assign(buttons[Down - BUTTON_HID_BEGIN]->GetStatus());
state.l.Assign(buttons[L - BUTTON_HID_BEGIN]->GetStatus());
state.r.Assign(buttons[R - BUTTON_HID_BEGIN]->GetStatus());
state.start.Assign(buttons[Start - BUTTON_HID_BEGIN]->GetStatus());
state.select.Assign(buttons[Select - BUTTON_HID_BEGIN]->GetStatus());
// Get current circle pad position and update circle pad direction
float circle_pad_x_f, circle_pad_y_f;
std::tie(circle_pad_x_f, circle_pad_y_f) = circle_pad->GetStatus();
constexpr int MAX_CIRCLEPAD_POS = 0x9C; // Max value for a circle pad position
s16 circle_pad_x = static_cast<s16>(circle_pad_x_f * MAX_CIRCLEPAD_POS);
s16 circle_pad_y = static_cast<s16>(circle_pad_y_f * MAX_CIRCLEPAD_POS);
const DirectionState direction = GetStickDirectionState(circle_pad_x, circle_pad_y);
state.circle_up.Assign(direction.up);
state.circle_down.Assign(direction.down);
state.circle_left.Assign(direction.left);
state.circle_right.Assign(direction.right);
mem->pad.current_state.hex = state.hex;
mem->pad.index = next_pad_index;
next_pad_index = (next_pad_index + 1) % mem->pad.entries.size();
// Get the previous Pad state
u32 last_entry_index = (mem->pad.index - 1) % mem->pad.entries.size();
PadState old_state = mem->pad.entries[last_entry_index].current_state;
// Compute bitmask with 1s for bits different from the old state
PadState changed = {{(state.hex ^ old_state.hex)}};
// Get the current Pad entry
PadDataEntry& pad_entry = mem->pad.entries[mem->pad.index];
// Update entry properties
pad_entry.current_state.hex = state.hex;
pad_entry.delta_additions.hex = changed.hex & state.hex;
pad_entry.delta_removals.hex = changed.hex & old_state.hex;
pad_entry.circle_pad_x = circle_pad_x;
pad_entry.circle_pad_y = circle_pad_y;
// If we just updated index 0, provide a new timestamp
if (mem->pad.index == 0) {
mem->pad.index_reset_ticks_previous = mem->pad.index_reset_ticks;
mem->pad.index_reset_ticks = (s64)CoreTiming::GetTicks();
}
mem->touch.index = next_touch_index;
next_touch_index = (next_touch_index + 1) % mem->touch.entries.size();
// Get the current touch entry
TouchDataEntry& touch_entry = mem->touch.entries[mem->touch.index];
bool pressed = false;
float x, y;
std::tie(x, y, pressed) = touch_device->GetStatus();
touch_entry.x = static_cast<u16>(x * Core::kScreenBottomWidth);
touch_entry.y = static_cast<u16>(y * Core::kScreenBottomHeight);
touch_entry.valid.Assign(pressed ? 1 : 0);
// TODO(bunnei): We're not doing anything with offset 0xA8 + 0x18 of HID SharedMemory, which
// supposedly is "Touch-screen entry, which contains the raw coordinate data prior to being
// converted to pixel coordinates." (http://3dbrew.org/wiki/HID_Shared_Memory#Offset_0xA8).
// If we just updated index 0, provide a new timestamp
if (mem->touch.index == 0) {
mem->touch.index_reset_ticks_previous = mem->touch.index_reset_ticks;
mem->touch.index_reset_ticks = (s64)CoreTiming::GetTicks();
}
// Signal both handles when there's an update to Pad or touch
event_pad_or_touch_1->Signal();
event_pad_or_touch_2->Signal();
// Reschedule recurrent event
CoreTiming::ScheduleEvent(pad_update_ticks - cycles_late, pad_update_event);
}
static void UpdateAccelerometerCallback(u64 userdata, int cycles_late) {
SharedMem* mem = reinterpret_cast<SharedMem*>(shared_mem->GetPointer());
mem->accelerometer.index = next_accelerometer_index;
next_accelerometer_index = (next_accelerometer_index + 1) % mem->accelerometer.entries.size();
Math::Vec3<float> accel;
std::tie(accel, std::ignore) = motion_device->GetStatus();
accel *= accelerometer_coef;
// TODO(wwylele): do a time stretch like the one in UpdateGyroscopeCallback
// The time stretch formula should be like
// stretched_vector = (raw_vector - gravity) * stretch_ratio + gravity
AccelerometerDataEntry& accelerometer_entry =
mem->accelerometer.entries[mem->accelerometer.index];
accelerometer_entry.x = static_cast<s16>(accel.x);
accelerometer_entry.y = static_cast<s16>(accel.y);
accelerometer_entry.z = static_cast<s16>(accel.z);
// Make up "raw" entry
// TODO(wwylele):
// From hardware testing, the raw_entry values are approximately, but not exactly, as twice as
// corresponding entries (or with a minus sign). It may caused by system calibration to the
// accelerometer. Figure out how it works, or, if no game reads raw_entry, the following three
// lines can be removed and leave raw_entry unimplemented.
mem->accelerometer.raw_entry.x = -2 * accelerometer_entry.x;
mem->accelerometer.raw_entry.z = 2 * accelerometer_entry.y;
mem->accelerometer.raw_entry.y = -2 * accelerometer_entry.z;
// If we just updated index 0, provide a new timestamp
if (mem->accelerometer.index == 0) {
mem->accelerometer.index_reset_ticks_previous = mem->accelerometer.index_reset_ticks;
mem->accelerometer.index_reset_ticks = (s64)CoreTiming::GetTicks();
}
event_accelerometer->Signal();
// Reschedule recurrent event
CoreTiming::ScheduleEvent(accelerometer_update_ticks - cycles_late, accelerometer_update_event);
}
static void UpdateGyroscopeCallback(u64 userdata, int cycles_late) {
SharedMem* mem = reinterpret_cast<SharedMem*>(shared_mem->GetPointer());
mem->gyroscope.index = next_gyroscope_index;
next_gyroscope_index = (next_gyroscope_index + 1) % mem->gyroscope.entries.size();
GyroscopeDataEntry& gyroscope_entry = mem->gyroscope.entries[mem->gyroscope.index];
Math::Vec3<float> gyro;
std::tie(std::ignore, gyro) = motion_device->GetStatus();
double stretch = Core::System::GetInstance().perf_stats.GetLastFrameTimeScale();
gyro *= gyroscope_coef * static_cast<float>(stretch);
gyroscope_entry.x = static_cast<s16>(gyro.x);
gyroscope_entry.y = static_cast<s16>(gyro.y);
gyroscope_entry.z = static_cast<s16>(gyro.z);
// Make up "raw" entry
mem->gyroscope.raw_entry.x = gyroscope_entry.x;
mem->gyroscope.raw_entry.z = -gyroscope_entry.y;
mem->gyroscope.raw_entry.y = gyroscope_entry.z;
// If we just updated index 0, provide a new timestamp
if (mem->gyroscope.index == 0) {
mem->gyroscope.index_reset_ticks_previous = mem->gyroscope.index_reset_ticks;
mem->gyroscope.index_reset_ticks = (s64)CoreTiming::GetTicks();
}
event_gyroscope->Signal();
// Reschedule recurrent event
CoreTiming::ScheduleEvent(gyroscope_update_ticks - cycles_late, gyroscope_update_event);
}
void GetIPCHandles(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
cmd_buff[1] = 0; // No error
cmd_buff[2] = 0x14000000; // IPC Command Structure translate-header
// TODO(yuriks): Return error from SendSyncRequest is this fails (part of IPC marshalling)
cmd_buff[3] = Kernel::g_handle_table.Create(Service::HID::shared_mem).Unwrap();
cmd_buff[4] = Kernel::g_handle_table.Create(Service::HID::event_pad_or_touch_1).Unwrap();
cmd_buff[5] = Kernel::g_handle_table.Create(Service::HID::event_pad_or_touch_2).Unwrap();
cmd_buff[6] = Kernel::g_handle_table.Create(Service::HID::event_accelerometer).Unwrap();
cmd_buff[7] = Kernel::g_handle_table.Create(Service::HID::event_gyroscope).Unwrap();
cmd_buff[8] = Kernel::g_handle_table.Create(Service::HID::event_debug_pad).Unwrap();
}
void EnableAccelerometer(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
++enable_accelerometer_count;
// Schedules the accelerometer update event if the accelerometer was just enabled
if (enable_accelerometer_count == 1) {
CoreTiming::ScheduleEvent(accelerometer_update_ticks, accelerometer_update_event);
}
cmd_buff[1] = RESULT_SUCCESS.raw;
LOG_DEBUG(Service_HID, "called");
}
void DisableAccelerometer(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
--enable_accelerometer_count;
// Unschedules the accelerometer update event if the accelerometer was just disabled
if (enable_accelerometer_count == 0) {
CoreTiming::UnscheduleEvent(accelerometer_update_event, 0);
}
cmd_buff[1] = RESULT_SUCCESS.raw;
LOG_DEBUG(Service_HID, "called");
}
void EnableGyroscopeLow(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
++enable_gyroscope_count;
// Schedules the gyroscope update event if the gyroscope was just enabled
if (enable_gyroscope_count == 1) {
CoreTiming::ScheduleEvent(gyroscope_update_ticks, gyroscope_update_event);
}
cmd_buff[1] = RESULT_SUCCESS.raw;
LOG_DEBUG(Service_HID, "called");
}
void DisableGyroscopeLow(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
--enable_gyroscope_count;
// Unschedules the gyroscope update event if the gyroscope was just disabled
if (enable_gyroscope_count == 0) {
CoreTiming::UnscheduleEvent(gyroscope_update_event, 0);
}
cmd_buff[1] = RESULT_SUCCESS.raw;
LOG_DEBUG(Service_HID, "called");
}
void GetGyroscopeLowRawToDpsCoefficient(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
cmd_buff[1] = RESULT_SUCCESS.raw;
f32 coef = gyroscope_coef;
memcpy(&cmd_buff[2], &coef, 4);
}
void GetGyroscopeLowCalibrateParam(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
cmd_buff[1] = RESULT_SUCCESS.raw;
const s16 param_unit = 6700; // an approximate value taken from hw
GyroscopeCalibrateParam param = {
{0, param_unit, -param_unit}, {0, param_unit, -param_unit}, {0, param_unit, -param_unit},
};
memcpy(&cmd_buff[2], ¶m, sizeof(param));
LOG_WARNING(Service_HID, "(STUBBED) called");
}
void GetSoundVolume(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
const u8 volume = 0x3F; // TODO(purpasmart): Find out if this is the max value for the volume
cmd_buff[1] = RESULT_SUCCESS.raw;
cmd_buff[2] = volume;
LOG_WARNING(Service_HID, "(STUBBED) called");
}
void Init() {
using namespace Kernel;
AddService(new HID_U_Interface);
AddService(new HID_SPVR_Interface);
is_device_reload_pending.store(true);
using Kernel::MemoryPermission;
shared_mem =
SharedMemory::Create(nullptr, 0x1000, MemoryPermission::ReadWrite, MemoryPermission::Read,
0, Kernel::MemoryRegion::BASE, "HID:SharedMemory");
next_pad_index = 0;
next_touch_index = 0;
next_accelerometer_index = 0;
next_gyroscope_index = 0;
enable_accelerometer_count = 0;
enable_gyroscope_count = 0;
// Create event handles
event_pad_or_touch_1 = Event::Create(ResetType::OneShot, "HID:EventPadOrTouch1");
event_pad_or_touch_2 = Event::Create(ResetType::OneShot, "HID:EventPadOrTouch2");
event_accelerometer = Event::Create(ResetType::OneShot, "HID:EventAccelerometer");
event_gyroscope = Event::Create(ResetType::OneShot, "HID:EventGyroscope");
event_debug_pad = Event::Create(ResetType::OneShot, "HID:EventDebugPad");
// Register update callbacks
pad_update_event = CoreTiming::RegisterEvent("HID::UpdatePadCallback", UpdatePadCallback);
accelerometer_update_event =
CoreTiming::RegisterEvent("HID::UpdateAccelerometerCallback", UpdateAccelerometerCallback);
gyroscope_update_event =
CoreTiming::RegisterEvent("HID::UpdateGyroscopeCallback", UpdateGyroscopeCallback);
CoreTiming::ScheduleEvent(pad_update_ticks, pad_update_event);
}
void Shutdown() {
shared_mem = nullptr;
event_pad_or_touch_1 = nullptr;
event_pad_or_touch_2 = nullptr;
event_accelerometer = nullptr;
event_gyroscope = nullptr;
event_debug_pad = nullptr;
UnloadInputDevices();
}
void ReloadInputDevices() {
is_device_reload_pending.store(true);
}
} // namespace HID
namespace Y2R {
struct ConversionParameters {
InputFormat input_format;
OutputFormat output_format;
Rotation rotation;
BlockAlignment block_alignment;
u16 input_line_width;
u16 input_lines;
StandardCoefficient standard_coefficient;
u8 padding;
u16 alpha;
};
static_assert(sizeof(ConversionParameters) == 12, "ConversionParameters struct has incorrect size");
static Kernel::SharedPtr<Kernel::Event> completion_event;
static ConversionConfiguration conversion;
static DitheringWeightParams dithering_weight_params;
static u32 temporal_dithering_enabled = 0;
static u32 transfer_end_interrupt_enabled = 0;
static u32 spacial_dithering_enabled = 0;
static const CoefficientSet standard_coefficients[4] = {
{{0x100, 0x166, 0xB6, 0x58, 0x1C5, -0x166F, 0x10EE, -0x1C5B}}, // ITU_Rec601
{{0x100, 0x193, 0x77, 0x2F, 0x1DB, -0x1933, 0xA7C, -0x1D51}}, // ITU_Rec709
{{0x12A, 0x198, 0xD0, 0x64, 0x204, -0x1BDE, 0x10F2, -0x229B}}, // ITU_Rec601_Scaling
{{0x12A, 0x1CA, 0x88, 0x36, 0x21C, -0x1F04, 0x99C, -0x2421}}, // ITU_Rec709_Scaling
};
ResultCode ConversionConfiguration::SetInputLineWidth(u16 width) {
if (width == 0 || width > 1024 || width % 8 != 0) {
return ResultCode(ErrorDescription::OutOfRange, ErrorModule::CAM,
ErrorSummary::InvalidArgument, ErrorLevel::Usage); // 0xE0E053FD
}
// Note: The hardware uses the register value 0 to represent a width of 1024, so for a width of
// 1024 the `camera` module would set the value 0 here, but we don't need to emulate this
// internal detail.
