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KytyPS5/src/graphics/guest_gpu/graphicsRun.cpp

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#include "graphics/guest_gpu/graphicsRun.h"
#include "common/assert.h"
#include "common/emulatorConfig.h"
#include "common/logging/log.h"
#include "common/profiler.h"
#include "common/stringUtils.h"
#include "common/threads.h"
#include "graphics/guest_gpu/command_processor/commandProcessor.h"
#include "graphics/guest_gpu/command_processor/pm4Dispatch.h"
#include "graphics/guest_gpu/hardwareContext.h"
#include "graphics/guest_gpu/pm4.h"
#include "graphics/host_gpu/renderer/render.h"
#include "graphics/host_gpu/renderer/renderContext.h"
#include "graphics/host_gpu/renderer/sync.h"
#include "graphics/presentation/videoOut.h"
#include "graphics/presentation/window.h"
#include "graphics/shader/shader.h"
#include "kernel/memory.h"
#include "libs/agc.h"
#include "libs/errno.h"
#include <algorithm>
#include <array>
#include <atomic>
#include <cstdio>
#include <deque>
#include <memory>
#include <mutex>
#include <semaphore>
#include <thread>
#include <vector>
namespace Libs::Graphics {
static thread_local CommandProcessor* g_current_processor = nullptr;
static thread_local Pm4Execution* g_current_execution = nullptr;
static thread_local bool g_gpu_thread = false;
static thread_local GuestGpu* g_gpu_state = nullptr;
struct DrawIndirectArgs {
uint32_t vertex_count_per_instance;
uint32_t instance_count;
uint32_t start_vertex_location;
uint32_t start_instance_location;
};
struct DrawIndexedIndirectArgs {
uint32_t index_count_per_instance;
uint32_t instance_count;
uint32_t start_index_location;
uint32_t base_vertex_location;
uint32_t start_instance_location;
};
static bool GraphicsRunDebugDumpEnabled() {
return Config::GraphicsDebugDumpEnabled() &&
Config::GetPrintfDirection() != Config::LogDirection::Silent;
}
GuestGpu::GuestGpu(RenderContext& renderer): m_renderer(renderer) {
EXIT_NOT_IMPLEMENTED(!Common::Thread::IsMainThread());
GraphicsInitJmpTables();
m_gfx_cp = std::make_unique<CommandProcessor>(renderer, 0);
m_gfx_cp->Reset();
m_thread = std::jthread(ThreadRun, this);
}
GuestGpu::~GuestGpu() {
Shutdown();
}
void GuestGpu::Shutdown() {
std::lock_guard shutdown_lock(m_shutdown_mutex);
if (m_shutdown_complete) {
return;
}
{
Common::LockGuard lock(m_queue_mutex);
m_accepting = false;
m_stopping = true;
m_work_available.SignalAll();
}
if (m_thread.joinable()) {
m_thread.join();
}
m_shutdown_complete = true;
}
bool GuestGpu::IsStopping() {
Common::LockGuard lock(m_queue_mutex);
return m_stopping;
}
void GuestGpu::SendCommand(Common::UniqueFunction<void>&& command) {
EXIT_IF(!command);
if (IsGpuThread()) {
command();
return;
}
Common::LockGuard lock(m_queue_mutex);
EXIT_IF(!m_accepting);
m_commands.push_back(std::move(command));
m_pending_commands.fetch_add(1, std::memory_order_release);
m_work_available.Signal();
}
void GuestGpu::ProcessCommands() {
EXIT_IF(!IsGpuThread());
while (m_pending_commands.load(std::memory_order_acquire) != 0) {
Common::UniqueFunction<void> command;
{
Common::LockGuard lock(m_queue_mutex);
EXIT_IF(m_commands.empty());
command = std::move(m_commands.front());
m_commands.pop_front();
EXIT_IF(m_pending_commands.fetch_sub(1, std::memory_order_acq_rel) == 0);
}
command();
}
}
void GuestGpu::SendCommandSync(Common::UniqueFunction<void>&& command) {
EXIT_IF(!command);
if (IsGpuThread()) {
command();
return;
}
std::binary_semaphore done {0};
SendCommand([operation = std::move(command), &done]() mutable {
operation();
done.release();
});
done.acquire();
}
void GuestGpu::Submit(std::span<const uint32_t> draw_commands,
std::span<const uint32_t> constant_commands) {
if (draw_commands.empty()) {
return;
}
Submission submission;
submission.type = SubmissionType::Graphics;
submission.queue_id = 0;
submission.commands = draw_commands;
submission.constant_commands = constant_commands;
Enqueue(std::move(submission));
}
void GuestGpu::SubmitCompute(uint32_t queue, std::span<const uint32_t> commands) {
EXIT_IF(commands.empty());
EXIT_NOT_IMPLEMENTED(queue < ComputeQueueBase || queue >= ComputeQueueBase + ComputeQueueCount);
const auto compute_queue = queue - ComputeQueueBase;
Submission submission;
submission.type = SubmissionType::Compute;
submission.queue_id = 1 + compute_queue;
submission.commands = commands;
Enqueue(std::move(submission));
}
void GuestGpu::SubmitFlipPreparation(uint64_t request_id) {
Submission submission;
submission.type = SubmissionType::FlipPreparation;
submission.queue_id = 0;
submission.flip_request_id = request_id;
Enqueue(std::move(submission));
}
void GuestGpu::SuspendPoint() {
EXIT_IF(IsGpuThread() || CommandScheduler::InDeferredOperation());
// Do not hold a queue lock while waiting: asynchronous work may be needed to
// finish the preceding graphics frame. The first point returns immediately.