this->input_line_width = width;
return RESULT_SUCCESS;
}
ResultCode ConversionConfiguration::SetInputLines(u16 lines) {
if (lines == 0 || lines > 1024) {
return ResultCode(ErrorDescription::OutOfRange, ErrorModule::CAM,
ErrorSummary::InvalidArgument, ErrorLevel::Usage); // 0xE0E053FD
}
// Note: In what appears to be a bug, the `camera` module does not set the hardware register at
// all if `lines` is 1024, so the conversion uses the last value that was set. The intention
// was probably to set it to 0 like in SetInputLineWidth.
if (lines != 1024) {
this->input_lines = lines;
}
return RESULT_SUCCESS;
}
ResultCode ConversionConfiguration::SetStandardCoefficient(
StandardCoefficient standard_coefficient) {
size_t index = static_cast<size_t>(standard_coefficient);
if (index >= ARRAY_SIZE(standard_coefficients)) {
return ResultCode(ErrorDescription::InvalidEnumValue, ErrorModule::CAM,
ErrorSummary::InvalidArgument, ErrorLevel::Usage); // 0xE0E053ED
}
std::memcpy(coefficients.data(), standard_coefficients[index].data(), sizeof(coefficients));
return RESULT_SUCCESS;
}
static void SetInputFormat(Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
conversion.input_format = static_cast<InputFormat>(cmd_buff[1]);
cmd_buff[0] = IPC::MakeHeader(0x1, 1, 0);
cmd_buff[1] = RESULT_SUCCESS.raw;
LOG_DEBUG(Service_Y2R, "called input_format=%hhu", conversion.input_format);
}
static void GetInputFormat(Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
cmd_buff[0] = IPC::MakeHeader(0x2, 2, 0);
cmd_buff[1] = RESULT_SUCCESS.raw;
cmd_buff[2] = static_cast<u32>(conversion.input_format);
LOG_DEBUG(Service_Y2R, "called input_format=%hhu", conversion.input_format);
}
static void SetOutputFormat(Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
conversion.output_format = static_cast<OutputFormat>(cmd_buff[1]);
cmd_buff[0] = IPC::MakeHeader(0x3, 1, 0);
cmd_buff[1] = RESULT_SUCCESS.raw;
LOG_DEBUG(Service_Y2R, "called output_format=%hhu", conversion.output_format);
}
static void GetOutputFormat(Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
cmd_buff[0] = IPC::MakeHeader(0x4, 2, 0);
cmd_buff[1] = RESULT_SUCCESS.raw;
cmd_buff[2] = static_cast<u32>(conversion.output_format);
LOG_DEBUG(Service_Y2R, "called output_format=%hhu", conversion.output_format);
}
static void SetRotation(Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
conversion.rotation = static_cast<Rotation>(cmd_buff[1]);
cmd_buff[0] = IPC::MakeHeader(0x5, 1, 0);
cmd_buff[1] = RESULT_SUCCESS.raw;
LOG_DEBUG(Service_Y2R, "called rotation=%hhu", conversion.rotation);
}
static void GetRotation(Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
cmd_buff[0] = IPC::MakeHeader(0x6, 2, 0);
cmd_buff[1] = RESULT_SUCCESS.raw;
cmd_buff[2] = static_cast<u32>(conversion.rotation);
LOG_DEBUG(Service_Y2R, "called rotation=%hhu", conversion.rotation);
}
static void SetBlockAlignment(Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
conversion.block_alignment = static_cast<BlockAlignment>(cmd_buff[1]);
cmd_buff[0] = IPC::MakeHeader(0x7, 1, 0);
cmd_buff[1] = RESULT_SUCCESS.raw;
LOG_DEBUG(Service_Y2R, "called block_alignment=%hhu", conversion.block_alignment);
}
static void GetBlockAlignment(Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
cmd_buff[0] = IPC::MakeHeader(0x8, 2, 0);
cmd_buff[1] = RESULT_SUCCESS.raw;
cmd_buff[2] = static_cast<u32>(conversion.block_alignment);
LOG_DEBUG(Service_Y2R, "called block_alignment=%hhu", conversion.block_alignment);
}
/**
* Y2R_U::SetSpacialDithering service function
* Inputs:
* 1 : u8, 0 = Disabled, 1 = Enabled
* Outputs:
* 1 : Result of function, 0 on success, otherwise error code
*/
static void SetSpacialDithering(Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
spacial_dithering_enabled = cmd_buff[1] & 0xF;
cmd_buff[0] = IPC::MakeHeader(0x9, 1, 0);
cmd_buff[1] = RESULT_SUCCESS.raw;
LOG_WARNING(Service_Y2R, "(STUBBED) called");
}
/**
* Y2R_U::GetSpacialDithering service function
* Outputs:
* 1 : Result of function, 0 on success, otherwise error code
* 2 : u8, 0 = Disabled, 1 = Enabled
*/
static void GetSpacialDithering(Interface* self) {
IPC::RequestBuilder rb(Kernel::GetCommandBuffer(), 0xA, 2, 0);
rb.Push(RESULT_SUCCESS);
rb.Push(spacial_dithering_enabled != 0);
LOG_WARNING(Service_Y2R, "(STUBBED) called");
}
/**
* Y2R_U::SetTemporalDithering service function
* Inputs:
* 1 : u8, 0 = Disabled, 1 = Enabled
* Outputs:
* 1 : Result of function, 0 on success, otherwise error code
*/
static void SetTemporalDithering(Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
temporal_dithering_enabled = cmd_buff[1] & 0xF;
cmd_buff[0] = IPC::MakeHeader(0xB, 1, 0);
cmd_buff[1] = RESULT_SUCCESS.raw;
LOG_WARNING(Service_Y2R, "(STUBBED) called");
}
/**
* Y2R_U::GetTemporalDithering service function
* Outputs:
* 1 : Result of function, 0 on success, otherwise error code
* 2 : u8, 0 = Disabled, 1 = Enabled
*/
static void GetTemporalDithering(Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
cmd_buff[0] = IPC::MakeHeader(0xC, 2, 0);
cmd_buff[1] = RESULT_SUCCESS.raw;
cmd_buff[2] = temporal_dithering_enabled;
LOG_WARNING(Service_Y2R, "(STUBBED) called");
}
/**
* Y2R_U::SetTransferEndInterrupt service function
* Inputs:
* 1 : u8, 0 = Disabled, 1 = Enabled
* Outputs:
* 1 : Result of function, 0 on success, otherwise error code
*/
static void SetTransferEndInterrupt(Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
transfer_end_interrupt_enabled = cmd_buff[1] & 0xf;
cmd_buff[0] = IPC::MakeHeader(0xD, 1, 0);
cmd_buff[1] = RESULT_SUCCESS.raw;
LOG_WARNING(Service_Y2R, "(STUBBED) called");
}
/**
* Y2R_U::GetTransferEndInterrupt service function
* Outputs:
* 1 : Result of function, 0 on success, otherwise error code
* 2 : u8, 0 = Disabled, 1 = Enabled
*/
static void GetTransferEndInterrupt(Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
cmd_buff[0] = IPC::MakeHeader(0xE, 2, 0);
cmd_buff[1] = RESULT_SUCCESS.raw;
cmd_buff[2] = transfer_end_interrupt_enabled;
LOG_WARNING(Service_Y2R, "(STUBBED) called");
}
/**
* Y2R_U::GetTransferEndEvent service function
* Outputs:
* 1 : Result of function, 0 on success, otherwise error code
* 3 : The handle of the completion event
*/
static void GetTransferEndEvent(Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
cmd_buff[0] = IPC::MakeHeader(0xF, 2, 0);
cmd_buff[1] = RESULT_SUCCESS.raw;
cmd_buff[3] = Kernel::g_handle_table.Create(completion_event).MoveFrom();
LOG_DEBUG(Service_Y2R, "called");
}
static void SetSendingY(Interface* self) {
// The helper should be passed by argument to the function
IPC::RequestParser rp(Kernel::GetCommandBuffer(), 0x00100102);
conversion.src_Y.address = rp.Pop<u32>();
conversion.src_Y.image_size = rp.Pop<u32>();
conversion.src_Y.transfer_unit = rp.Pop<u32>();
conversion.src_Y.gap = rp.Pop<u32>();
Kernel::Handle src_process_handle = rp.PopHandle();
IPC::RequestBuilder rb = rp.MakeBuilder(1, 0);
rb.Push(RESULT_SUCCESS);
LOG_DEBUG(Service_Y2R, "called image_size=0x%08X, transfer_unit=%hu, transfer_stride=%hu, "
"src_process_handle=0x%08X",
conversion.src_Y.image_size, conversion.src_Y.transfer_unit, conversion.src_Y.gap,
src_process_handle);
}
static void SetSendingU(Interface* self) {
// The helper should be passed by argument to the function
IPC::RequestParser rp(Kernel::GetCommandBuffer(), 0x00110102);
conversion.src_U.address = rp.Pop<u32>();
conversion.src_U.image_size = rp.Pop<u32>();
conversion.src_U.transfer_unit = rp.Pop<u32>();
conversion.src_U.gap = rp.Pop<u32>();
Kernel::Handle src_process_handle = rp.PopHandle();
IPC::RequestBuilder rb = rp.MakeBuilder(1, 0);
rb.Push(RESULT_SUCCESS);
LOG_DEBUG(Service_Y2R, "called image_size=0x%08X, transfer_unit=%hu, transfer_stride=%hu, "
"src_process_handle=0x%08X",
conversion.src_U.image_size, conversion.src_U.transfer_unit, conversion.src_U.gap,
src_process_handle);
}
static void SetSendingV(Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
conversion.src_V.address = cmd_buff[1];
conversion.src_V.image_size = cmd_buff[2];
conversion.src_V.transfer_unit = cmd_buff[3];
conversion.src_V.gap = cmd_buff[4];
cmd_buff[0] = IPC::MakeHeader(0x12, 1, 0);
cmd_buff[1] = RESULT_SUCCESS.raw;
LOG_DEBUG(Service_Y2R, "called image_size=0x%08X, transfer_unit=%hu, transfer_stride=%hu, "
"src_process_handle=0x%08X",
conversion.src_V.image_size, conversion.src_V.transfer_unit, conversion.src_V.gap,
cmd_buff[6]);
}
static void SetSendingYUYV(Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
conversion.src_YUYV.address = cmd_buff[1];
conversion.src_YUYV.image_size = cmd_buff[2];
conversion.src_YUYV.transfer_unit = cmd_buff[3];
conversion.src_YUYV.gap = cmd_buff[4];
cmd_buff[0] = IPC::MakeHeader(0x13, 1, 0);
cmd_buff[1] = RESULT_SUCCESS.raw;
LOG_DEBUG(Service_Y2R, "called image_size=0x%08X, transfer_unit=%hu, transfer_stride=%hu, "
"src_process_handle=0x%08X",
conversion.src_YUYV.image_size, conversion.src_YUYV.transfer_unit,
conversion.src_YUYV.gap, cmd_buff[6]);
}
/**
* Y2R::IsFinishedSendingYuv service function
* Output:
* 1 : Result of the function, 0 on success, otherwise error code
* 2 : u8, 0 = Not Finished, 1 = Finished
*/
static void IsFinishedSendingYuv(Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
cmd_buff[0] = IPC::MakeHeader(0x14, 2, 0);
cmd_buff[1] = RESULT_SUCCESS.raw;
cmd_buff[2] = 1;
LOG_WARNING(Service_Y2R, "(STUBBED) called");
}
/**
* Y2R::IsFinishedSendingY service function
* Output:
* 1 : Result of the function, 0 on success, otherwise error code
* 2 : u8, 0 = Not Finished, 1 = Finished
*/
static void IsFinishedSendingY(Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
cmd_buff[0] = IPC::MakeHeader(0x15, 2, 0);
cmd_buff[1] = RESULT_SUCCESS.raw;
cmd_buff[2] = 1;
LOG_WARNING(Service_Y2R, "(STUBBED) called");
}
/**
* Y2R::IsFinishedSendingU service function
* Output:
* 1 : Result of the function, 0 on success, otherwise error code
* 2 : u8, 0 = Not Finished, 1 = Finished
*/
static void IsFinishedSendingU(Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
cmd_buff[0] = IPC::MakeHeader(0x16, 2, 0);
cmd_buff[1] = RESULT_SUCCESS.raw;
cmd_buff[2] = 1;
LOG_WARNING(Service_Y2R, "(STUBBED) called");
}
/**
* Y2R::IsFinishedSendingV service function
* Output:
* 1 : Result of the function, 0 on success, otherwise error code
* 2 : u8, 0 = Not Finished, 1 = Finished
*/
static void IsFinishedSendingV(Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
cmd_buff[0] = IPC::MakeHeader(0x17, 2, 0);
cmd_buff[1] = RESULT_SUCCESS.raw;
cmd_buff[2] = 1;
LOG_WARNING(Service_Y2R, "(STUBBED) called");
}
static void SetReceiving(Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
conversion.dst.address = cmd_buff[1];
conversion.dst.image_size = cmd_buff[2];
conversion.dst.transfer_unit = cmd_buff[3];
conversion.dst.gap = cmd_buff[4];
cmd_buff[0] = IPC::MakeHeader(0x18, 1, 0);
cmd_buff[1] = RESULT_SUCCESS.raw;
LOG_DEBUG(Service_Y2R, "called image_size=0x%08X, transfer_unit=%hu, transfer_stride=%hu, "
"dst_process_handle=0x%08X",
conversion.dst.image_size, conversion.dst.transfer_unit, conversion.dst.gap,
cmd_buff[6]);
}
/**
* Y2R::IsFinishedReceiving service function
* Output:
* 1 : Result of the function, 0 on success, otherwise error code
* 2 : u8, 0 = Not Finished, 1 = Finished
*/
static void IsFinishedReceiving(Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
cmd_buff[0] = IPC::MakeHeader(0x19, 2, 0);
cmd_buff[1] = RESULT_SUCCESS.raw;
cmd_buff[2] = 1;
LOG_WARNING(Service_Y2R, "(STUBBED) called");
}
static void SetInputLineWidth(Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
cmd_buff[0] = IPC::MakeHeader(0x1A, 1, 0);
cmd_buff[1] = conversion.SetInputLineWidth(cmd_buff[1]).raw;
LOG_DEBUG(Service_Y2R, "called input_line_width=%u", cmd_buff[1]);
}
static void GetInputLineWidth(Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
cmd_buff[0] = IPC::MakeHeader(0x1B, 2, 0);
cmd_buff[1] = RESULT_SUCCESS.raw;
cmd_buff[2] = conversion.input_line_width;
LOG_DEBUG(Service_Y2R, "called input_line_width=%u", conversion.input_line_width);
}
static void SetInputLines(Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
cmd_buff[0] = IPC::MakeHeader(0x1C, 1, 0);
cmd_buff[1] = conversion.SetInputLines(cmd_buff[1]).raw;
LOG_DEBUG(Service_Y2R, "called input_lines=%u", cmd_buff[1]);
}
static void GetInputLines(Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
cmd_buff[0] = IPC::MakeHeader(0x1D, 2, 0);
cmd_buff[1] = RESULT_SUCCESS.raw;
cmd_buff[2] = static_cast<u32>(conversion.input_lines);
LOG_DEBUG(Service_Y2R, "called input_lines=%u", conversion.input_lines);
}
static void SetCoefficient(Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
const u16* coefficients = reinterpret_cast<const u16*>(&cmd_buff[1]);
std::memcpy(conversion.coefficients.data(), coefficients, sizeof(CoefficientSet));
cmd_buff[0] = IPC::MakeHeader(0x1E, 1, 0);
cmd_buff[1] = RESULT_SUCCESS.raw;
LOG_DEBUG(Service_Y2R, "called coefficients=[%hX, %hX, %hX, %hX, %hX, %hX, %hX, %hX]",
coefficients[0], coefficients[1], coefficients[2], coefficients[3], coefficients[4],
coefficients[5], coefficients[6], coefficients[7]);
}
static void GetCoefficient(Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
cmd_buff[0] = IPC::MakeHeader(0x1F, 5, 0);
cmd_buff[1] = RESULT_SUCCESS.raw;
std::memcpy(&cmd_buff[2], conversion.coefficients.data(), sizeof(CoefficientSet));
LOG_DEBUG(Service_Y2R, "called");
}
static void SetStandardCoefficient(Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
u32 index = cmd_buff[1];
cmd_buff[0] = IPC::MakeHeader(0x20, 1, 0);
cmd_buff[1] = conversion.SetStandardCoefficient((StandardCoefficient)index).raw;
LOG_DEBUG(Service_Y2R, "called standard_coefficient=%u", index);
}
static void GetStandardCoefficient(Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
u32 index = cmd_buff[1];
if (index < ARRAY_SIZE(standard_coefficients)) {
cmd_buff[0] = IPC::MakeHeader(0x21, 5, 0);
cmd_buff[1] = RESULT_SUCCESS.raw;
std::memcpy(&cmd_buff[2], &standard_coefficients[index], sizeof(CoefficientSet));
LOG_DEBUG(Service_Y2R, "called standard_coefficient=%u ", index);
} else {
cmd_buff[0] = IPC::MakeHeader(0x21, 1, 0);
cmd_buff[1] = ResultCode(ErrorDescription::InvalidEnumValue, ErrorModule::CAM,
ErrorSummary::InvalidArgument, ErrorLevel::Usage)
.raw;
LOG_ERROR(Service_Y2R, "called standard_coefficient=%u The argument is invalid!", index);
}
}
static void SetAlpha(Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
conversion.alpha = cmd_buff[1];
cmd_buff[0] = IPC::MakeHeader(0x22, 1, 0);
cmd_buff[1] = RESULT_SUCCESS.raw;
LOG_DEBUG(Service_Y2R, "called alpha=%hu", conversion.alpha);
}
static void GetAlpha(Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
cmd_buff[0] = IPC::MakeHeader(0x23, 2, 0);
cmd_buff[1] = RESULT_SUCCESS.raw;
cmd_buff[2] = conversion.alpha;
LOG_DEBUG(Service_Y2R, "called alpha=%hu", conversion.alpha);
}
static void SetDitheringWeightParams(Interface* self) {
IPC::RequestParser rp(Kernel::GetCommandBuffer(), 0x24, 8, 0); // 0x240200
rp.PopRaw(dithering_weight_params);
IPC::RequestBuilder rb = rp.MakeBuilder(1, 0);
rb.Push(RESULT_SUCCESS);
LOG_DEBUG(Service_Y2R, "called");
}
static void GetDitheringWeightParams(Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
cmd_buff[0] = IPC::MakeHeader(0x25, 9, 0);
cmd_buff[1] = RESULT_SUCCESS.raw;
std::memcpy(&cmd_buff[2], &dithering_weight_params, sizeof(DitheringWeightParams));
LOG_DEBUG(Service_Y2R, "called");
}
static void StartConversion(Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
// dst_image_size would seem to be perfect for this, but it doesn't include the gap :(
u32 total_output_size =
conversion.input_lines * (conversion.dst.transfer_unit + conversion.dst.gap);
Memory::RasterizerFlushAndInvalidateRegion(
Memory::VirtualToPhysicalAddress(conversion.dst.address), total_output_size);
HW::Y2R::PerformConversion(conversion);
completion_event->Signal();
cmd_buff[0] = IPC::MakeHeader(0x26, 1, 0);
cmd_buff[1] = RESULT_SUCCESS.raw;
LOG_DEBUG(Service_Y2R, "called");
}
static void StopConversion(Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
cmd_buff[0] = IPC::MakeHeader(0x27, 1, 0);
cmd_buff[1] = RESULT_SUCCESS.raw;
LOG_DEBUG(Service_Y2R, "called");
}
/**
* Y2R_U::IsBusyConversion service function
* Outputs:
* 1 : Result of function, 0 on success, otherwise error code
* 2 : 1 if there's a conversion running, otherwise 0.
*/
static void IsBusyConversion(Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
cmd_buff[0] = IPC::MakeHeader(0x28, 2, 0);
cmd_buff[1] = RESULT_SUCCESS.raw;
cmd_buff[2] = 0; // StartConversion always finishes immediately
LOG_DEBUG(Service_Y2R, "called");
}
/**
* Y2R_U::SetPackageParameter service function
*/
static void SetPackageParameter(Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
auto params = reinterpret_cast<const ConversionParameters*>(&cmd_buff[1]);
conversion.input_format = params->input_format;
conversion.output_format = params->output_format;
conversion.rotation = params->rotation;
conversion.block_alignment = params->block_alignment;
ResultCode result = conversion.SetInputLineWidth(params->input_line_width);
if (result.IsError())
goto cleanup;
result = conversion.SetInputLines(params->input_lines);
if (result.IsError())
goto cleanup;
result = conversion.SetStandardCoefficient(params->standard_coefficient);
if (result.IsError())
goto cleanup;
conversion.padding = params->padding;
conversion.alpha = params->alpha;
cleanup:
cmd_buff[0] = IPC::MakeHeader(0x29, 1, 0);
cmd_buff[1] = result.raw;
LOG_DEBUG(
Service_Y2R,
"called input_format=%hhu output_format=%hhu rotation=%hhu block_alignment=%hhu "
"input_line_width=%hu input_lines=%hu standard_coefficient=%hhu reserved=%hhu alpha=%hX",
params->input_format, params->output_format, params->rotation, params->block_alignment,
params->input_line_width, params->input_lines, params->standard_coefficient,
params->padding, params->alpha);
}
static void PingProcess(Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
cmd_buff[0] = IPC::MakeHeader(0x2A, 2, 0);
cmd_buff[1] = RESULT_SUCCESS.raw;
cmd_buff[2] = 0;
LOG_WARNING(Service_Y2R, "(STUBBED) called");
}
static void DriverInitialize(Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
conversion.input_format = InputFormat::YUV422_Indiv8;
conversion.output_format = OutputFormat::RGBA8;
conversion.rotation = Rotation::None;
conversion.block_alignment = BlockAlignment::Linear;
conversion.coefficients.fill(0);
conversion.SetInputLineWidth(1024);
conversion.SetInputLines(1024);
conversion.alpha = 0;
ConversionBuffer zero_buffer = {};
conversion.src_Y = zero_buffer;
conversion.src_U = zero_buffer;
conversion.src_V = zero_buffer;
conversion.dst = zero_buffer;
completion_event->Clear();
cmd_buff[0] = IPC::MakeHeader(0x2B, 1, 0);
cmd_buff[1] = RESULT_SUCCESS.raw;
LOG_DEBUG(Service_Y2R, "called");
}
static void DriverFinalize(Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
cmd_buff[0] = IPC::MakeHeader(0x2C, 1, 0);
cmd_buff[1] = RESULT_SUCCESS.raw;
LOG_DEBUG(Service_Y2R, "called");
}
static void GetPackageParameter(Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
cmd_buff[0] = IPC::MakeHeader(0x2D, 4, 0);
cmd_buff[1] = RESULT_SUCCESS.raw;
std::memcpy(&cmd_buff[2], &conversion, sizeof(ConversionParameters));
LOG_DEBUG(Service_Y2R, "called");
}
const Interface::FunctionInfo FunctionTable[] = {
{0x00010040, SetInputFormat, "SetInputFormat"},
{0x00020000, GetInputFormat, "GetInputFormat"},
{0x00030040, SetOutputFormat, "SetOutputFormat"},
{0x00040000, GetOutputFormat, "GetOutputFormat"},
{0x00050040, SetRotation, "SetRotation"},
{0x00060000, GetRotation, "GetRotation"},
{0x00070040, SetBlockAlignment, "SetBlockAlignment"},
{0x00080000, GetBlockAlignment, "GetBlockAlignment"},
{0x00090040, SetSpacialDithering, "SetSpacialDithering"},
{0x000A0000, GetSpacialDithering, "GetSpacialDithering"},
{0x000B0040, SetTemporalDithering, "SetTemporalDithering"},
{0x000C0000, GetTemporalDithering, "GetTemporalDithering"},
{0x000D0040, SetTransferEndInterrupt, "SetTransferEndInterrupt"},
{0x000E0000, GetTransferEndInterrupt, "GetTransferEndInterrupt"},
{0x000F0000, GetTransferEndEvent, "GetTransferEndEvent"},
{0x00100102, SetSendingY, "SetSendingY"},
{0x00110102, SetSendingU, "SetSendingU"},
{0x00120102, SetSendingV, "SetSendingV"},
{0x00130102, SetSendingYUYV, "SetSendingYUYV"},
{0x00140000, IsFinishedSendingYuv, "IsFinishedSendingYuv"},
{0x00150000, IsFinishedSendingY, "IsFinishedSendingY"},
{0x00160000, IsFinishedSendingU, "IsFinishedSendingU"},
{0x00170000, IsFinishedSendingV, "IsFinishedSendingV"},
{0x00180102, SetReceiving, "SetReceiving"},
{0x00190000, IsFinishedReceiving, "IsFinishedReceiving"},
{0x001A0040, SetInputLineWidth, "SetInputLineWidth"},
{0x001B0000, GetInputLineWidth, "GetInputLineWidth"},
{0x001C0040, SetInputLines, "SetInputLines"},
{0x001D0000, GetInputLines, "GetInputLines"},
{0x001E0100, SetCoefficient, "SetCoefficient"},
{0x001F0000, GetCoefficient, "GetCoefficient"},
{0x00200040, SetStandardCoefficient, "SetStandardCoefficient"},
{0x00210040, GetStandardCoefficient, "GetStandardCoefficient"},
{0x00220040, SetAlpha, "SetAlpha"},
{0x00230000, GetAlpha, "GetAlpha"},
{0x00240200, SetDitheringWeightParams, "SetDitheringWeightParams"},
{0x00250000, GetDitheringWeightParams, "GetDitheringWeightParams"},
{0x00260000, StartConversion, "StartConversion"},
{0x00270000, StopConversion, "StopConversion"},
{0x00280000, IsBusyConversion, "IsBusyConversion"},
{0x002901C0, SetPackageParameter, "SetPackageParameter"},
{0x002A0000, PingProcess, "PingProcess"},
{0x002B0000, DriverInitialize, "DriverInitialize"},
{0x002C0000, DriverFinalize, "DriverFinalize"},
{0x002D0000, GetPackageParameter, "GetPackageParameter"},
};
Y2R_U::Y2R_U() {
completion_event = Kernel::Event::Create(Kernel::ResetType::OneShot, "Y2R:Completed");
std::memset(&conversion, 0, sizeof(conversion));
Register(FunctionTable);
}
Y2R_U::~Y2R_U() {
completion_event = nullptr;
}
} // namespace Y2R
namespace APT_U {
// Address used for shared font (as observed on HW)
// TODO(bunnei): This is the hard-coded address where we currently dump the shared font from via
// https://github.com/citra-emu/3dsutils. This is technically a hack, and will not work at any
// address other than 0x18000000 due to internal pointers in the shared font dump that would need to
// be relocated. This might be fixed by dumping the shared font @ address 0x00000000 and then
// correctly mapping it in Citra, however we still do not understand how the mapping is determined.
static const VAddr SHARED_FONT_VADDR = 0x18000000;
/// Handle to shared memory region designated to for shared system font
static Kernel::SharedPtr<Kernel::SharedMemory> shared_font_mem;
static Kernel::SharedPtr<Kernel::Mutex> lock;
static Kernel::SharedPtr<Kernel::Event> notification_event; ///< APT notification event
static Kernel::SharedPtr<Kernel::Event> pause_event = 0; ///< APT pause event
static std::vector<u8> shared_font;
/// Signals used by APT functions
enum class SignalType : u32 {
None = 0x0,
AppJustStarted = 0x1,
ReturningToApp = 0xB,
ExitingApp = 0xC,
};
/// App Id's used by APT functions
enum class AppID : u32 {
HomeMenu = 0x101,
AlternateMenu = 0x103,
Camera = 0x110,
FriendsList = 0x112,
GameNotes = 0x113,
InternetBrowser = 0x114,
InstructionManual = 0x115,
Notifications = 0x116,
Miiverse = 0x117,
SoftwareKeyboard1 = 0x201,
Ed = 0x202,
PnoteApp = 0x204,
SnoteApp = 0x205,
Error = 0x206,
Mint = 0x207,
Extrapad = 0x208,
Memolib = 0x209,
Application = 0x300,
SoftwareKeyboard2 = 0x401,
};
void Initialize(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
// TODO(bunnei): Check if these are created in Initialize or on APT process startup.
notification_event = Kernel::Event::Create(RESETTYPE_ONESHOT, "APT_U:Notification");
pause_event = Kernel::Event::Create(RESETTYPE_ONESHOT, "APT_U:Pause");
cmd_buff[3] = Kernel::g_handle_table.Create(notification_event).MoveFrom();
cmd_buff[4] = Kernel::g_handle_table.Create(pause_event).MoveFrom();
// TODO(bunnei): Check if these events are cleared/signaled every time Initialize is called.
notification_event->Clear();
pause_event->Signal(); // Fire start event
ASSERT_MSG((nullptr != lock), "Cannot initialize without lock");
lock->Release();
cmd_buff[1] = RESULT_SUCCESS.raw; // No error
}
/**
* APT_U::NotifyToWait service function
* Inputs:
* 1 : AppID
* Outputs:
* 1 : Result of function, 0 on success, otherwise error code
*/
void NotifyToWait(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
u32 app_id = cmd_buff[1];
// TODO(Subv): Verify this, it seems to get SWKBD and Home Menu further.
pause_event->Signal();
cmd_buff[1] = RESULT_SUCCESS.raw; // No error
LOG_WARNING(Service_APT, "(STUBBED) app_id=%u", app_id);
}
void GetLockHandle(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
u32 flags = cmd_buff[1]; // TODO(bunnei): Figure out the purpose of the flag field
cmd_buff[1] = RESULT_SUCCESS.raw; // No error
// Not sure what these parameters are used for, but retail apps check that they are 0 after
// GetLockHandle has been called.
cmd_buff[2] = 0;
cmd_buff[3] = 0;
cmd_buff[4] = 0;
cmd_buff[5] = Kernel::g_handle_table.Create(lock).MoveFrom();
LOG_TRACE(Service_APT, "called handle=0x%08X", cmd_buff[5]);
}
void Enable(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
u32 unk = cmd_buff[1]; // TODO(bunnei): What is this field used for?
cmd_buff[1] = RESULT_SUCCESS.raw; // No error
LOG_WARNING(Service_APT, "(STUBBED) called unk=0x%08X", unk);
}
/**
* APT_U::GetAppletManInfo service function.