m_suspend_point_ready->acquire();
Submission submission;
submission.type = SubmissionType::SuspendPoint;
Enqueue(std::move(submission));
m_done_num++;
}
int GuestGpu::GetFrameNum() const {
return m_done_num;
}
CommandProcessor& GuestGpu::GetProcessor(uint32_t queue_id) {
EXIT_IF(queue_id >= QueueCount);
if (queue_id == 0) {
return *m_gfx_cp;
}
auto& processor = m_compute_cp[queue_id - 1];
if (processor == nullptr) {
processor = std::make_unique<CommandProcessor>(m_renderer, ComputeQueueBase + queue_id - 1);
}
return *processor;
}
void CommandProcessor::Reset() {
m_sh_ctx.Reset();
m_ucfg.Reset();
m_ctx.Reset();
m_saved_ctx.Reset();
m_context_state_pushed = false;
m_index_type_and_size = 0;
m_index_buffer_size = 0;
m_index_base_addr = 0;
m_num_instances = 1;
m_predicate_skip = false;
m_user_data_marker = HW::UserSgprType::Unknown;
m_draw_indirect_args_base_addr = 0;
m_dispatch_indirect_args_base_addr = 0;
std::memset(m_const_ram, 0, sizeof(m_const_ram));
}
void CommandProcessor::ApplyContextStateOperation(ContextStateOperation operation) {
switch (operation) {
case ContextStateOperation::Clear: m_ctx.Reset(); break;
case ContextStateOperation::Push:
EXIT_IF(m_context_state_pushed);
m_saved_ctx = m_ctx;
m_context_state_pushed = true;
break;
case ContextStateOperation::Pop:
EXIT_IF(!m_context_state_pushed);
m_ctx = m_saved_ctx;
m_saved_ctx = {};
m_context_state_pushed = false;
break;
case ContextStateOperation::PushClear:
EXIT_IF(m_context_state_pushed);
m_saved_ctx = m_ctx;
m_context_state_pushed = true;
m_ctx.Reset();
break;
default: EXIT("unknown context state operation: %u\n", static_cast<uint32_t>(operation));
}
}
void CommandProcessor::BufferInit() {
GetScheduler().Begin(m_ctx, m_ucfg, m_sh_ctx);
}
void CommandProcessor::BufferFlush() {
GetScheduler().Flush();
}
void CommandProcessor::BufferWait() {
BufferInit();
GetScheduler().Finish();
}
void CommandProcessor::ResetDeCe() {
m_de_count = 0;
m_ce_count = 0;
m_ce_complete = false;
}
void CommandProcessor::WaitCe() {
if (m_ce_count <= m_de_count && !m_ce_complete) {
SuspendPm4();
}
}
void CommandProcessor::WaitDeDiff(uint32_t diff) {
EXIT_IF(m_de_count > m_ce_count);
if (m_ce_count - m_de_count >= diff) {
SuspendPm4();
}
}
void CommandProcessor::WaitForRewind(bool valid) {
if (!valid) {
SuspendPm4();
}
}
void CommandProcessor::IncrementDe() {
m_de_count++;
}
void CommandProcessor::IncrementCe() {
m_ce_count++;
}
void CommandProcessor::WriteConstRam(uint32_t offset, const uint32_t* src, uint32_t dw_num) {
memcpy(m_const_ram + offset / 4, src, static_cast<size_t>(dw_num) * 4);
}
void CommandProcessor::DumpConstRam(uint32_t* dst, uint32_t offset, uint32_t dw_num) {
memcpy(dst, m_const_ram + offset / 4, static_cast<size_t>(dw_num) * 4);
}
bool TestWaitRegMemValue(uint64_t value, uint64_t ref, uint64_t mask, uint32_t func) {
switch (func) {
case 0: return true;
case 1: return (value & mask) < ref;
case 2: return (value & mask) <= ref;
case 3: return (value & mask) == ref;
case 4: return (value & mask) != ref;
case 5: return (value & mask) >= ref;
case 6: return (value & mask) > ref;
default: EXIT("unknown wait compare function: %" PRIu32 "\n", func);
}
return false;
}
template <typename T>
void CommandProcessor::WaitRegMem(uint32_t func, const T* addr, T ref, T mask, uint32_t poll,
uint32_t wait_op) {
EXIT_IF(addr == nullptr);
if ((wait_op & ~1u) != 0) {
EXIT("unsupported wait_reg_mem operation: 0x%08" PRIx32 "\n", wait_op);
}
(void)poll;
if (!TestWaitRegMemValue(*addr, ref, mask, func)) {
SuspendPm4();
}
}
template void CommandProcessor::WaitRegMem<uint32_t>(uint32_t, const uint32_t*, uint32_t, uint32_t,
uint32_t, uint32_t);
template void CommandProcessor::WaitRegMem<uint64_t>(uint32_t, const uint64_t*, uint64_t, uint64_t,
uint32_t, uint32_t);
void CommandProcessor::WriteData(uint32_t* dst, const uint32_t* src, uint32_t dw_num,
uint32_t write_control) {
const uint32_t dst_sel = ((write_control >> 30u) & 0x1u) | ((write_control >> 7u) & 0x1eu);
const bool write_one_address = ((write_control >> 16u) & 0x1u) != 0;
switch (dst_sel) {
case 0:
case 2:
case 4:
case 5:
case 6: break;
default: EXIT("unsupported writeData destination selector 0x%02" PRIx32 "\n", dst_sel);
}
if (dw_num == 0) {
return;
}
if (write_one_address) {
for (uint32_t i = 0; i < dw_num; i++) {
dst[0] = src[i];
}
} else {
memcpy(dst, src, static_cast<size_t>(dw_num) * sizeof(uint32_t));
}
}
void CommandProcessor::WriteReferenceClock(uint64_t dst_address, uint32_t num_bytes) {
if (dst_address == 0 || (num_bytes != sizeof(uint32_t) && num_bytes != sizeof(uint64_t)) ||
(dst_address & (num_bytes - 1u)) != 0) {
EXIT("invalid reference-clock copy, dst=0x%016" PRIx64 " size=%u\n", dst_address,
num_bytes);
}
const auto value = Sync::ReadReferenceClock();
std::memcpy(reinterpret_cast<void*>(dst_address), &value, num_bytes);
static std::atomic<uint32_t> clock_log_count {0};
if (clock_log_count.fetch_add(1) < 64) {
LOGF("\t copy_data reference clock: dst=0x%016" PRIx64 " value=0x%016" PRIx64
" size=%u\n",
dst_address, value, num_bytes);
}
}
void CommandProcessor::DmaData(uint8_t engine, uint8_t dst_sel, uint8_t dst_cache_policy,
uint64_t dst_address_or_offset, uint8_t src_sel,
uint8_t src_cache_policy,
uint64_t src_address_or_offset_or_immediate, uint32_t num_bytes,
uint8_t wait_for_previous, uint8_t write_confirm,
uint8_t block_engine) {
EXIT_NOT_IMPLEMENTED(engine > 1);
if (num_bytes == 0) {
return;
}
EXIT_NOT_IMPLEMENTED(dst_cache_policy > 3);
EXIT_NOT_IMPLEMENTED(src_cache_policy > 3);
EXIT_NOT_IMPLEMENTED(wait_for_previous > 1);
EXIT_NOT_IMPLEMENTED(write_confirm > 1);
EXIT_NOT_IMPLEMENTED(block_engine > 1);
if (static_cast<uint32_t>(dst_address_or_offset) == 0x3022cu) {
return;
}
auto decode_gds = [](uint8_t selector, bool& is_gds) {
switch (selector) {
case 0:
case 3: is_gds = false; return true;
case 1: is_gds = true; return true;
default: return false;
}
};
if (dst_sel == 2) {
// kNowhere discards the GL2 prefetch destination without a guest-visible write.