* Inputs:
* 1 : Unknown
* Outputs:
* 1 : Result of function, 0 on success, otherwise error code
* 2 : Unknown u32 value
* 3 : Unknown u8 value
* 4 : Home Menu AppId
* 5 : AppID of currently active app
*/
void GetAppletManInfo(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
u32 unk = cmd_buff[1];
cmd_buff[1] = RESULT_SUCCESS.raw; // No error
cmd_buff[2] = 0;
cmd_buff[3] = 0;
cmd_buff[4] = static_cast<u32>(AppID::HomeMenu); // Home menu AppID
cmd_buff[5] = static_cast<u32>(AppID::Application); // TODO(purpasmart96): Do this correctly
LOG_WARNING(Service_APT, "(STUBBED) called unk=0x%08X", unk);
}
/**
* APT_U::IsRegistered service function. This returns whether the specified AppID is registered with NS yet.
* An AppID is "registered" once the process associated with the AppID uses APT:Enable. Home Menu uses this
* command to determine when the launched process is running and to determine when to stop using GSP etc,
* while displaying the "Nintendo 3DS" loading screen.
* Inputs:
* 1 : AppID
* Outputs:
* 0 : Return header
* 1 : Result of function, 0 on success, otherwise error code
* 2 : Output, 0 = not registered, 1 = registered.
*/
static void IsRegistered(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
u32 app_id = cmd_buff[1];
cmd_buff[1] = RESULT_SUCCESS.raw; // No error
cmd_buff[2] = 1; // Set to registered
LOG_WARNING(Service_APT, "(STUBBED) called app_id=0x%08X", app_id);
}
void InquireNotification(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
u32 app_id = cmd_buff[1];
cmd_buff[1] = RESULT_SUCCESS.raw; // No error
cmd_buff[2] = static_cast<u32>(SignalType::None); // Signal type
LOG_WARNING(Service_APT, "(STUBBED) called app_id=0x%08X", app_id);
}
/**
* APT_U::SendParameter service function. This sets the parameter data state.
* Inputs:
* 1 : Source AppID
* 2 : Destination AppID
* 3 : Signal type
* 4 : Parameter buffer size, max size is 0x1000 (this can be zero)
* 5 : Value
* 6 : Handle to the destination process, likely used for shared memory (this can be zero)
* 7 : (Size<<14) | 2
* 8 : Input parameter buffer ptr
* Outputs:
* 0 : Return Header
* 1 : Result of function, 0 on success, otherwise error code
*/
static void SendParameter(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
u32 src_app_id = cmd_buff[1];
u32 dst_app_id = cmd_buff[2];
u32 signal_type = cmd_buff[3];
u32 buffer_size = cmd_buff[4];
u32 value = cmd_buff[5];
u32 handle = cmd_buff[6];
u32 size = cmd_buff[7];
u32 in_param_buffer_ptr = cmd_buff[8];
cmd_buff[1] = RESULT_SUCCESS.raw; // No error
LOG_WARNING(Service_APT, "(STUBBED) called src_app_id=0x%08X, dst_app_id=0x%08X, signal_type=0x%08X,"
"buffer_size=0x%08X, value=0x%08X, handle=0x%08X, size=0x%08X, in_param_buffer_ptr=0x%08X",
src_app_id, dst_app_id, signal_type, buffer_size, value, handle, size, in_param_buffer_ptr);
}
/**
* APT_U::ReceiveParameter service function. This returns the current parameter data from NS state,
* from the source process which set the parameters. Once finished, NS will clear a flag in the NS
* state so that this command will return an error if this command is used again if parameters were
* not set again. This is called when the second Initialize event is triggered. It returns a signal
* type indicating why it was triggered.
* Inputs:
* 1 : AppID
* 2 : Parameter buffer size, max size is 0x1000
* Outputs:
* 1 : Result of function, 0 on success, otherwise error code
* 2 : AppID of the process which sent these parameters
* 3 : Signal type
* 4 : Actual parameter buffer size, this is <= to the the input size
* 5 : Value
* 6 : Handle from the source process which set the parameters, likely used for shared memory
* 7 : Size
* 8 : Output parameter buffer ptr
*/
void ReceiveParameter(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
u32 app_id = cmd_buff[1];
u32 buffer_size = cmd_buff[2];
cmd_buff[1] = RESULT_SUCCESS.raw; // No error
cmd_buff[2] = 0;
cmd_buff[3] = static_cast<u32>(SignalType::AppJustStarted); // Signal type
cmd_buff[4] = 0x10; // Parameter buffer size (16)
cmd_buff[5] = 0;
cmd_buff[6] = 0;
cmd_buff[7] = 0;
LOG_WARNING(Service_APT, "(STUBBED) called app_id=0x%08X, buffer_size=0x%08X", app_id, buffer_size);
}
/**
* APT_U::GlanceParameter service function. This is exactly the same as APT_U::ReceiveParameter
* (except for the word value prior to the output handle), except this will not clear the flag
* (except when responseword[3]==8 || responseword[3]==9) in NS state.
* Inputs:
* 1 : AppID
* 2 : Parameter buffer size, max size is 0x1000
* Outputs:
* 1 : Result of function, 0 on success, otherwise error code
* 2 : Unknown, for now assume AppID of the process which sent these parameters
* 3 : Unknown, for now assume Signal type
* 4 : Actual parameter buffer size, this is <= to the the input size
* 5 : Value
* 6 : Handle from the source process which set the parameters, likely used for shared memory
* 7 : Size
* 8 : Output parameter buffer ptr
*/
void GlanceParameter(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
u32 app_id = cmd_buff[1];
u32 buffer_size = cmd_buff[2];
cmd_buff[1] = RESULT_SUCCESS.raw; // No error
cmd_buff[2] = 0;
cmd_buff[3] = static_cast<u32>(SignalType::AppJustStarted); // Signal type
cmd_buff[4] = 0x10; // Parameter buffer size (16)
cmd_buff[5] = 0;
cmd_buff[6] = 0;
cmd_buff[7] = 0;
LOG_WARNING(Service_APT, "(STUBBED) called app_id=0x%08X, buffer_size=0x%08X", app_id, buffer_size);
}
/**
* APT_U::CancelParameter service function. When the parameter data is available, and when the above
* specified fields match the ones in NS state(for the ones where the checks are enabled), this
* clears the flag which indicates that parameter data is available
* (same flag cleared by APT:ReceiveParameter).
* Inputs:
* 1 : Flag, when non-zero NS will compare the word after this one with a field in the NS state.
* 2 : Unknown, this is the same as the first unknown field returned by APT:ReceiveParameter.
* 3 : Flag, when non-zero NS will compare the word after this one with a field in the NS state.
* 4 : AppID
* Outputs:
* 0 : Return header
* 1 : Result of function, 0 on success, otherwise error code
* 2 : Status flag, 0 = failure due to no parameter data being available, or the above enabled
* fields don't match the fields in NS state. 1 = success.
*/
static void CancelParameter(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
u32 flag1 = cmd_buff[1];
u32 unk = cmd_buff[2];
u32 flag2 = cmd_buff[3];
u32 app_id = cmd_buff[4];
cmd_buff[1] = RESULT_SUCCESS.raw; // No error
cmd_buff[2] = 1; // Set to Success
LOG_WARNING(Service_APT, "(STUBBED) called flag1=0x%08X, unk=0x%08X, flag2=0x%08X, app_id=0x%08X",
flag1, unk, flag2, app_id);
}
/**
* APT_U::AppletUtility service function
* Inputs:
* 1 : Unknown, but clearly used for something
* 2 : Buffer 1 size (purpose is unknown)
* 3 : Buffer 2 size (purpose is unknown)
* 5 : Buffer 1 address (purpose is unknown)
* 65 : Buffer 2 address (purpose is unknown)
* Outputs:
* 1 : Result of function, 0 on success, otherwise error code
*/
void AppletUtility(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
// These are from 3dbrew - I'm not really sure what they're used for.
u32 unk = cmd_buff[1];
u32 buffer1_size = cmd_buff[2];
u32 buffer2_size = cmd_buff[3];
u32 buffer1_addr = cmd_buff[5];
u32 buffer2_addr = cmd_buff[65];
cmd_buff[1] = RESULT_SUCCESS.raw; // No error
LOG_WARNING(Service_APT, "(STUBBED) called unk=0x%08X, buffer1_size=0x%08x, buffer2_size=0x%08x, "
"buffer1_addr=0x%08x, buffer2_addr=0x%08x", unk, buffer1_size, buffer2_size,
buffer1_addr, buffer2_addr);
}
/**
* APT_U::GetSharedFont service function
* Outputs:
* 1 : Result of function, 0 on success, otherwise error code
* 2 : Virtual address of where shared font will be loaded in memory
* 4 : Handle to shared font memory
*/
void GetSharedFont(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
if (!shared_font.empty()) {
// TODO(bunnei): This function shouldn't copy the shared font every time it's called.
// Instead, it should probably map the shared font as RO memory. We don't currently have
// an easy way to do this, but the copy should be sufficient for now.
memcpy(Memory::GetPointer(SHARED_FONT_VADDR), shared_font.data(), shared_font.size());
cmd_buff[0] = 0x00440082;
cmd_buff[1] = RESULT_SUCCESS.raw; // No error
cmd_buff[2] = SHARED_FONT_VADDR;
cmd_buff[4] = Kernel::g_handle_table.Create(shared_font_mem).MoveFrom();
} else {
cmd_buff[1] = -1; // Generic error (not really possible to verify this on hardware)
LOG_ERROR(Kernel_SVC, "called, but %s has not been loaded!", SHARED_FONT);
}
}
/**
* APT_U::SetAppCpuTimeLimit service function
* Inputs:
* 1 : Value, must be one
* 2 : Percentage of CPU time from 5 to 80
* Outputs:
* 1 : Result of function, 0 on success, otherwise error code
*/
static void SetAppCpuTimeLimit(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
u32 value = cmd_buff[1];
u32 percent = cmd_buff[2];
if (value != 1) {
LOG_ERROR(Service_APT, "This value should be one, but is actually %u!", value);
}
cmd_buff[1] = RESULT_SUCCESS.raw; // No error
LOG_WARNING(Service_APT, "(STUBBED) called percent=0x%08X, value=0x%08x", percent, value);
}
/**
* APT_U::GetAppCpuTimeLimit service function
* Inputs:
* 1 : Value, must be one
* Outputs:
* 0 : Return header
* 1 : Result of function, 0 on success, otherwise error code
* 2 : System core CPU time percentage
*/
static void GetAppCpuTimeLimit(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
u32 value = cmd_buff[1];
if (value != 1) {
LOG_ERROR(Service_APT, "This value should be one, but is actually %u!", value);
}
// TODO(purpasmart96): This is incorrect, I'm pretty sure the percentage should
// be set by the application.
cmd_buff[1] = RESULT_SUCCESS.raw; // No error
cmd_buff[2] = 0x80; // Set to 80%
LOG_WARNING(Service_APT, "(STUBBED) called value=0x%08x", value);
}
const Interface::FunctionInfo FunctionTable[] = {
{0x00010040, GetLockHandle, "GetLockHandle"},
{0x00020080, Initialize, "Initialize"},
{0x00030040, Enable, "Enable"},
{0x00040040, nullptr, "Finalize"},
{0x00050040, GetAppletManInfo, "GetAppletManInfo"},
{0x00060040, nullptr, "GetAppletInfo"},
{0x00070000, nullptr, "GetLastSignaledAppletId"},
{0x00080000, nullptr, "CountRegisteredApplet"},
{0x00090040, IsRegistered, "IsRegistered"},
{0x000A0040, nullptr, "GetAttribute"},
{0x000B0040, InquireNotification, "InquireNotification"},
{0x000C0104, SendParameter, "SendParameter"},
{0x000D0080, ReceiveParameter, "ReceiveParameter"},
{0x000E0080, GlanceParameter, "GlanceParameter"},
{0x000F0100, CancelParameter, "CancelParameter"},
{0x001000C2, nullptr, "DebugFunc"},
{0x001100C0, nullptr, "MapProgramIdForDebug"},
{0x00120040, nullptr, "SetHomeMenuAppletIdForDebug"},
{0x00130000, nullptr, "GetPreparationState"},
{0x00140040, nullptr, "SetPreparationState"},
{0x00150140, nullptr, "PrepareToStartApplication"},
{0x00160040, nullptr, "PreloadLibraryApplet"},
{0x00170040, nullptr, "FinishPreloadingLibraryApplet"},
{0x00180040, nullptr, "PrepareToStartLibraryApplet"},
{0x00190040, nullptr, "PrepareToStartSystemApplet"},
{0x001A0000, nullptr, "PrepareToStartNewestHomeMenu"},
{0x001B00C4, nullptr, "StartApplication"},
{0x001C0000, nullptr, "WakeupApplication"},
{0x001D0000, nullptr, "CancelApplication"},
{0x001E0084, nullptr, "StartLibraryApplet"},
{0x001F0084, nullptr, "StartSystemApplet"},
{0x00200044, nullptr, "StartNewestHomeMenu"},
{0x00210000, nullptr, "OrderToCloseApplication"},
{0x00220040, nullptr, "PrepareToCloseApplication"},
{0x00230040, nullptr, "PrepareToJumpToApplication"},
{0x00240044, nullptr, "JumpToApplication"},
{0x002500C0, nullptr, "PrepareToCloseLibraryApplet"},
{0x00260000, nullptr, "PrepareToCloseSystemApplet"},
{0x00270044, nullptr, "CloseApplication"},
{0x00280044, nullptr, "CloseLibraryApplet"},
{0x00290044, nullptr, "CloseSystemApplet"},
{0x002A0000, nullptr, "OrderToCloseSystemApplet"},
{0x002B0000, nullptr, "PrepareToJumpToHomeMenu"},
{0x002C0044, nullptr, "JumpToHomeMenu"},
{0x002D0000, nullptr, "PrepareToLeaveHomeMenu"},
{0x002E0044, nullptr, "LeaveHomeMenu"},
{0x002F0040, nullptr, "PrepareToLeaveResidentApplet"},
{0x00300044, nullptr, "LeaveResidentApplet"},
{0x00310100, nullptr, "PrepareToDoApplicationJump"},
{0x00320084, nullptr, "DoApplicationJump"},
{0x00330000, nullptr, "GetProgramIdOnApplicationJump"},
{0x00340084, nullptr, "SendDeliverArg"},
{0x00350080, nullptr, "ReceiveDeliverArg"},
{0x00360040, nullptr, "LoadSysMenuArg"},
{0x00370042, nullptr, "StoreSysMenuArg"},
{0x00380040, nullptr, "PreloadResidentApplet"},
{0x00390040, nullptr, "PrepareToStartResidentApplet"},
{0x003A0044, nullptr, "StartResidentApplet"},
{0x003B0040, nullptr, "CancelLibraryApplet"},
{0x003C0042, nullptr, "SendDspSleep"},
{0x003D0042, nullptr, "SendDspWakeUp"},
{0x003E0080, nullptr, "ReplySleepQuery"},
{0x003F0040, nullptr, "ReplySleepNotificationComplete"},
{0x00400042, nullptr, "SendCaptureBufferInfo"},
{0x00410040, nullptr, "ReceiveCaptureBufferInfo"},
{0x00420080, nullptr, "SleepSystem"},
{0x00430040, NotifyToWait, "NotifyToWait"},
{0x00440000, GetSharedFont, "GetSharedFont"},
{0x00450040, nullptr, "GetWirelessRebootInfo"},
{0x00460104, nullptr, "Wrap"},
{0x00470104, nullptr, "Unwrap"},
{0x00480100, nullptr, "GetProgramInfo"},
{0x00490180, nullptr, "Reboot"},
{0x004A0040, nullptr, "GetCaptureInfo"},
{0x004B00C2, AppletUtility, "AppletUtility"},
{0x004C0000, nullptr, "SetFatalErrDispMode"},
{0x004D0080, nullptr, "GetAppletProgramInfo"},
{0x004E0000, nullptr, "HardwareResetAsync"},
{0x004F0080, SetAppCpuTimeLimit, "SetAppCpuTimeLimit"},
{0x00500040, GetAppCpuTimeLimit, "GetAppCpuTimeLimit"},
};
////////////////////////////////////////////////////////////////////////////////////////////////////
// Interface class
Interface::Interface() {
// Load the shared system font (if available).
// The expected format is a decrypted, uncompressed BCFNT file with the 0x80 byte header
// generated by the APT:U service. The best way to get is by dumping it from RAM. We've provided
// a homebrew app to do this: https://github.com/citra-emu/3dsutils. Put the resulting file
// "shared_font.bin" in the Citra "sysdata" directory.
shared_font.clear();
std::string filepath = FileUtil::GetUserPath(D_SYSDATA_IDX) + SHARED_FONT;
FileUtil::CreateFullPath(filepath); // Create path if not already created
FileUtil::IOFile file(filepath, "rb");
if (file.IsOpen()) {
// Read shared font data
shared_font.resize((size_t)file.GetSize());
file.ReadBytes(shared_font.data(), (size_t)file.GetSize());
// Create shared font memory object
shared_font_mem = Kernel::SharedMemory::Create("APT_U:shared_font_mem");
} else {
LOG_WARNING(Service_APT, "Unable to load shared font: %s", filepath.c_str());
shared_font_mem = nullptr;
}
lock = Kernel::Mutex::Create(false, "APT_U:Lock");
Register(FunctionTable);
}
} // namespace
namespace DSP_DSP {
static u32 read_pipe_count;
static Kernel::SharedPtr<Kernel::Event> semaphore_event;
static Kernel::SharedPtr<Kernel::Event> interrupt_event;
void SignalInterrupt() {
// TODO(bunnei): This is just a stub, it does not do anything other than signal to the emulated
// application that a DSP interrupt occurred, without specifying which one. Since we do not
// emulate the DSP yet (and how it works is largely unknown), this is a work around to get games
// that check the DSP interrupt signal event to run. We should figure out the different types of
// DSP interrupts, and trigger them at the appropriate times.
if (interrupt_event != 0)
interrupt_event->Signal();
}
/**
* DSP_DSP::ConvertProcessAddressFromDspDram service function
* Inputs:
* 1 : Address
* Outputs:
* 1 : Result of function, 0 on success, otherwise error code
* 2 : (inaddr << 1) + 0x1FF40000 (where 0x1FF00000 is the DSP RAM address)
*/
static void ConvertProcessAddressFromDspDram(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
u32 addr = cmd_buff[1];
cmd_buff[1] = 0; // No error
cmd_buff[2] = (addr << 1) + (Memory::DSP_RAM_VADDR + 0x40000);
LOG_WARNING(Service_DSP, "(STUBBED) called with address 0x%08X", addr);
}
/**
* DSP_DSP::LoadComponent service function
* Inputs:
* 1 : Size
* 2 : Unknown (observed only half word used)
* 3 : Unknown (observed only half word used)
* 4 : (size << 4) | 0xA
* 5 : Buffer address
* Outputs:
* 1 : Result of function, 0 on success, otherwise error code
* 2 : Component loaded, 0 on not loaded, 1 on loaded
*/
static void LoadComponent(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
u32 size = cmd_buff[1];
u32 unk1 = cmd_buff[2];
u32 unk2 = cmd_buff[3];
u32 new_size = cmd_buff[4];
u32 buffer = cmd_buff[5];
cmd_buff[1] = 0; // No error
cmd_buff[2] = 1; // Pretend that we actually loaded the DSP firmware
// TODO(bunnei): Implement real DSP firmware loading
LOG_WARNING(Service_DSP, "(STUBBED) called size=0x%X, unk1=0x%08X, unk2=0x%08X, new_size=0x%X, buffer=0x%08X",
size, unk1, unk2, new_size, buffer);
}
/**
* DSP_DSP::GetSemaphoreEventHandle service function
* Outputs:
* 1 : Result of function, 0 on success, otherwise error code
* 3 : Semaphore event handle
*/
static void GetSemaphoreEventHandle(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
cmd_buff[1] = RESULT_SUCCESS.raw; // No error
cmd_buff[3] = Kernel::g_handle_table.Create(semaphore_event).MoveFrom(); // Event handle
LOG_WARNING(Service_DSP, "(STUBBED) called");
}
/**
* DSP_DSP::FlushDataCache service function
*
* This Function is a no-op, We aren't emulating the CPU cache any time soon.
*
* Inputs:
* 1 : Address
* 2 : Size
* 3 : Value 0, some descriptor for the KProcess Handle
* 4 : KProcess handle
* Outputs:
* 1 : Result of function, 0 on success, otherwise error code
*/
static void FlushDataCache(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
u32 address = cmd_buff[1];
u32 size = cmd_buff[2];
u32 process = cmd_buff[4];
// TODO(purpasmart96): Verify return header on HW
cmd_buff[1] = RESULT_SUCCESS.raw; // No error
LOG_DEBUG(Service_DSP, "(STUBBED) called address=0x%08X, size=0x%X, process=0x%08X",
address, size, process);
}
/**
* DSP_DSP::RegisterInterruptEvents service function
* Inputs:
* 1 : Parameter 0 (purpose unknown)
* 2 : Parameter 1 (purpose unknown)
* 4 : Interrupt event handle
* Outputs:
* 1 : Result of function, 0 on success, otherwise error code
*/
static void RegisterInterruptEvents(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
u32 param0 = cmd_buff[1];
u32 param1 = cmd_buff[2];
u32 event_handle = cmd_buff[4];
auto evt = Kernel::g_handle_table.Get<Kernel::Event>(cmd_buff[4]);
if (evt != nullptr) {
interrupt_event = evt;
cmd_buff[1] = 0; // No error
} else {
LOG_ERROR(Service_DSP, "called with invalid handle=%08X", cmd_buff[4]);
// TODO(yuriks): An error should be returned from SendSyncRequest, not in the cmdbuf
cmd_buff[1] = -1;
}
LOG_WARNING(Service_DSP, "(STUBBED) called param0=%u, param1=%u, event_handle=0x%08X", param0, param1, event_handle);
}
/**
* DSP_DSP::SetSemaphore service function
* Inputs:
* 1 : Unknown (observed only half word used)
* Outputs:
* 1 : Result of function, 0 on success, otherwise error code
*/
static void SetSemaphore(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
SignalInterrupt();
cmd_buff[1] = 0; // No error
LOG_WARNING(Service_DSP, "(STUBBED) called");
}
/**
* DSP_DSP::WriteProcessPipe service function
* Inputs:
* 1 : Number
* 2 : Size
* 3 : (size <<14) | 0x402
* 4 : Buffer
* Outputs:
* 0 : Return header
* 1 : Result of function, 0 on success, otherwise error code
*/
static void WriteProcessPipe(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
u32 number = cmd_buff[1];
u32 size = cmd_buff[2];
u32 new_size = cmd_buff[3];
u32 buffer = cmd_buff[4];
cmd_buff[1] = RESULT_SUCCESS.raw; // No error
LOG_WARNING(Service_DSP, "(STUBBED) called number=%u, size=0x%X, new_size=0x%X, buffer=0x%08X",
number, size, new_size, buffer);
}
/**
* DSP_DSP::ReadPipeIfPossible service function
* Inputs:
* 1 : Unknown
* 2 : Unknown
* 3 : Size in bytes of read (observed only lower half word used)
* 0x41 : Virtual address to read from DSP pipe to in memory
* Outputs:
* 1 : Result of function, 0 on success, otherwise error code
* 2 : Number of bytes read from pipe
*/
static void ReadPipeIfPossible(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
u32 unk1 = cmd_buff[1];
u32 unk2 = cmd_buff[2];
u32 size = cmd_buff[3] & 0xFFFF;// Lower 16 bits are size
VAddr addr = cmd_buff[0x41];
// Canned DSP responses that games expect. These were taken from HW by 3dmoo team.
// TODO: Remove this hack :)
static const std::array<u16, 16> canned_read_pipe = {{
0x000F, 0xBFFF, 0x9E8E, 0x8680, 0xA78E, 0x9430, 0x8400, 0x8540,
0x948E, 0x8710, 0x8410, 0xA90E, 0xAA0E, 0xAACE, 0xAC4E, 0xAC58
}
};
u32 initial_size = read_pipe_count;
for (unsigned offset = 0; offset < size; offset += sizeof(u16)) {
if (read_pipe_count < canned_read_pipe.size()) {
Memory::Write16(addr + offset, canned_read_pipe[read_pipe_count]);
read_pipe_count++;
} else {
LOG_ERROR(Service_DSP, "canned read pipe log exceeded!");
break;
}
}
cmd_buff[1] = 0; // No error
cmd_buff[2] = (read_pipe_count - initial_size) * sizeof(u16);
LOG_WARNING(Service_DSP, "(STUBBED) called unk1=0x%08X, unk2=0x%08X, size=0x%X, buffer=0x%08X",
unk1, unk2, size, addr);
}
/**
* DSP_DSP::SetSemaphoreMask service function
* Inputs:
* 1 : Mask
* Outputs:
* 1 : Result of function, 0 on success, otherwise error code
*/
static void SetSemaphoreMask(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
u32 mask = cmd_buff[1];
cmd_buff[1] = RESULT_SUCCESS.raw; // No error
LOG_WARNING(Service_DSP, "(STUBBED) called mask=0x%08X", mask);
}
/**
* DSP_DSP::GetHeadphoneStatus service function
* Inputs:
* 1 : None
* Outputs:
* 1 : Result of function, 0 on success, otherwise error code
* 2 : The headphone status response, 0 = Not using headphones?,
* 1 = using headphones?
*/
static void GetHeadphoneStatus(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
cmd_buff[1] = RESULT_SUCCESS.raw; // No error
cmd_buff[2] = 0; // Not using headphones?