if (src_sel != 3) {
EXIT("unsupported dmaData nowhere source selector 0x%02" PRIx8 "\n", src_sel);
}
return;
}
bool dst_gds = false;
if (!decode_gds(dst_sel, dst_gds)) {
EXIT("unsupported dmaData destination selector 0x%02" PRIx8 "\n", dst_sel);
}
auto& buffer_cache = m_renderer.GetBufferCache();
if (src_sel == 2) {
buffer_cache.FillBuffer(
dst_address_or_offset, num_bytes,
static_cast<uint32_t>(src_address_or_offset_or_immediate & 0xffffffffu), dst_gds);
return;
}
bool src_gds = false;
if (!decode_gds(src_sel, src_gds)) {
EXIT("unsupported dmaData source selector 0x%02" PRIx8 "\n", src_sel);
}
if (src_gds && dst_gds) {
EXIT("unsupported dmaData GDS-to-GDS copy\n");
}
buffer_cache.CopyBuffer(dst_address_or_offset, src_address_or_offset_or_immediate, num_bytes,
dst_gds, src_gds);
}
void GuestGpu::Enqueue(Submission submission) {
EXIT_IF(submission.queue_id >= QueueCount);
Common::LockGuard lock(m_queue_mutex);
EXIT_IF(!m_accepting);
m_queues[submission.queue_id].push_back(std::move(submission));
m_submission_count++;
m_work_available.Signal();
}
void GuestGpu::WaitForIdle() {
EXIT_IF(IsGpuThread() || CommandScheduler::InDeferredOperation());
Common::LockGuard lock(m_queue_mutex);
while (m_processing || !m_commands.empty() || m_submission_count != 0) {
m_idle.Wait(&m_queue_mutex);
}
}
void GuestGpu::ThreadRun(void* data) {
auto* gpu = static_cast<GuestGpu*>(data);
EXIT_IF(gpu == nullptr);
KYTY_PROFILER_THREAD("Thread_Gpu");
g_gpu_thread = true;
g_gpu_state = gpu;
for (;;) {
Submission submission;
Common::UniqueFunction<void> command;
bool has_submission = false;
bool should_stop = false;
{
Common::LockGuard lock(gpu->m_queue_mutex);
while (gpu->m_commands.empty() && gpu->m_submission_count == 0 && !gpu->m_stopping) {
gpu->m_processing = false;
gpu->m_idle.Signal();
gpu->m_work_available.Wait(&gpu->m_queue_mutex);
}
if (gpu->m_stopping && gpu->m_commands.empty() && gpu->m_submission_count == 0) {
gpu->m_processing = false;
gpu->m_idle.SignalAll();
should_stop = true;
} else if (!gpu->m_commands.empty()) {
command = std::move(gpu->m_commands.front());
gpu->m_commands.pop_front();
EXIT_IF(gpu->m_pending_commands.fetch_sub(1, std::memory_order_acq_rel) == 0);
gpu->m_processing = true;
} else {
int selected_queue = -1;
for (uint32_t offset = 0; offset < QueueCount; offset++) {
const auto id = (gpu->m_next_queue + offset) % QueueCount;
if (!gpu->m_queues[id].empty() && !gpu->m_queues[id].front().blocked) {
selected_queue = static_cast<int>(id);
break;
}
}
if (selected_queue < 0) {
gpu->m_processing = false;
gpu->m_work_available.WaitFor(&gpu->m_queue_mutex, 100);
for (auto& queue: gpu->m_queues) {
if (!queue.empty()) {
queue.front().blocked = false;
}
}
continue;
}
auto& queue = gpu->m_queues[static_cast<uint32_t>(selected_queue)];
submission = std::move(queue.front());
queue.pop_front();
gpu->m_submission_count--;
gpu->m_next_queue = (static_cast<uint32_t>(selected_queue) + 1) % QueueCount;
gpu->m_processing = true;
has_submission = true;
}
}
if (should_stop) {
gpu->m_gfx_cp->BufferWait();
g_gpu_state = nullptr;
g_gpu_thread = false;
return;
}
if (command) {
EXIT_IF(g_current_processor != nullptr);
command();
Common::LockGuard lock(gpu->m_queue_mutex);
gpu->m_processing = false;
if (gpu->m_commands.empty() && gpu->m_submission_count == 0) {
gpu->m_idle.SignalAll();
}
continue;
}
EXIT_IF(!has_submission);
const bool complete = gpu->Process(submission);
Common::LockGuard lock(gpu->m_queue_mutex);
if (!complete) {
submission.blocked = true;
gpu->m_queues[submission.queue_id].push_front(std::move(submission));
gpu->m_submission_count++;
} else {
for (auto& queue: gpu->m_queues) {
if (!queue.empty()) {
queue.front().blocked = false;
}
}
}
gpu->m_processing = false;
if (gpu->m_commands.empty() && gpu->m_submission_count == 0) {
gpu->m_idle.SignalAll();
}
}
}
bool GuestGpu::Process(Submission& submission) {
const bool first_slice = !submission.started;
auto& cp = GetProcessor(submission.queue_id);
if (first_slice) {
submission.started = true;
cp.SetSubmitId(++m_submit_id);
cp.ResetDeCe();
cp.SetFlip({});
}
cp.BufferInit();
bool complete = true;
switch (submission.type) {
case SubmissionType::Graphics: {
bool progressed = false;
submission.constant_complete |= submission.constant_commands.empty();
for (;;) {
bool round_progress = false;
if (!submission.constant_complete) {
submission.constant_complete =
cp.Process(submission.constant_execution, submission.constant_commands) ==
Pm4ProcessResult::Complete;
round_progress |= submission.constant_execution.MadeProgress();
}
cp.SetCeComplete(submission.constant_complete);
if (!submission.command_complete) {
submission.command_complete =
cp.Process(submission.command_execution, submission.commands) ==
Pm4ProcessResult::Complete;
round_progress |= submission.command_execution.MadeProgress();
}
progressed |= round_progress;
complete = submission.command_complete && submission.constant_complete;
if (complete || !round_progress) {
break;
}
}
if (progressed) {
if (complete) {
m_renderer.RunGarbageCollector();
}
cp.BufferFlush();
} else if (complete) {
m_renderer.RunGarbageCollector();
}
break;
}
case SubmissionType::Compute: {
const auto num_dw = static_cast<uint32_t>(submission.commands.size());
const auto* buffer = submission.commands.data();
static uint32_t compute_batch_log_count = 0;
if (first_slice && num_dw <= 128 && compute_batch_log_count++ < 32) {
LOGF("compute direct batch: data=0x%016" PRIx64 ", num_dw=%" PRIu32 "\n",
reinterpret_cast<uint64_t>(buffer), num_dw);