LOG_DEBUG(Service_DSP, "(STUBBED) called");
}
const Interface::FunctionInfo FunctionTable[] = {
{0x00010040, nullptr, "RecvData"},
{0x00020040, nullptr, "RecvDataIsReady"},
{0x00030080, nullptr, "SendData"},
{0x00040040, nullptr, "SendDataIsEmpty"},
{0x000500C2, nullptr, "SendFifoEx"},
{0x000600C0, nullptr, "RecvFifoEx"},
{0x00070040, SetSemaphore, "SetSemaphore"},
{0x00080000, nullptr, "GetSemaphore"},
{0x00090040, nullptr, "ClearSemaphore"},
{0x000A0040, nullptr, "MaskSemaphore"},
{0x000B0000, nullptr, "CheckSemaphoreRequest"},
{0x000C0040, ConvertProcessAddressFromDspDram, "ConvertProcessAddressFromDspDram"},
{0x000D0082, WriteProcessPipe, "WriteProcessPipe"},
{0x000E00C0, nullptr, "ReadPipe"},
{0x000F0080, nullptr, "GetPipeReadableSize"},
{0x001000C0, ReadPipeIfPossible, "ReadPipeIfPossible"},
{0x001100C2, LoadComponent, "LoadComponent"},
{0x00120000, nullptr, "UnloadComponent"},
{0x00130082, FlushDataCache, "FlushDataCache"},
{0x00140082, nullptr, "InvalidateDCache"},
{0x00150082, RegisterInterruptEvents, "RegisterInterruptEvents"},
{0x00160000, GetSemaphoreEventHandle, "GetSemaphoreEventHandle"},
{0x00170040, SetSemaphoreMask, "SetSemaphoreMask"},
{0x00180040, nullptr, "GetPhysicalAddress"},
{0x00190040, nullptr, "GetVirtualAddress"},
{0x001A0042, nullptr, "SetIirFilterI2S1_cmd1"},
{0x001B0042, nullptr, "SetIirFilterI2S1_cmd2"},
{0x001C0082, nullptr, "SetIirFilterEQ"},
{0x001D00C0, nullptr, "ReadMultiEx_SPI2"},
{0x001E00C2, nullptr, "WriteMultiEx_SPI2"},
{0x001F0000, GetHeadphoneStatus, "GetHeadphoneStatus"},
{0x00200040, nullptr, "ForceHeadphoneOut"},
{0x00210000, nullptr, "GetIsDspOccupied"},
};
////////////////////////////////////////////////////////////////////////////////////////////////////
// Interface class
Interface::Interface() {
semaphore_event = Kernel::Event::Create(RESETTYPE_ONESHOT, "DSP_DSP::semaphore_event");
interrupt_event = nullptr;
read_pipe_count = 0;
Register(FunctionTable);
}
Interface::~Interface() {
semaphore_event = nullptr;
interrupt_event = nullptr;
}
} // namespace
ResultStatus AppLoader_NCCH::LoadExec(Kernel::SharedPtr<Kernel::Process>& process) {
using Kernel::CodeSet;
using Kernel::SharedPtr;
if (!is_loaded)
return ResultStatus::ErrorNotLoaded;
std::vector<u8> code;
u64_le program_id;
if (ResultStatus::Success == ReadCode(code) &&
ResultStatus::Success == ReadProgramId(program_id)) {
std::string process_name = Common::StringFromFixedZeroTerminatedBuffer(
(const char*)overlay_ncch->exheader_header.codeset_info.name, 8);
SharedPtr<CodeSet> codeset = CodeSet::Create(process_name, program_id);
codeset->code.offset = 0;
codeset->code.addr = overlay_ncch->exheader_header.codeset_info.text.address;
codeset->code.size =
overlay_ncch->exheader_header.codeset_info.text.num_max_pages * Memory::PAGE_SIZE;
codeset->rodata.offset = codeset->code.offset + codeset->code.size;
codeset->rodata.addr = overlay_ncch->exheader_header.codeset_info.ro.address;
codeset->rodata.size =
overlay_ncch->exheader_header.codeset_info.ro.num_max_pages * Memory::PAGE_SIZE;
// TODO(yuriks): Not sure if the bss size is added to the page-aligned .data size or just
// to the regular size. Playing it safe for now.
u32 bss_page_size = (overlay_ncch->exheader_header.codeset_info.bss_size + 0xFFF) & ~0xFFF;
code.resize(code.size() + bss_page_size, 0);
codeset->data.offset = codeset->rodata.offset + codeset->rodata.size;
codeset->data.addr = overlay_ncch->exheader_header.codeset_info.data.address;
codeset->data.size =
overlay_ncch->exheader_header.codeset_info.data.num_max_pages * Memory::PAGE_SIZE +
bss_page_size;
codeset->entrypoint = codeset->code.addr;
codeset->memory = std::make_shared<std::vector<u8>>(std::move(code));
process = Kernel::Process::Create(std::move(codeset));
// Attach a resource limit to the process based on the resource limit category
process->resource_limit =
Kernel::ResourceLimit::GetForCategory(static_cast<Kernel::ResourceLimitCategory>(
overlay_ncch->exheader_header.arm11_system_local_caps.resource_limit_category));
// Set the default CPU core for this process
process->ideal_processor =
overlay_ncch->exheader_header.arm11_system_local_caps.ideal_processor;
// Copy data while converting endianness
std::array<u32, ARRAY_SIZE(overlay_ncch->exheader_header.arm11_kernel_caps.descriptors)>
kernel_caps;
std::copy_n(overlay_ncch->exheader_header.arm11_kernel_caps.descriptors, kernel_caps.size(),
begin(kernel_caps));
process->ParseKernelCaps(kernel_caps.data(), kernel_caps.size());
s32 priority = overlay_ncch->exheader_header.arm11_system_local_caps.priority;
u32 stack_size = overlay_ncch->exheader_header.codeset_info.stack_size;
process->Run(priority, stack_size);
return ResultStatus::Success;
}
return ResultStatus::Error;
}
namespace HID {
static const int MAX_CIRCLEPAD_POS = 0x9C; ///< Max value for a circle pad position
// Handle to shared memory region designated to HID_User service
static Kernel::SharedPtr<Kernel::SharedMemory> shared_mem;
// Event handles
static Kernel::SharedPtr<Kernel::Event> event_pad_or_touch_1;
static Kernel::SharedPtr<Kernel::Event> event_pad_or_touch_2;
static Kernel::SharedPtr<Kernel::Event> event_accelerometer;
static Kernel::SharedPtr<Kernel::Event> event_gyroscope;
static Kernel::SharedPtr<Kernel::Event> event_debug_pad;
static u32 next_pad_index;
static u32 next_touch_index;
const std::array<Service::HID::PadState, Settings::NativeInput::NUM_INPUTS> pad_mapping = {{
Service::HID::PAD_A, Service::HID::PAD_B, Service::HID::PAD_X, Service::HID::PAD_Y,
Service::HID::PAD_L, Service::HID::PAD_R, Service::HID::PAD_ZL, Service::HID::PAD_ZR,
Service::HID::PAD_START, Service::HID::PAD_SELECT, Service::HID::PAD_NONE,
Service::HID::PAD_UP, Service::HID::PAD_DOWN, Service::HID::PAD_LEFT, Service::HID::PAD_RIGHT,
Service::HID::PAD_CIRCLE_UP, Service::HID::PAD_CIRCLE_DOWN, Service::HID::PAD_CIRCLE_LEFT, Service::HID::PAD_CIRCLE_RIGHT,
Service::HID::PAD_C_UP, Service::HID::PAD_C_DOWN, Service::HID::PAD_C_LEFT, Service::HID::PAD_C_RIGHT
}};
// TODO(peachum):
// Add a method for setting analog input from joystick device for the circle Pad.
//
// This method should:
// * Be called after both PadButton<Press, Release>().
// * Be called before PadUpdateComplete()
// * Set current PadEntry.circle_pad_<axis> using analog data
// * Set PadData.raw_circle_pad_data
// * Set PadData.current_state.circle_right = 1 if current PadEntry.circle_pad_x >= 41
// * Set PadData.current_state.circle_up = 1 if current PadEntry.circle_pad_y >= 41
// * Set PadData.current_state.circle_left = 1 if current PadEntry.circle_pad_x <= -41
// * Set PadData.current_state.circle_right = 1 if current PadEntry.circle_pad_y <= -41
void Update() {
SharedMem* mem = reinterpret_cast<SharedMem*>(shared_mem->GetPointer());
const PadState state = VideoCore::g_emu_window->GetPadState();
if (mem == nullptr) {
LOG_DEBUG(Service_HID, "Cannot update HID prior to mapping shared memory!");
return;
}
mem->pad.current_state.hex = state.hex;
mem->pad.index = next_pad_index;
next_touch_index = (next_touch_index + 1) % mem->pad.entries.size();
// Get the previous Pad state
u32 last_entry_index = (mem->pad.index - 1) % mem->pad.entries.size();
PadState old_state = mem->pad.entries[last_entry_index].current_state;
// Compute bitmask with 1s for bits different from the old state
PadState changed = { { (state.hex ^ old_state.hex) } };
// Get the current Pad entry
PadDataEntry* pad_entry = &mem->pad.entries[mem->pad.index];
// Update entry properties
pad_entry->current_state.hex = state.hex;
pad_entry->delta_additions.hex = changed.hex & state.hex;
pad_entry->delta_removals.hex = changed.hex & old_state.hex;;
// Set circle Pad
pad_entry->circle_pad_x = state.circle_left ? -MAX_CIRCLEPAD_POS :
state.circle_right ? MAX_CIRCLEPAD_POS : 0x0;
pad_entry->circle_pad_y = state.circle_down ? -MAX_CIRCLEPAD_POS :
state.circle_up ? MAX_CIRCLEPAD_POS : 0x0;
// If we just updated index 0, provide a new timestamp
if (mem->pad.index == 0) {
mem->pad.index_reset_ticks_previous = mem->pad.index_reset_ticks;
mem->pad.index_reset_ticks = (s64)CoreTiming::GetTicks();
}
mem->touch.index = next_touch_index;
next_touch_index = (next_touch_index + 1) % mem->touch.entries.size();
// Get the current touch entry
TouchDataEntry* touch_entry = &mem->touch.entries[mem->touch.index];
bool pressed = false;
std::tie(touch_entry->x, touch_entry->y, pressed) = VideoCore::g_emu_window->GetTouchState();
touch_entry->valid = pressed ? 1 : 0;
// TODO(bunnei): We're not doing anything with offset 0xA8 + 0x18 of HID SharedMemory, which
// supposedly is "Touch-screen entry, which contains the raw coordinate data prior to being
// converted to pixel coordinates." (http://3dbrew.org/wiki/HID_Shared_Memory#Offset_0xA8).
// If we just updated index 0, provide a new timestamp
if (mem->touch.index == 0) {
mem->touch.index_reset_ticks_previous = mem->touch.index_reset_ticks;
mem->touch.index_reset_ticks = (s64)CoreTiming::GetTicks();
}
// Signal both handles when there's an update to Pad or touch
event_pad_or_touch_1->Signal();
event_pad_or_touch_2->Signal();
}
void GetIPCHandles(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
cmd_buff[1] = 0; // No error
cmd_buff[2] = 0x14000000; // IPC Command Structure translate-header
// TODO(yuriks): Return error from SendSyncRequest is this fails (part of IPC marshalling)
cmd_buff[3] = Kernel::g_handle_table.Create(Service::HID::shared_mem).MoveFrom();
cmd_buff[4] = Kernel::g_handle_table.Create(Service::HID::event_pad_or_touch_1).MoveFrom();
cmd_buff[5] = Kernel::g_handle_table.Create(Service::HID::event_pad_or_touch_2).MoveFrom();
cmd_buff[6] = Kernel::g_handle_table.Create(Service::HID::event_accelerometer).MoveFrom();
cmd_buff[7] = Kernel::g_handle_table.Create(Service::HID::event_gyroscope).MoveFrom();
cmd_buff[8] = Kernel::g_handle_table.Create(Service::HID::event_debug_pad).MoveFrom();
}
void EnableAccelerometer(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
event_accelerometer->Signal();
cmd_buff[1] = RESULT_SUCCESS.raw;
LOG_WARNING(Service_HID, "(STUBBED) called");
}
void DisableAccelerometer(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
event_accelerometer->Signal();
cmd_buff[1] = RESULT_SUCCESS.raw;
LOG_WARNING(Service_HID, "(STUBBED) called");
}
void EnableGyroscopeLow(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
event_gyroscope->Signal();
cmd_buff[1] = RESULT_SUCCESS.raw;
LOG_WARNING(Service_HID, "(STUBBED) called");
}
void DisableGyroscopeLow(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
event_gyroscope->Signal();
cmd_buff[1] = RESULT_SUCCESS.raw;
LOG_WARNING(Service_HID, "(STUBBED) called");
}
void GetSoundVolume(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
const u8 volume = 0x3F; // TODO(purpasmart): Find out if this is the max value for the volume
cmd_buff[1] = RESULT_SUCCESS.raw;
cmd_buff[2] = volume;
LOG_WARNING(Service_HID, "(STUBBED) called");
}
void Init() {
using namespace Kernel;
AddService(new HID_U_Interface);
AddService(new HID_SPVR_Interface);
using Kernel::MemoryPermission;
shared_mem = SharedMemory::Create(0x1000, MemoryPermission::ReadWrite,
MemoryPermission::Read, "HID:SharedMem");
next_pad_index = 0;
next_touch_index = 0;
// Create event handles
event_pad_or_touch_1 = Event::Create(RESETTYPE_ONESHOT, "HID:EventPadOrTouch1");
event_pad_or_touch_2 = Event::Create(RESETTYPE_ONESHOT, "HID:EventPadOrTouch2");
event_accelerometer = Event::Create(RESETTYPE_ONESHOT, "HID:EventAccelerometer");
event_gyroscope = Event::Create(RESETTYPE_ONESHOT, "HID:EventGyroscope");
event_debug_pad = Event::Create(RESETTYPE_ONESHOT, "HID:EventDebugPad");
}
void Shutdown() {
shared_mem = nullptr;
event_pad_or_touch_1 = nullptr;
event_pad_or_touch_2 = nullptr;
event_accelerometer = nullptr;
event_gyroscope = nullptr;
event_debug_pad = nullptr;
}
} // namespace HID
void Update() {
SharedMem* mem = reinterpret_cast<SharedMem*>(shared_mem->GetPointer());
const PadState state = VideoCore::g_emu_window->GetPadState();
if (mem == nullptr) {
LOG_DEBUG(Service_HID, "Cannot update HID prior to mapping shared memory!");
return;
}
mem->pad.current_state.hex = state.hex;
mem->pad.index = next_pad_index;
next_touch_index = (next_touch_index + 1) % mem->pad.entries.size();
// Get the previous Pad state
u32 last_entry_index = (mem->pad.index - 1) % mem->pad.entries.size();
PadState old_state = mem->pad.entries[last_entry_index].current_state;
// Compute bitmask with 1s for bits different from the old state
PadState changed = { { (state.hex ^ old_state.hex) } };
// Get the current Pad entry
PadDataEntry* pad_entry = &mem->pad.entries[mem->pad.index];
// Update entry properties
pad_entry->current_state.hex = state.hex;
pad_entry->delta_additions.hex = changed.hex & state.hex;
pad_entry->delta_removals.hex = changed.hex & old_state.hex;;
// Set circle Pad
pad_entry->circle_pad_x = state.circle_left ? -MAX_CIRCLEPAD_POS :
state.circle_right ? MAX_CIRCLEPAD_POS : 0x0;
pad_entry->circle_pad_y = state.circle_down ? -MAX_CIRCLEPAD_POS :
state.circle_up ? MAX_CIRCLEPAD_POS : 0x0;
// If we just updated index 0, provide a new timestamp
if (mem->pad.index == 0) {
mem->pad.index_reset_ticks_previous = mem->pad.index_reset_ticks;
mem->pad.index_reset_ticks = (s64)CoreTiming::GetTicks();
}
mem->touch.index = next_touch_index;
next_touch_index = (next_touch_index + 1) % mem->touch.entries.size();
// Get the current touch entry
TouchDataEntry* touch_entry = &mem->touch.entries[mem->touch.index];
bool pressed = false;
std::tie(touch_entry->x, touch_entry->y, pressed) = VideoCore::g_emu_window->GetTouchState();
touch_entry->valid = pressed ? 1 : 0;
// TODO(bunnei): We're not doing anything with offset 0xA8 + 0x18 of HID SharedMemory, which
// supposedly is "Touch-screen entry, which contains the raw coordinate data prior to being
// converted to pixel coordinates." (http://3dbrew.org/wiki/HID_Shared_Memory#Offset_0xA8).