for (uint32_t i = 0; i < std::min<uint32_t>(num_dw, 16); i++) {
LOGF("\t compute[%02" PRIu32 "] = 0x%08" PRIx32 "\n", i, buffer[i]);
}
}
if (first_slice) {
GraphicsDbgDumpDcb("cc", num_dw, buffer);
}
complete = cp.Process(submission.command_execution, submission.commands) ==
Pm4ProcessResult::Complete;
if (submission.command_execution.MadeProgress()) {
if (complete) {
m_renderer.RunGarbageCollector();
}
cp.BufferFlush();
} else if (complete) {
m_renderer.RunGarbageCollector();
}
break;
}
case SubmissionType::FlipPreparation:
m_renderer.RunGarbageCollector();
cp.PrepareCpuFlip(submission.flip_request_id);
break;
case SubmissionType::SuspendPoint:
cp.EmitGlobalBarrier();
m_renderer.GetCommandScheduler().DeferPriorityOperation(
[ready = m_suspend_point_ready] { ready->release(); });
cp.BufferFlush();
cp.Reset();
break;
}
return complete;
}
Pm4ProcessResult CommandProcessor::Process(Pm4Execution& execution,
std::span<const uint32_t> commands) {
KYTY_PROFILER_BLOCK("CommandProcessor::Process");
EXIT_IF(g_current_execution != nullptr);
EXIT_IF(commands.size() > UINT32_MAX);
if (execution.m_buffer_stack.empty() && !commands.empty()) {
execution.m_buffer_stack.push_back({commands});
}
execution.m_suspended = false;
execution.m_made_progress = false;
struct ExecutionScope {
ExecutionScope(CommandProcessor& processor, Pm4Execution& execution)
: previous_processor(g_current_processor), previous_execution(g_current_execution) {
g_current_processor = &processor;
g_current_execution = &execution;
}
~ExecutionScope() {
g_current_processor = previous_processor;
g_current_execution = previous_execution;
}
CommandProcessor* previous_processor;
Pm4Execution* previous_execution;
} execution_scope(*this, execution);
ProcessPm4(execution);
return execution.m_buffer_stack.empty() ? Pm4ProcessResult::Complete
: Pm4ProcessResult::Blocked;
}
void CommandProcessor::ProcessIndirectBuffer(std::span<const uint32_t> commands, bool chain) {
EXIT_IF(g_current_execution == nullptr);
EXIT_IF(!g_current_execution->m_next_buffer.empty());
g_current_execution->m_next_buffer = commands;
g_current_execution->m_chain = chain;
}
void CommandProcessor::SuspendPm4() {
EXIT_IF(g_current_execution == nullptr);
g_current_execution->m_suspended = true;
}
void CommandProcessor::ProcessPm4(Pm4Execution& execution) {
while (!execution.m_buffer_stack.empty()) {
if (g_gpu_state != nullptr) {
g_gpu_state->ProcessCommands();
}
auto& cursor = execution.m_buffer_stack.back();
EXIT_IF(cursor.offset_dw > cursor.commands.size());
if (cursor.offset_dw == cursor.commands.size()) {
execution.m_buffer_stack.pop_back();
continue;
}
const auto* const packet = cursor.commands.data() + cursor.offset_dw;
const auto total_dw = static_cast<uint32_t>(cursor.commands.size());
const auto remaining_dw = total_dw - cursor.offset_dw;
const auto packet_header = packet[0];
const auto opcode = (packet_header >> 8u) & 0xffu;
EXIT_NOT_IMPLEMENTED(remaining_dw > total_dw);
if (packet_header == 0x80000000u) {
cursor.offset_dw++;
execution.m_made_progress = true;
continue;
}
EXIT_NOT_IMPLEMENTED(remaining_dw < 2);
if (GraphicsRunDebugDumpEnabled()) {
LOGF("CP packet: offset=0x%05" PRIx32 " cmd_id=0x%08" PRIx32 " op=0x%02" PRIx32
" len=%" PRIu32 "\n",
total_dw - remaining_dw, packet_header, opcode, KYTY_PM4_LEN(packet_header));
}
if ((packet_header & 1u) != 0 && ShouldSkipPredicatedPackets()) {
auto packet_dw = KYTY_PM4_LEN(packet_header);
EXIT_NOT_IMPLEMENTED(packet_dw == 0 || packet_dw > remaining_dw);
static std::atomic<uint32_t> skip_log_count {0};
if (skip_log_count.fetch_add(1) < 2048) {
LOGF("\t predicated skip: op=0x%02" PRIx32 ", r=0x%02" PRIx32 ", len=%" PRIu32
", packet=0x%016" PRIx64 ", cmd_id=0x%08" PRIx32 "\n",
opcode, KYTY_PM4_R(packet_header), packet_dw,
reinterpret_cast<uint64_t>(packet), packet_header);
}
if (opcode == Pm4::IT_NOP && KYTY_PM4_R(packet_header) == Pm4::R_RELEASE_MEM &&
packet_dw >= 7) {
static std::atomic<uint32_t> log_count {0};
if (log_count.fetch_add(1) < 128) {
const auto dst = packet[3] | (static_cast<uint64_t>(packet[4]) << 32u);
const auto val = packet[5] | (static_cast<uint64_t>(packet[6]) << 32u);
LOGF("\t predicated skip: R_RELEASE_MEM dst=0x%016" PRIx64
", value=0x%016" PRIx64 ", action=0x%08" PRIx32
", gcr/data/int=0x%08" PRIx32 "\n",
dst, val, packet[1], packet[2]);
}
}
cursor.offset_dw += packet_dw;
execution.m_made_progress = true;
continue;
}
auto handler = g_cp_op_func[opcode];
if (handler == nullptr) {
const auto offset = total_dw - remaining_dw;
LOGF("unknown PM4 packet: data=0x%016" PRIx64 ", num_dw=%" PRIu32
", offset=0x%05" PRIx32 ", current=0x%016" PRIx64 "\n",
reinterpret_cast<uint64_t>(packet - offset), total_dw, offset,
reinterpret_cast<uint64_t>(packet));
const auto dump_begin = (offset > 8 ? offset - 8 : 0);
const auto dump_end = std::min<uint32_t>(total_dw, offset + 16);
auto* const base = packet - offset;
for (uint32_t i = dump_begin; i < dump_end; i++) {
LOGF("\t%05" PRIx32 "%s %08" PRIx32 "\n", i, (i == offset ? ":" : " "), base[i]);
}
EXIT("unknown op\n\t%05" PRIx32 ":\n\tcmd_id = %08" PRIx32 "\n",
total_dw - remaining_dw, packet_header);
}
const auto packet_dw =
handler(*this, packet_header & ~1u, packet + 1, remaining_dw, total_dw) + 1;
EXIT_IF(packet_dw > remaining_dw);
if (execution.m_suspended) {
return;
}
cursor.offset_dw += packet_dw;
execution.m_made_progress = true;
if (!execution.m_next_buffer.empty()) {
// Chains and taken branches reuse the fetcher; only calls retain a return cursor.
if (execution.m_chain) {
cursor = {execution.m_next_buffer};
} else {
execution.m_buffer_stack.push_back({execution.m_next_buffer});
}
execution.m_next_buffer = {};
}
}
}
void CommandProcessor::SetIndexType(uint32_t index_type_and_size) {
m_index_type_and_size = index_type_and_size & 0x3u;
}
void CommandProcessor::SetIndexBaseAddress(uint64_t index_base_addr) {
m_index_base_addr = index_base_addr;
}
void CommandProcessor::SetIndexBufferSize(uint32_t index_buffer_size) {
m_index_buffer_size = index_buffer_size;
}
void CommandProcessor::SetDrawIndirectArgsBaseAddress(uint64_t draw_indirect_args_base_addr) {
m_draw_indirect_args_base_addr = draw_indirect_args_base_addr;
}
void CommandProcessor::SetDispatchIndirectArgsBaseAddress(
uint64_t dispatch_indirect_args_base_addr) {
m_dispatch_indirect_args_base_addr = dispatch_indirect_args_base_addr;
}
void CommandProcessor::SetNumInstances(uint32_t num_instances) {
if (num_instances == 0) {
num_instances = 1;
}
m_num_instances = num_instances;
}
void CommandProcessor::SetPredication(uint32_t condition, uint32_t op, uint32_t wait_op,
const volatile void* address, uint32_t count_in_dwords) {
(void)count_in_dwords;
uint64_t value = 0;
switch (op) {
case 0x00:
m_predicate_skip = false;
return;
case 0x01: {
EXIT_NOT_IMPLEMENTED(address == nullptr);
// One begin/end pair per DB; bit 63 marks each counter ready.
constexpr uint64_t ready_bit = 1ull << 63u;
const auto* results = reinterpret_cast<const volatile uint64_t*>(address);
for (uint32_t db = 0; db < 16u; db++) {
const auto begin = results[db * 2u];
const auto end = results[db * 2u + 1u];
if ((begin & end & ready_bit) == 0) {
if (wait_op == 0) {
SuspendPm4();
} else {
m_predicate_skip = false;
}
return;
}
value += end - begin;
}
} break;
case 0x03:
// The wait selector applies only to Z-pass query readiness.
EXIT_NOT_IMPLEMENTED(address == nullptr);
value = *reinterpret_cast<const volatile uint64_t*>(address);
break;
default: EXIT("unknown predication op: 0x%08" PRIx32 "\n", op);
}
switch (condition) {
case 0x00: m_predicate_skip = (value != 0); break;
case 0x01: m_predicate_skip = (value == 0); break;
default: EXIT("unknown predication condition: 0x%08" PRIx32 "\n", condition);
}
if (op == 0x03) {
static std::atomic<uint32_t> log_count {0};
if (log_count.fetch_add(1) < 128) {
LOGF("\t bool predication: addr=0x%016" PRIx64 ", value=0x%016" PRIx64
", condition=%" PRIu32 ", skip=%u, wait_op=%" PRIu32 "\n",
reinterpret_cast<uint64_t>(address), value, condition,
m_predicate_skip ? 1u : 0u, wait_op);
}
}
}
void CommandProcessor::DrawIndex(DrawIndexArgs args) {
args.index_type_and_size = m_index_type_and_size;
if (args.instance_count == 0) {
args.instance_count = m_num_instances;
}
if (GraphicsRunDebugDumpEnabled() && (args.base_vertex != 0 || args.first_instance != 0)) {
LOGF("\t draw indexed offsets: base_vertex = %" PRId32 ", first_instance = %" PRIu32 "\n",
args.base_vertex, args.first_instance);
}
m_renderer.GetRenderExecutor().DrawIndex(m_submit_id, CurrentBuffer(), args);
}
void CommandProcessor::DrawIndexOffset(uint32_t index_offset, uint32_t index_count) {
uint64_t index_size = 0;
switch (m_index_type_and_size) {
case 0: index_size = 2; break;
case 1: index_size = 4; break;
case 2: index_size = 1; break;
default: EXIT("unknown index_type_and_size: %u\n", m_index_type_and_size);
}
auto* index_addr = reinterpret_cast<const void*>(
m_index_base_addr + static_cast<uint64_t>(index_offset) * index_size);
DrawIndex({.index_count = index_count, .index_addr = index_addr});
}
static void PatchIndirectDrawOffsets(CommandProcessor& cp, IndirectDrawRegisters registers,
uint32_t vertex_offset, uint32_t instance_offset,
uint32_t first_index) {
const auto write = [&](uint32_t location, uint32_t value) {
if (location == Pm4::SH_NOP) {
return;
}
EXIT_NOT_IMPLEMENTED(location >= Pm4::SH_NUM ||
g_hw_sh_indirect_func[location] == nullptr);
g_hw_sh_indirect_func[location](cp, location, value);
};
write(registers.vertex_offset, vertex_offset);
write(registers.instance_offset, instance_offset);
write(registers.index_offset, first_index);
}
void CommandProcessor::DrawIndirect(uint32_t data_offset, IndirectDrawRegisters registers,
uint32_t draw_initiator, bool indexed) {
const auto args_size = indexed ? sizeof(DrawIndexedIndirectArgs) : sizeof(DrawIndirectArgs);
DrawIndirectMulti(data_offset, 1, nullptr, args_size, registers, draw_initiator, indexed);
}
void CommandProcessor::DrawIndirectMulti(uint32_t data_offset, uint32_t max_count_or_count,
const volatile uint32_t* count_addr,
uint32_t stride_in_bytes, IndirectDrawRegisters registers,
uint32_t draw_initiator, bool indexed) {
EXIT_NOT_IMPLEMENTED((draw_initiator & ~0x20u) != (indexed ? 0u : 2u));
EXIT_NOT_IMPLEMENTED(m_draw_indirect_args_base_addr == 0);
uint32_t draw_count = max_count_or_count;
if (count_addr != nullptr) {
draw_count = *count_addr;
if (draw_count > max_count_or_count) {
draw_count = max_count_or_count;
}
}
if (draw_count == 0) {
return;
}
const auto args_size = indexed ? sizeof(DrawIndexedIndirectArgs) : sizeof(DrawIndirectArgs);
EXIT_NOT_IMPLEMENTED(stride_in_bytes < args_size);
uint64_t index_size = 0;
if (indexed) {
switch (m_index_type_and_size) {
case 0: index_size = 2; break;
case 1: index_size = 4; break;
case 2: index_size = 1; break;
default: EXIT("unknown index_type_and_size: %u\n", m_index_type_and_size);
}
}
for (uint32_t i = 0; i < draw_count; i++) {
const auto args_addr = m_draw_indirect_args_base_addr + data_offset +
static_cast<uint64_t>(i) * stride_in_bytes;