// If we just updated index 0, provide a new timestamp
if (mem->touch.index == 0) {
mem->touch.index_reset_ticks_previous = mem->touch.index_reset_ticks;
mem->touch.index_reset_ticks = (s64)CoreTiming::GetTicks();
}
// Signal both handles when there's an update to Pad or touch
event_pad_or_touch_1->Signal();
event_pad_or_touch_2->Signal();
}
namespace Y2R_U {
struct ConversionParameters {
InputFormat input_format;
OutputFormat output_format;
Rotation rotation;
BlockAlignment block_alignment;
u16 input_line_width;
u16 input_lines;
StandardCoefficient standard_coefficient;
u8 reserved;
u16 alpha;
};
static_assert(sizeof(ConversionParameters) == 12, "ConversionParameters struct has incorrect size");
static Kernel::SharedPtr<Kernel::Event> completion_event;
static ConversionConfiguration conversion;
static const CoefficientSet standard_coefficients[4] = {
{{ 0x100, 0x166, 0xB6, 0x58, 0x1C5, -0x166F, 0x10EE, -0x1C5B }}, // ITU_Rec601
{{ 0x100, 0x193, 0x77, 0x2F, 0x1DB, -0x1933, 0xA7C, -0x1D51 }}, // ITU_Rec709
{{ 0x12A, 0x198, 0xD0, 0x64, 0x204, -0x1BDE, 0x10F2, -0x229B }}, // ITU_Rec601_Scaling
{{ 0x12A, 0x1CA, 0x88, 0x36, 0x21C, -0x1F04, 0x99C, -0x2421 }}, // ITU_Rec709_Scaling
};
ResultCode ConversionConfiguration::SetInputLineWidth(u16 width) {
if (width == 0 || width > 1024 || width % 8 != 0) {
return ResultCode(ErrorDescription::OutOfRange, ErrorModule::CAM,
ErrorSummary::InvalidArgument, ErrorLevel::Usage); // 0xE0E053FD
}
// Note: The hardware uses the register value 0 to represent a width of 1024, so for a width of
// 1024 the `camera` module would set the value 0 here, but we don't need to emulate this
// internal detail.
this->input_line_width = width;
return RESULT_SUCCESS;
}
ResultCode ConversionConfiguration::SetInputLines(u16 lines) {
if (lines == 0 || lines > 1024) {
return ResultCode(ErrorDescription::OutOfRange, ErrorModule::CAM,
ErrorSummary::InvalidArgument, ErrorLevel::Usage); // 0xE0E053FD
}
// Note: In what appears to be a bug, the `camera` module does not set the hardware register at
// all if `lines` is 1024, so the conversion uses the last value that was set. The intention
// was probably to set it to 0 like in SetInputLineWidth.
if (lines != 1024) {
this->input_lines = lines;
}
return RESULT_SUCCESS;
}
ResultCode ConversionConfiguration::SetStandardCoefficient(StandardCoefficient standard_coefficient) {
size_t index = static_cast<size_t>(standard_coefficient);
if (index >= 4) {
return ResultCode(ErrorDescription::InvalidEnumValue, ErrorModule::CAM,
ErrorSummary::InvalidArgument, ErrorLevel::Usage); // 0xE0E053ED
}
std::memcpy(coefficients.data(), standard_coefficients[index].data(), sizeof(coefficients));
return RESULT_SUCCESS;
}
static void SetInputFormat(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
conversion.input_format = static_cast<InputFormat>(cmd_buff[1]);
LOG_DEBUG(Service_Y2R, "called input_format=%hhu", conversion.input_format);
cmd_buff[1] = RESULT_SUCCESS.raw;
}
static void SetOutputFormat(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
conversion.output_format = static_cast<OutputFormat>(cmd_buff[1]);
LOG_DEBUG(Service_Y2R, "called output_format=%hhu", conversion.output_format);
cmd_buff[1] = RESULT_SUCCESS.raw;
}
static void SetRotation(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
conversion.rotation = static_cast<Rotation>(cmd_buff[1]);
LOG_DEBUG(Service_Y2R, "called rotation=%hhu", conversion.rotation);
cmd_buff[1] = RESULT_SUCCESS.raw;
}
static void SetBlockAlignment(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
conversion.block_alignment = static_cast<BlockAlignment>(cmd_buff[1]);
LOG_DEBUG(Service_Y2R, "called alignment=%hhu", conversion.block_alignment);
cmd_buff[1] = RESULT_SUCCESS.raw;
}
static void SetTransferEndInterrupt(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
cmd_buff[0] = 0x000D0040;
cmd_buff[1] = RESULT_SUCCESS.raw;
LOG_DEBUG(Service_Y2R, "(STUBBED) called");
}
/**
* Y2R_U::GetTransferEndEvent service function
* Outputs:
* 1 : Result of function, 0 on success, otherwise error code
* 3 : The handle of the completion event
*/
static void GetTransferEndEvent(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
cmd_buff[1] = RESULT_SUCCESS.raw;
cmd_buff[3] = Kernel::g_handle_table.Create(completion_event).MoveFrom();
LOG_DEBUG(Service_Y2R, "called");
}
static void SetSendingY(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
conversion.src_Y.address = cmd_buff[1];
conversion.src_Y.image_size = cmd_buff[2];
conversion.src_Y.transfer_unit = cmd_buff[3];
conversion.src_Y.gap = cmd_buff[4];
u32 src_process_handle = cmd_buff[6];
LOG_DEBUG(Service_Y2R, "called image_size=0x%08X, transfer_unit=%hu, transfer_stride=%hu, "
"src_process_handle=0x%08X", conversion.src_Y.image_size,
conversion.src_Y.transfer_unit, conversion.src_Y.gap, src_process_handle);
cmd_buff[1] = RESULT_SUCCESS.raw;
}
static void SetSendingU(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
conversion.src_U.address = cmd_buff[1];
conversion.src_U.image_size = cmd_buff[2];
conversion.src_U.transfer_unit = cmd_buff[3];
conversion.src_U.gap = cmd_buff[4];
u32 src_process_handle = cmd_buff[6];
LOG_DEBUG(Service_Y2R, "called image_size=0x%08X, transfer_unit=%hu, transfer_stride=%hu, "
"src_process_handle=0x%08X", conversion.src_U.image_size,
conversion.src_U.transfer_unit, conversion.src_U.gap, src_process_handle);
cmd_buff[1] = RESULT_SUCCESS.raw;
}
static void SetSendingV(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
conversion.src_V.address = cmd_buff[1];
conversion.src_V.image_size = cmd_buff[2];
conversion.src_V.transfer_unit = cmd_buff[3];
conversion.src_V.gap = cmd_buff[4];
u32 src_process_handle = cmd_buff[6];
LOG_DEBUG(Service_Y2R, "called image_size=0x%08X, transfer_unit=%hu, transfer_stride=%hu, "
"src_process_handle=0x%08X", conversion.src_V.image_size,
conversion.src_V.transfer_unit, conversion.src_V.gap, src_process_handle);
cmd_buff[1] = RESULT_SUCCESS.raw;
}
static void SetSendingYUYV(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
conversion.src_YUYV.address = cmd_buff[1];
conversion.src_YUYV.image_size = cmd_buff[2];
conversion.src_YUYV.transfer_unit = cmd_buff[3];
conversion.src_YUYV.gap = cmd_buff[4];
u32 src_process_handle = cmd_buff[6];
LOG_DEBUG(Service_Y2R, "called image_size=0x%08X, transfer_unit=%hu, transfer_stride=%hu, "
"src_process_handle=0x%08X", conversion.src_YUYV.image_size,
conversion.src_YUYV.transfer_unit, conversion.src_YUYV.gap, src_process_handle);
cmd_buff[1] = RESULT_SUCCESS.raw;
}
static void SetReceiving(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
conversion.dst.address = cmd_buff[1];
conversion.dst.image_size = cmd_buff[2];
conversion.dst.transfer_unit = cmd_buff[3];
conversion.dst.gap = cmd_buff[4];
u32 dst_process_handle = cmd_buff[6];
LOG_DEBUG(Service_Y2R, "called image_size=0x%08X, transfer_unit=%hu, transfer_stride=%hu, "
"dst_process_handle=0x%08X", conversion.dst.image_size,
conversion.dst.transfer_unit, conversion.dst.gap,
dst_process_handle);
cmd_buff[1] = RESULT_SUCCESS.raw;
}
static void SetInputLineWidth(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
LOG_DEBUG(Service_Y2R, "called input_line_width=%u", cmd_buff[1]);
cmd_buff[1] = conversion.SetInputLineWidth(cmd_buff[1]).raw;
}
static void SetInputLines(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
LOG_DEBUG(Service_Y2R, "called input_line_number=%u", cmd_buff[1]);
cmd_buff[1] = conversion.SetInputLines(cmd_buff[1]).raw;
}
static void SetCoefficient(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
const u16* coefficients = reinterpret_cast<const u16*>(&cmd_buff[1]);
std::memcpy(conversion.coefficients.data(), coefficients, sizeof(CoefficientSet));
LOG_DEBUG(Service_Y2R, "called coefficients=[%hX, %hX, %hX, %hX, %hX, %hX, %hX, %hX]",
coefficients[0], coefficients[1], coefficients[2], coefficients[3],
coefficients[4], coefficients[5], coefficients[6], coefficients[7]);
cmd_buff[1] = RESULT_SUCCESS.raw;
}
static void SetStandardCoefficient(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
LOG_DEBUG(Service_Y2R, "called standard_coefficient=%u", cmd_buff[1]);
cmd_buff[1] = conversion.SetStandardCoefficient((StandardCoefficient)cmd_buff[1]).raw;
}
static void SetAlpha(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
conversion.alpha = cmd_buff[1];
LOG_DEBUG(Service_Y2R, "called alpha=%hu", conversion.alpha);
cmd_buff[1] = RESULT_SUCCESS.raw;
}
static void StartConversion(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
HW::Y2R::PerformConversion(conversion);
// dst_image_size would seem to be perfect for this, but it doesn't include the gap :(
u32 total_output_size = conversion.input_lines *
(conversion.dst.transfer_unit + conversion.dst.gap);
VideoCore::g_renderer->hw_rasterizer->NotifyFlush(
Memory::VirtualToPhysicalAddress(conversion.dst.address), total_output_size);
LOG_DEBUG(Service_Y2R, "called");
completion_event->Signal();
cmd_buff[1] = RESULT_SUCCESS.raw;
}
static void StopConversion(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
cmd_buff[0] = 0x00270040;
cmd_buff[1] = RESULT_SUCCESS.raw;
LOG_DEBUG(Service_Y2R, "called");
}
/**
* Y2R_U::IsBusyConversion service function
* Outputs:
* 1 : Result of function, 0 on success, otherwise error code
* 2 : 1 if there's a conversion running, otherwise 0.