if (!indexed) {
auto* args = reinterpret_cast<const DrawIndirectArgs*>(args_addr);
PatchIndirectDrawOffsets(*this, registers, args->start_vertex_location,
args->start_instance_location, 0);
m_num_instances = args->instance_count;
DrawIndexAuto({.vertex_count = args->vertex_count_per_instance,
.instance_count = args->instance_count,
.first_vertex = args->start_vertex_location,
.first_instance = args->start_instance_location,
.offset_source = DrawOffsetSource::IndirectArgs});
continue;
}
auto* args = reinterpret_cast<const DrawIndexedIndirectArgs*>(args_addr);
PatchIndirectDrawOffsets(*this, registers, args->base_vertex_location,
args->start_instance_location, args->start_index_location);
auto* index_addr = reinterpret_cast<const void*>(
m_index_base_addr + static_cast<uint64_t>(args->start_index_location) * index_size);
const uint32_t index_count =
(m_index_buffer_size != 0
? std::min(args->index_count_per_instance, m_index_buffer_size)
: args->index_count_per_instance);
if (GraphicsRunDebugDumpEnabled() && index_count != args->index_count_per_instance) {
static std::atomic<uint32_t> log_count {0};
if (log_count.fetch_add(1, std::memory_order_relaxed) < 64) {
LOGF("\t DrawIndexIndirectMulti: clamped index_count from %" PRIu32 " to %" PRIu32
" using INDEX_BUFFER_SIZE\n",
args->index_count_per_instance, index_count);
}
}
m_num_instances = args->instance_count;
DrawIndex({.index_count = index_count,
.index_addr = index_addr,
.instance_count = args->instance_count,
.base_vertex = static_cast<int32_t>(args->base_vertex_location),
.first_instance = args->start_instance_location,
.offset_source = DrawOffsetSource::IndirectArgs});
}
}
void CommandProcessor::DispatchDirect(uint32_t thread_group_x, uint32_t thread_group_y,
uint32_t thread_group_z, uint32_t mode) {
m_sh_ctx.SetCsWaveSize(Pm4::ComputeWaveSize(mode));
uint32_t frame_num = 0;
{
frame_num = m_renderer.GetGpu().GetFrameNum();
if (GraphicsRunDebugDumpEnabled()) {
static std::atomic<uint32_t> log_count {0};
if (log_count.fetch_add(1, std::memory_order_relaxed) < 1024) {
const auto& cs = m_sh_ctx.GetCs().cs_regs;
const auto& oa = m_ucfg.GetGdsOaCounter(m_ucfg.GetGdsOaState().GetIndex());
LOGF("QueuePoint DispatchDirect: frame=%u submit=%" PRIu64
" groups=%ux%ux%u local=%ux%ux%u mode=0x%08" PRIx32 " wave=%u cs=0x%016" PRIx64
" oa_index=%u oa_enabled=%s oa_addr=0x%04" PRIx32 " oa_space=0x%08" PRIx32
"\n",
frame_num, m_submit_id, thread_group_x, thread_group_y, thread_group_z,
std::max(cs.num_thread_x, 1u), std::max(cs.num_thread_y, 1u),
std::max(cs.num_thread_z, 1u), mode, static_cast<uint32_t>(cs.wave_size),
cs.data_addr, m_ucfg.GetGdsOaState().GetIndex(),
oa.IsCounterEnabled() ? "true" : "false", oa.GetAddressBytes(),
oa.GetSpaceAvailable());
}
}
m_renderer.GetRenderExecutor().DispatchDirect(m_submit_id, CurrentBuffer(), thread_group_x,
thread_group_y, thread_group_z, mode);
}
}
void CommandProcessor::DispatchIndirect(uint64_t args_addr, uint32_t mode) {
EXIT_NOT_IMPLEMENTED(args_addr == 0 || (args_addr & 3u) != 0);
if ((mode & Pm4::COMPUTE_DISPATCH_INITIATOR_USE_THREAD_DIMENSIONS) != 0) {
const auto* args = reinterpret_cast<const vk::DispatchIndirectCommand*>(args_addr);
DispatchDirect(args->x, args->y, args->z, mode);
return;
}
m_sh_ctx.SetCsWaveSize(Pm4::ComputeWaveSize(mode));
m_renderer.GetRenderExecutor().DispatchIndirect(m_submit_id, CurrentBuffer(), args_addr, mode);
}
void CommandProcessor::DrawIndexAuto(DrawAutoArgs args) {
if (args.instance_count == 0) {
args.instance_count = m_num_instances;
}
m_renderer.GetRenderExecutor().DrawAuto(m_submit_id, CurrentBuffer(), args);
}
void CommandProcessor::WaitFlipDone(uint32_t video_out_handle, uint32_t display_buffer_index) {
BufferFlush();
m_renderer.GetVideoOut().WaitFlipDone(static_cast<int>(video_out_handle),
static_cast<int>(display_buffer_index));
}
template <typename T>
void CommandProcessor::WriteAtEndOfPipe(uint32_t cache_policy, uint32_t event_write_dest,
uint32_t eop_event_type, uint32_t cache_action,
uint32_t event_index, uint32_t event_write_source,
void* dst_gpu_addr, T value, uint32_t interrupt_selector,
uint32_t interrupt_context_id) {
static_assert(sizeof(T) == sizeof(uint32_t) || sizeof(T) == sizeof(uint64_t));
auto& command = CurrentBuffer();
if (GraphicsRunDebugDumpEnabled()) {
const auto bits = static_cast<unsigned>(sizeof(T) * 8u);
const auto log_width = static_cast<int>(sizeof(T) * 2u);
LOGF("CommandProcessor::WriteAtEndOfPipe%u()\n"
"\t cache_policy = 0x%08" PRIx32 "\n"
"\t event_write_dest = 0x%08" PRIx32 "\n"
"\t eop_event_type = 0x%08" PRIx32 "\n"
"\t cache_action = 0x%08" PRIx32 "\n"
"\t event_index = 0x%08" PRIx32 "\n"
"\t event_write_source = 0x%08" PRIx32 "\n"
"\t interrupt_selector = 0x%08" PRIx32 "\n"
"\t interrupt_context = 0x%08" PRIx32 "\n"
"\t dst_gpu_addr = 0x%016" PRIx64 "\n"
"\t value = 0x%0*" PRIx64 "\n",
bits, cache_policy, event_write_dest, eop_event_type, cache_action, event_index,
event_write_source, interrupt_selector, interrupt_context_id,
reinterpret_cast<uint64_t>(dst_gpu_addr), log_width, static_cast<uint64_t>(value));
}
EXIT_NOT_IMPLEMENTED(cache_policy != 0x00000000);
EXIT_NOT_IMPLEMENTED(event_write_dest != 0x00000000);
bool with_interrupt = false;
switch (interrupt_selector) {
case 0x00:
case 0x03: with_interrupt = false; break;
case 0x01:
if (!IsAsyncComputeQueue()) {
Sync::TriggerEopEventAtEndOfPipe(command, m_interrupt_event_id,
interrupt_context_id);
return;
}
with_interrupt = true;
break;
case 0x02: with_interrupt = true; break;