*/
static void IsBusyConversion(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
cmd_buff[1] = RESULT_SUCCESS.raw;
cmd_buff[2] = 0; // StartConversion always finishes immediately
LOG_DEBUG(Service_Y2R, "called");
}
/**
* Y2R_U::SetConversionParams service function
*/
static void SetConversionParams(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
auto params = reinterpret_cast<const ConversionParameters*>(&cmd_buff[1]);
LOG_DEBUG(Service_Y2R,
"called input_format=%hhu output_format=%hhu rotation=%hhu block_alignment=%hhu "
"input_line_width=%hu input_lines=%hu standard_coefficient=%hhu "
"reserved=%hhu alpha=%hX",
params->input_format, params->output_format, params->rotation, params->block_alignment,
params->input_line_width, params->input_lines, params->standard_coefficient,
params->reserved, params->alpha);
ResultCode result = RESULT_SUCCESS;
conversion.input_format = params->input_format;
conversion.output_format = params->output_format;
conversion.rotation = params->rotation;
conversion.block_alignment = params->block_alignment;
result = conversion.SetInputLineWidth(params->input_line_width);
if (result.IsError()) goto cleanup;
result = conversion.SetInputLines(params->input_lines);
if (result.IsError()) goto cleanup;
result = conversion.SetStandardCoefficient(params->standard_coefficient);
if (result.IsError()) goto cleanup;
conversion.alpha = params->alpha;
cleanup:
cmd_buff[0] = 0x00290040; // TODO verify
cmd_buff[1] = result.raw;
}
static void PingProcess(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
cmd_buff[1] = RESULT_SUCCESS.raw;
cmd_buff[2] = 0;
LOG_WARNING(Service_Y2R, "(STUBBED) called");
}
static void DriverInitialize(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
conversion.input_format = InputFormat::YUV422_Indiv8;
conversion.output_format = OutputFormat::RGBA8;
conversion.rotation = Rotation::None;
conversion.block_alignment = BlockAlignment::Linear;
conversion.coefficients.fill(0);
conversion.SetInputLineWidth(1024);
conversion.SetInputLines(1024);
conversion.alpha = 0;
ConversionBuffer zero_buffer = {};
conversion.src_Y = zero_buffer;
conversion.src_U = zero_buffer;
conversion.src_V = zero_buffer;
conversion.dst = zero_buffer;
completion_event->Clear();
cmd_buff[0] = 0x002B0040;
cmd_buff[1] = RESULT_SUCCESS.raw;
LOG_DEBUG(Service_Y2R, "called");
}
static void DriverFinalize(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
cmd_buff[0] = 0x002C0040;
cmd_buff[1] = RESULT_SUCCESS.raw;
LOG_DEBUG(Service_Y2R, "called");
}
const Interface::FunctionInfo FunctionTable[] = {
{0x00010040, SetInputFormat, "SetInputFormat"},
{0x00030040, SetOutputFormat, "SetOutputFormat"},
{0x00050040, SetRotation, "SetRotation"},
{0x00070040, SetBlockAlignment, "SetBlockAlignment"},
{0x000D0040, SetTransferEndInterrupt, "SetTransferEndInterrupt"},
{0x000F0000, GetTransferEndEvent, "GetTransferEndEvent"},
{0x00100102, SetSendingY, "SetSendingY"},
{0x00110102, SetSendingU, "SetSendingU"},
{0x00120102, SetSendingV, "SetSendingV"},
{0x00130102, SetSendingYUYV, "SetSendingYUYV"},
{0x00180102, SetReceiving, "SetReceiving"},
{0x001A0040, SetInputLineWidth, "SetInputLineWidth"},
{0x001C0040, SetInputLines, "SetInputLines"},
{0x001E0100, SetCoefficient, "SetCoefficient"},
{0x00200040, SetStandardCoefficient, "SetStandardCoefficient"},
{0x00220040, SetAlpha, "SetAlpha"},
{0x00260000, StartConversion, "StartConversion"},
{0x00270000, StopConversion, "StopConversion"},
{0x00280000, IsBusyConversion, "IsBusyConversion"},
{0x002901C0, SetConversionParams, "SetConversionParams"},
{0x002A0000, PingProcess, "PingProcess"},
{0x002B0000, DriverInitialize, "DriverInitialize"},
{0x002C0000, DriverFinalize, "DriverFinalize"},
};
////////////////////////////////////////////////////////////////////////////////////////////////////
// Interface class
Interface::Interface() {
completion_event = Kernel::Event::Create(RESETTYPE_ONESHOT, "Y2R:Completed");
std::memset(&conversion, 0, sizeof(conversion));
Register(FunctionTable);
}
} // namespace
namespace APT {
// Address used for shared font (as observed on HW)
// TODO(bunnei): This is the hard-coded address where we currently dump the shared font from via
// https://github.com/citra-emu/3dsutils. This is technically a hack, and will not work at any
// address other than 0x18000000 due to internal pointers in the shared font dump that would need to
// be relocated. This might be fixed by dumping the shared font @ address 0x00000000 and then
// correctly mapping it in Citra, however we still do not understand how the mapping is determined.
static const VAddr SHARED_FONT_VADDR = 0x18000000;
/// Handle to shared memory region designated to for shared system font
static Kernel::SharedPtr<Kernel::SharedMemory> shared_font_mem;
static Kernel::SharedPtr<Kernel::Mutex> lock;
static Kernel::SharedPtr<Kernel::Event> notification_event; ///< APT notification event
static Kernel::SharedPtr<Kernel::Event> start_event; ///< APT start event
static std::vector<u8> shared_font;
static u32 cpu_percent; ///< CPU time available to the running application
void Initialize(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
u32 app_id = cmd_buff[1];
u32 flags = cmd_buff[2];
cmd_buff[2] = 0x04000000; // According to 3dbrew, this value should be 0x04000000
cmd_buff[3] = Kernel::g_handle_table.Create(notification_event).MoveFrom();
cmd_buff[4] = Kernel::g_handle_table.Create(start_event).MoveFrom();
// TODO(bunnei): Check if these events are cleared every time Initialize is called.
notification_event->Clear();
start_event->Clear();
ASSERT_MSG((nullptr != lock), "Cannot initialize without lock");
lock->Release();
cmd_buff[1] = RESULT_SUCCESS.raw; // No error
LOG_TRACE(Service_APT, "called app_id=0x%08X, flags=0x%08X", app_id, flags);
}
void GetSharedFont(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
if (!shared_font.empty()) {
// TODO(bunnei): This function shouldn't copy the shared font every time it's called.
// Instead, it should probably map the shared font as RO memory. We don't currently have
// an easy way to do this, but the copy should be sufficient for now.
memcpy(Memory::GetPointer(SHARED_FONT_VADDR), shared_font.data(), shared_font.size());
cmd_buff[0] = 0x00440082;
cmd_buff[1] = RESULT_SUCCESS.raw; // No error
cmd_buff[2] = SHARED_FONT_VADDR;
cmd_buff[4] = Kernel::g_handle_table.Create(shared_font_mem).MoveFrom();
} else {
cmd_buff[1] = -1; // Generic error (not really possible to verify this on hardware)
LOG_ERROR(Kernel_SVC, "called, but %s has not been loaded!", SHARED_FONT);
}
}
void NotifyToWait(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
u32 app_id = cmd_buff[1];
// TODO(Subv): Verify this, it seems to get SWKBD and Home Menu further.
start_event->Signal();
cmd_buff[1] = RESULT_SUCCESS.raw; // No error
LOG_WARNING(Service_APT, "(STUBBED) app_id=%u", app_id);
}
void GetLockHandle(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
u32 flags = cmd_buff[1]; // TODO(bunnei): Figure out the purpose of the flag field
cmd_buff[1] = RESULT_SUCCESS.raw; // No error
// Not sure what these parameters are used for, but retail apps check that they are 0 after
// GetLockHandle has been called.
cmd_buff[2] = 0;
cmd_buff[3] = 0;
cmd_buff[4] = 0;
cmd_buff[5] = Kernel::g_handle_table.Create(lock).MoveFrom();
LOG_TRACE(Service_APT, "called handle=0x%08X", cmd_buff[5]);
}
void Enable(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
u32 unk = cmd_buff[1]; // TODO(bunnei): What is this field used for?
cmd_buff[1] = RESULT_SUCCESS.raw; // No error
LOG_WARNING(Service_APT, "(STUBBED) called unk=0x%08X", unk);
}
void GetAppletManInfo(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
u32 unk = cmd_buff[1];
cmd_buff[1] = RESULT_SUCCESS.raw; // No error
cmd_buff[2] = 0;
cmd_buff[3] = 0;
cmd_buff[4] = static_cast<u32>(AppID::HomeMenu); // Home menu AppID
cmd_buff[5] = static_cast<u32>(AppID::Application); // TODO(purpasmart96): Do this correctly
LOG_WARNING(Service_APT, "(STUBBED) called unk=0x%08X", unk);
}
void IsRegistered(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
u32 app_id = cmd_buff[1];
cmd_buff[1] = RESULT_SUCCESS.raw; // No error
cmd_buff[2] = 1; // Set to registered
LOG_WARNING(Service_APT, "(STUBBED) called app_id=0x%08X", app_id);
}
void InquireNotification(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
u32 app_id = cmd_buff[1];
cmd_buff[1] = RESULT_SUCCESS.raw; // No error
cmd_buff[2] = static_cast<u32>(SignalType::None); // Signal type
LOG_WARNING(Service_APT, "(STUBBED) called app_id=0x%08X", app_id);
}
void SendParameter(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
u32 src_app_id = cmd_buff[1];
u32 dst_app_id = cmd_buff[2];
u32 signal_type = cmd_buff[3];
u32 buffer_size = cmd_buff[4];
u32 value = cmd_buff[5];
u32 handle = cmd_buff[6];
u32 size = cmd_buff[7];
u32 in_param_buffer_ptr = cmd_buff[8];
cmd_buff[1] = RESULT_SUCCESS.raw; // No error
LOG_WARNING(Service_APT, "(STUBBED) called src_app_id=0x%08X, dst_app_id=0x%08X, signal_type=0x%08X,"
"buffer_size=0x%08X, value=0x%08X, handle=0x%08X, size=0x%08X, in_param_buffer_ptr=0x%08X",
src_app_id, dst_app_id, signal_type, buffer_size, value, handle, size, in_param_buffer_ptr);
}
void ReceiveParameter(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
u32 app_id = cmd_buff[1];
u32 buffer_size = cmd_buff[2];
cmd_buff[1] = RESULT_SUCCESS.raw; // No error
cmd_buff[2] = 0;
cmd_buff[3] = static_cast<u32>(SignalType::AppJustStarted); // Signal type
cmd_buff[4] = 0x10; // Parameter buffer size (16)
cmd_buff[5] = 0;
cmd_buff[6] = 0;
cmd_buff[7] = 0;
LOG_WARNING(Service_APT, "(STUBBED) called app_id=0x%08X, buffer_size=0x%08X", app_id, buffer_size);
}
void GlanceParameter(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
u32 app_id = cmd_buff[1];
u32 buffer_size = cmd_buff[2];
cmd_buff[1] = RESULT_SUCCESS.raw; // No error
cmd_buff[2] = 0;
cmd_buff[3] = static_cast<u32>(SignalType::AppJustStarted); // Signal type
cmd_buff[4] = 0x10; // Parameter buffer size (16)
cmd_buff[5] = 0;
cmd_buff[6] = 0;
cmd_buff[7] = 0;
LOG_WARNING(Service_APT, "(STUBBED) called app_id=0x%08X, buffer_size=0x%08X", app_id, buffer_size);
}
void CancelParameter(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
u32 flag1 = cmd_buff[1];
u32 unk = cmd_buff[2];
u32 flag2 = cmd_buff[3];
u32 app_id = cmd_buff[4];
cmd_buff[1] = RESULT_SUCCESS.raw; // No error
cmd_buff[2] = 1; // Set to Success
LOG_WARNING(Service_APT, "(STUBBED) called flag1=0x%08X, unk=0x%08X, flag2=0x%08X, app_id=0x%08X",
flag1, unk, flag2, app_id);
}
void PrepareToStartApplication(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
u32 title_info1 = cmd_buff[1];
u32 title_info2 = cmd_buff[2];
u32 title_info3 = cmd_buff[3];
u32 title_info4 = cmd_buff[4];
u32 flags = cmd_buff[5];
cmd_buff[1] = RESULT_SUCCESS.raw; // No error
LOG_WARNING(Service_APT, "(STUBBED) called title_info1=0x%08X, title_info2=0x%08X, title_info3=0x%08X,"
"title_info4=0x%08X, flags=0x%08X", title_info1, title_info2, title_info3, title_info4, flags);
}
void StartApplication(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
u32 buffer1_size = cmd_buff[1];
u32 buffer2_size = cmd_buff[2];
u32 flag = cmd_buff[3];
u32 size1 = cmd_buff[4];
u32 buffer1_ptr = cmd_buff[5];
u32 size2 = cmd_buff[6];
u32 buffer2_ptr = cmd_buff[7];
cmd_buff[1] = RESULT_SUCCESS.raw; // No error
LOG_WARNING(Service_APT, "(STUBBED) called buffer1_size=0x%08X, buffer2_size=0x%08X, flag=0x%08X,"
"size1=0x%08X, buffer1_ptr=0x%08X, size2=0x%08X, buffer2_ptr=0x%08X",
buffer1_size, buffer2_size, flag, size1, buffer1_ptr, size2, buffer2_ptr);
}
void AppletUtility(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
// These are from 3dbrew - I'm not really sure what they're used for.
u32 unk = cmd_buff[1];
u32 buffer1_size = cmd_buff[2];
u32 buffer2_size = cmd_buff[3];
u32 buffer1_addr = cmd_buff[5];
u32 buffer2_addr = cmd_buff[65];
cmd_buff[1] = RESULT_SUCCESS.raw; // No error
LOG_WARNING(Service_APT, "(STUBBED) called unk=0x%08X, buffer1_size=0x%08X, buffer2_size=0x%08X, "
"buffer1_addr=0x%08X, buffer2_addr=0x%08X", unk, buffer1_size, buffer2_size,
buffer1_addr, buffer2_addr);
}
void SetAppCpuTimeLimit(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
u32 value = cmd_buff[1];
cpu_percent = cmd_buff[2];
if (value != 1) {
LOG_ERROR(Service_APT, "This value should be one, but is actually %u!", value);
}
cmd_buff[1] = RESULT_SUCCESS.raw; // No error
LOG_WARNING(Service_APT, "(STUBBED) called cpu_percent=%u, value=%u", cpu_percent, value);
}
void GetAppCpuTimeLimit(Service::Interface* self) {
u32* cmd_buff = Kernel::GetCommandBuffer();
u32 value = cmd_buff[1];
if (value != 1) {
LOG_ERROR(Service_APT, "This value should be one, but is actually %u!", value);
}
cmd_buff[1] = RESULT_SUCCESS.raw; // No error
cmd_buff[2] = cpu_percent;
LOG_WARNING(Service_APT, "(STUBBED) called value=%u", value);
}
void Init() {
AddService(new APT_A_Interface);
AddService(new APT_S_Interface);
AddService(new APT_U_Interface);
// Load the shared system font (if available).
// The expected format is a decrypted, uncompressed BCFNT file with the 0x80 byte header
// generated by the APT:U service. The best way to get is by dumping it from RAM. We've provided
// a homebrew app to do this: https://github.com/citra-emu/3dsutils. Put the resulting file
// "shared_font.bin" in the Citra "sysdata" directory.
shared_font.clear();
std::string filepath = FileUtil::GetUserPath(D_SYSDATA_IDX) + SHARED_FONT;
FileUtil::CreateFullPath(filepath); // Create path if not already created
FileUtil::IOFile file(filepath, "rb");
if (file.IsOpen()) {
// Read shared font data
shared_font.resize((size_t)file.GetSize());
file.ReadBytes(shared_font.data(), (size_t)file.GetSize());
// Create shared font memory object
using Kernel::MemoryPermission;
shared_font_mem = Kernel::SharedMemory::Create(3 * 1024 * 1024, // 3MB
MemoryPermission::ReadWrite, MemoryPermission::Read, "APT_U:shared_font_mem");
} else {
LOG_WARNING(Service_APT, "Unable to load shared font: %s", filepath.c_str());
shared_font_mem = nullptr;
}
lock = Kernel::Mutex::Create(false, "APT_U:Lock");
cpu_percent = 0;
// TODO(bunnei): Check if these are created in Initialize or on APT process startup.
notification_event = Kernel::Event::Create(RESETTYPE_ONESHOT, "APT_U:Notification");
start_event = Kernel::Event::Create(RESETTYPE_ONESHOT, "APT_U:Start");
}
void Shutdown() {
shared_font.clear();
shared_font_mem = nullptr;
lock = nullptr;
notification_event = nullptr;
start_event = nullptr;
}
} // namespace APT