default: EXIT("unknown interrupt_selector\n");
}
auto write32 = [&](bool with_writeback) {
auto* dst = static_cast<uint32_t*>(dst_gpu_addr);
auto data = static_cast<uint32_t>(value);
std::memcpy(dst, &data, sizeof(data));
if (with_interrupt) {
if (with_writeback) {
Sync::WriteAtEndOfPipeWithInterruptWriteBack32(m_submit_id, command, dst,
data, m_interrupt_event_id,
interrupt_context_id);
} else {
Sync::WriteAtEndOfPipeWithInterrupt32(m_submit_id, command, dst, data,
m_interrupt_event_id, interrupt_context_id);
}
} else if (with_writeback) {
Sync::WriteAtEndOfPipeWithWriteBack32(m_submit_id, command, dst, data);
} else {
Sync::WriteAtEndOfPipe32(m_submit_id, command, dst, data);
}
};
switch (event_write_source) {
case 0x01:
if constexpr (sizeof(T) == sizeof(uint32_t)) {
if (eop_event_type == 0x2f && cache_action == 0x00 && event_index == 0x06) {
auto* dst = static_cast<uint32_t*>(dst_gpu_addr);
SynchronizeGpu();
Sync::ReadGds(*m_renderer.GetBufferCache().GetGdsBuffer(), dst, value & 0xffffu,
value >> 16u);
Sync::WriteAtEndOfPipeGds32(m_submit_id, command, dst, value & 0xffffu,
value >> 16u);
if (with_interrupt) {
m_renderer.TriggerInterrupt(m_interrupt_event_id, interrupt_context_id);
}
return;
}
} else if (eop_event_type == 0x04 && cache_action == 0x00 && event_index == 0x05) {
write32(false);
return;
}
break;
case 0x02:
case 0x04:
if constexpr (sizeof(T) == sizeof(uint32_t)) {
if (event_write_source == 0x02 && eop_event_type == 0x2f && event_index == 0x06) {
switch (cache_action) {
case 0x00: write32(false); return;
case 0x38: write32(true); return;
default: break;
}
}
} else {
if (event_write_source == 0x04) {
value = Sync::ReadReferenceClock();
}
auto write64 = [&](bool with_writeback) {
auto* dst = static_cast<uint64_t*>(dst_gpu_addr);
std::memcpy(dst, &value, sizeof(value));
if (with_interrupt) {
if (with_writeback) {
Sync::WriteAtEndOfPipeWithInterruptWriteBack64(
m_submit_id, command, dst, value, m_interrupt_event_id,
interrupt_context_id);
} else {
Sync::WriteAtEndOfPipeWithInterrupt64(m_submit_id, command, dst,
value, m_interrupt_event_id,
interrupt_context_id);
}
} else if (with_writeback) {
Sync::WriteAtEndOfPipeWithWriteBack64(m_submit_id, command, dst,
value);
} else {
Sync::WriteAtEndOfPipe64(m_submit_id, command, dst, value);
}
};
switch (cache_action) {
case 0x00:
switch (eop_event_type) {
case 0x04:
if (event_index == 0x05) {
write64(false);
return;
}
break;
case 0x14:
case 0x28:
case 0x2f:
if (event_index == 0x00) {
write64(false);
return;
}
break;
case 0x2b:
case 0x2d:
case 0x30:
if (event_index == 0x00 && !with_interrupt) {
write64(false);
return;
}
break;
default: break;
}
break;
case 0x38:
switch (eop_event_type) {
case 0x04:
case 0x14:
case 0x28:
if (((eop_event_type == 0x04 || eop_event_type == 0x28) &&
event_index == 0x05) ||
(event_index == 0x00)) {
write64(true);
return;
}
break;
case 0x2b:
case 0x2d:
if (event_index == 0x00 && !with_interrupt) {
write64(true);
return;
}
break;
case 0x2f:
if (event_index == 0x06 && !with_interrupt) {
write64(true);
return;
}
break;
default: break;
}
break;
case 0x3b:
if (eop_event_type == 0x04 && event_index == 0x05 && with_interrupt) {
write64(true);
return;
}
break;
default: break;
}
}
break;
default: break;
}
EXIT("unknown event type\n");
}
void CommandProcessor::WriteAtEndOfPipe32(uint32_t cache_policy, uint32_t event_write_dest,
uint32_t eop_event_type, uint32_t cache_action,
uint32_t event_index, uint32_t event_write_source,
void* dst_gpu_addr, uint32_t value,
uint32_t interrupt_selector,
uint32_t interrupt_context_id) {
WriteAtEndOfPipe(cache_policy, event_write_dest, eop_event_type, cache_action, event_index,
event_write_source, dst_gpu_addr, value, interrupt_selector,
interrupt_context_id);
}
void CommandProcessor::WriteAtEndOfPipe64(uint32_t cache_policy, uint32_t event_write_dest,
uint32_t eop_event_type, uint32_t cache_action,
uint32_t event_index, uint32_t event_write_source,
void* dst_gpu_addr, uint64_t value,
uint32_t interrupt_selector,
uint32_t interrupt_context_id) {
WriteAtEndOfPipe(cache_policy, event_write_dest, eop_event_type, cache_action, event_index,
event_write_source, dst_gpu_addr, value, interrupt_selector,
interrupt_context_id);
}
void CommandProcessor::EmitGlobalBarrier() {
Common::LockGuard lock(m_renderer.GetMutex());
vk::MemoryBarrier2 barrier {};
barrier.srcStageMask = vk::PipelineStageFlagBits2::eAllCommands;
barrier.srcAccessMask = vk::AccessFlagBits2::eMemoryWrite;
barrier.dstStageMask = vk::PipelineStageFlagBits2::eAllCommands;
barrier.dstAccessMask = vk::AccessFlagBits2::eMemoryRead | vk::AccessFlagBits2::eMemoryWrite;
vk::DependencyInfo dependency {};
dependency.memoryBarrierCount = 1;
dependency.pMemoryBarriers = &barrier;
GetScheduler().EndRendering();
CurrentBuffer().Handle().pipelineBarrier2(dependency);
}
void CommandProcessor::TriggerEopEventAtEndOfPipe(uint32_t interrupt_context_id) {
Sync::TriggerEopEventAtEndOfPipe(CurrentBuffer(), m_interrupt_event_id, interrupt_context_id);
}
void CommandProcessor::TriggerEvent(uint32_t event_type, uint32_t event_index,
uint64_t event_address) {
if (GraphicsRunDebugDumpEnabled()) {
LOGF("CommandProcessor::TriggerEvent()\n"
"\t event_type = 0x%08" PRIx32 "\n"
"\t event_index = 0x%08" PRIx32 "\n"
"\t address = 0x%016" PRIx64 "\n",
event_type, event_index, event_address);
}
const auto valid_cache_event_index = event_index == 0x00000000 || event_index == 0x00000007;
switch (event_type) {
// CsPartialFlush, GsPartialFlush, PsPartialFlush.
case 0x00000007:
case 0x0000000f:
case 0x00000010: EmitGlobalBarrier(); break;
// CbDbDataWritebackInvalidate, CbDataWritebackInvalidate.
case 0x00000016:
case 0x00000031:
if (!valid_cache_event_index) {
EXIT("unknown event type: 0x%08" PRIx32 ", 0x%08" PRIx32 "\n", event_type,
event_index);
}
EmitGlobalBarrier();
break;
// DbDataWritebackInvalidate, DbMetadataWritebackInvalidate, CbMetadataWritebackInvalidate.
case 0x0000002a:
case 0x0000002c:
case 0x0000002e:
if (!valid_cache_event_index) {
EXIT("unknown event type: 0x%08" PRIx32 ", 0x%08" PRIx32 "\n", event_type,
event_index);
}
EmitGlobalBarrier();
break;
case 0x0000000d:
case 0x0000000e:
case 0x00000012:
case 0x00000017:
case 0x00000018:
case 0x00000019:
case 0x0000001a:
case 0x0000001b:
case 0x00000038:
case 0x0000003a:
LOGF("\t temporary: ignoring unsupported event_write type 0x%08" PRIx32
", index 0x%08" PRIx32 "\n",
event_type, event_index);
break;
case 0x00000039: {
if (event_index != 0x00000001 || event_address == 0 || (event_address & 0x7u) != 0) {
EXIT("invalid occlusion-counter dump: index=0x%08" PRIx32 ", address=0x%016" PRIx64
"\n",
event_index, event_address);
}
static std::once_flag warning_once;
std::call_once(warning_once, [] {
std::printf("Warning: game uses occlusion queries, which are currently treated as "
"always visible; GPU usage may be higher and FPS may be lower.\n");
});
// Until host occlusion queries are implemented, publish an always-visible result. The
// PS5 layout contains one interleaved begin/end pair per DB, and bit 63 marks a result
// ready.
constexpr uint64_t ready_bit = 1ull << 63u;
constexpr uint64_t counter_mask = ready_bit - 1u;
auto* results = reinterpret_cast<volatile uint64_t*>(event_address);
const auto value = ready_bit | m_synthetic_occlusion_counter;
for (uint32_t db = 0; db < 16u; db++) {
results[db * 2u] = value;
}
m_synthetic_occlusion_counter = (m_synthetic_occlusion_counter + 1u) & counter_mask;
break;
}
default:
EXIT("unknown event type: 0x%08" PRIx32 ", 0x%08" PRIx32 "\n", event_type, event_index);
}
}
void CommandProcessor::Flip() {
if (GraphicsRunDebugDumpEnabled()) {
LOGF("CommandProcessor::Flip()\n");
}
auto& command = CurrentBuffer();
auto request = Sync::PrepareVideoOutFlip(command, m_flip.handle, m_flip.index, m_flip.flip_mode,
m_flip.flip_arg);
Sync::WriteAtEndOfPipeOnlyFlip(m_submit_id, command, m_flip.handle, m_flip.index,
m_flip.flip_mode, m_flip.flip_arg, request);
GetScheduler().Flush();
}
void CommandProcessor::Flip(void* dst_gpu_addr, uint32_t value) {
auto& command = CurrentBuffer();
if (GraphicsRunDebugDumpEnabled()) {
LOGF("CommandProcessor::Flip()\n"
"\t dst_gpu_addr = 0x%016" PRIx64 "\n"
"\t value = 0x%08" PRIx32 "\n",
reinterpret_cast<uint64_t>(dst_gpu_addr), value);
}
std::memcpy(dst_gpu_addr, &value, sizeof(value));
auto request = Sync::PrepareVideoOutFlip(command, m_flip.handle, m_flip.index, m_flip.flip_mode,
m_flip.flip_arg);
Sync::WriteAtEndOfPipeWithFlip32(m_submit_id, command, static_cast<uint32_t*>(dst_gpu_addr),
value, m_flip.handle, m_flip.index, m_flip.flip_mode,
m_flip.flip_arg, request);
GetScheduler().Flush();
}
void CommandProcessor::FlipWithInterrupt(uint32_t eop_event_type, uint32_t cache_action,
void* dst_gpu_addr, uint32_t value) {
auto& command = CurrentBuffer();
if (GraphicsRunDebugDumpEnabled()) {
LOGF("CommandProcessor::FlipWithInterrupt()\n"
"\t eop_event_type = 0x%08" PRIx32 "\n"
"\t cache_action = 0x%08" PRIx32 "\n"
"\t dst_gpu_addr = 0x%016" PRIx64 "\n"
"\t value = 0x%08" PRIx32 "\n",
eop_event_type, cache_action, reinterpret_cast<uint64_t>(dst_gpu_addr), value);
}
if (eop_event_type != 0x00000004 || cache_action != 0x00000038) {
EXIT("unknown event type\n");
}
std::memcpy(dst_gpu_addr, &value, sizeof(value));
auto request = Sync::PrepareVideoOutFlip(command, m_flip.handle, m_flip.index, m_flip.flip_mode,
m_flip.flip_arg);
Sync::WriteAtEndOfPipeWithInterruptWriteBackFlip32(
m_submit_id, command, static_cast<uint32_t*>(dst_gpu_addr), value, m_flip.handle,
m_flip.index, m_flip.flip_mode, m_flip.flip_arg, request, m_interrupt_event_id);
GetScheduler().Flush();
}
void CommandProcessor::PrepareCpuFlip(uint64_t request_id) {
auto& command = CurrentBuffer();
if (g_current_processor != nullptr) {
EXIT("invalid graphics-thread CPU flip preparation\n");
}
struct ProcessorScope {
explicit ProcessorScope(CommandProcessor& processor) { g_current_processor = &processor; }
~ProcessorScope() { g_current_processor = nullptr; }
};
ProcessorScope processor_scope(*this);
m_renderer.GetVideoOut().PrepareFlip(request_id, command);
GetScheduler().DeferPriorityOperation(
[this, request_id] { m_renderer.GetVideoOut().CompleteFlip(request_id); });
GetScheduler().Flush();
}
void CommandProcessor::SynchronizeGpu() {
GetScheduler().Finish();
}
bool GuestGpu::IsGpuThread() noexcept {
return g_gpu_thread;
}
} // namespace Libs::Graphics
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