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ppsspp/GPU/GPUCommon.cpp
Henrik Rydgård 92df6b832c Safer and simpler alternative to cbfa4bf. 
See #16483
2022-12-03 12:05:08 +01:00

3573 lines
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#include "ppsspp_config.h"
#if defined(_M_SSE)
#include <emmintrin.h>
#endif
#if PPSSPP_ARCH(ARM_NEON)
#if defined(_MSC_VER) && PPSSPP_ARCH(ARM64)
#include <arm64_neon.h>
#else
#include <arm_neon.h>
#endif
#endif
#include <algorithm>
#include <type_traits>
#include <mutex>
#include "Common/Profiler/Profiler.h"
#include "Common/Data/Convert/ColorConv.h"
#include "Common/GraphicsContext.h"
#include "Common/Serialize/Serializer.h"
#include "Common/Serialize/SerializeFuncs.h"
#include "Common/Serialize/SerializeList.h"
#include "Common/TimeUtil.h"
#include "Core/Reporting.h"
#include "GPU/GeDisasm.h"
#include "GPU/GPU.h"
#include "GPU/GPUCommon.h"
#include "GPU/GPUState.h"
#include "Core/Config.h"
#include "Core/CoreTiming.h"
#include "Core/Debugger/MemBlockInfo.h"
#include "Core/MemMap.h"
#include "Core/Host.h"
#include "Core/Reporting.h"
#include "Core/HLE/HLE.h"
#include "Core/HLE/sceKernelMemory.h"
#include "Core/HLE/sceKernelInterrupt.h"
#include "Core/HLE/sceKernelThread.h"
#include "Core/HLE/sceGe.h"
#include "Core/HW/Display.h"
#include "Core/MemMapHelpers.h"
#include "Core/Util/PPGeDraw.h"
#include "GPU/Common/DrawEngineCommon.h"
#include "GPU/Common/FramebufferManagerCommon.h"
#include "GPU/Common/SplineCommon.h"
#include "GPU/Common/TextureCacheCommon.h"
#include "GPU/Debugger/Debugger.h"
#include "GPU/Debugger/Record.h"
const CommonCommandTableEntry commonCommandTable[] = {
// From Common. No flushing but definitely need execute.
{ GE_CMD_OFFSETADDR, FLAG_EXECUTE, 0, &GPUCommon::Execute_OffsetAddr },
{ GE_CMD_ORIGIN, FLAG_EXECUTE | FLAG_READS_PC, 0, &GPUCommon::Execute_Origin },
{ GE_CMD_JUMP, FLAG_EXECUTE | FLAG_READS_PC | FLAG_WRITES_PC, 0, &GPUCommon::Execute_Jump },
{ GE_CMD_CALL, FLAG_EXECUTE | FLAG_READS_PC | FLAG_WRITES_PC, 0, &GPUCommon::Execute_Call },
{ GE_CMD_RET, FLAG_EXECUTE | FLAG_READS_PC | FLAG_WRITES_PC, 0, &GPUCommon::Execute_Ret },
{ GE_CMD_END, FLAG_EXECUTE | FLAG_READS_PC | FLAG_WRITES_PC, 0, &GPUCommon::Execute_End },
{ GE_CMD_VADDR, FLAG_EXECUTE, 0, &GPUCommon::Execute_Vaddr },
{ GE_CMD_IADDR, FLAG_EXECUTE, 0, &GPUCommon::Execute_Iaddr },
{ GE_CMD_BJUMP, FLAG_EXECUTE | FLAG_READS_PC | FLAG_WRITES_PC, 0, &GPUCommon::Execute_BJump }, // EXECUTE
{ GE_CMD_BOUNDINGBOX, FLAG_EXECUTE, 0, &GPUCommon::Execute_BoundingBox }, // Shouldn't need to FLUSHBEFORE.
{ GE_CMD_PRIM, FLAG_EXECUTE, 0, &GPUCommon::Execute_Prim },
{ GE_CMD_BEZIER, FLAG_EXECUTE, 0, &GPUCommon::Execute_Bezier },
{ GE_CMD_SPLINE, FLAG_EXECUTE, 0, &GPUCommon::Execute_Spline },
// Changing the vertex type requires us to flush.
{ GE_CMD_VERTEXTYPE, FLAG_FLUSHBEFOREONCHANGE | FLAG_EXECUTEONCHANGE, 0, &GPUCommon::Execute_VertexType },
{ GE_CMD_LOADCLUT, FLAG_FLUSHBEFOREONCHANGE | FLAG_EXECUTE, 0, &GPUCommon::Execute_LoadClut },
// These two are actually processed in CMD_END.
{ GE_CMD_SIGNAL },
{ GE_CMD_FINISH },
// Changes that dirty the framebuffer
{ GE_CMD_FRAMEBUFPTR, FLAG_FLUSHBEFOREONCHANGE, DIRTY_FRAMEBUF | DIRTY_TEXTURE_PARAMS },
{ GE_CMD_FRAMEBUFWIDTH, FLAG_FLUSHBEFOREONCHANGE, DIRTY_FRAMEBUF | DIRTY_TEXTURE_PARAMS | DIRTY_VIEWPORTSCISSOR_STATE | DIRTY_CULLRANGE },
{ GE_CMD_FRAMEBUFPIXFORMAT, FLAG_FLUSHBEFOREONCHANGE, DIRTY_FRAMEBUF | DIRTY_TEXTURE_PARAMS | DIRTY_BLEND_STATE | DIRTY_DEPTHSTENCIL_STATE | DIRTY_FRAGMENTSHADER_STATE },
{ GE_CMD_ZBUFPTR, FLAG_FLUSHBEFOREONCHANGE },
{ GE_CMD_ZBUFWIDTH, FLAG_FLUSHBEFOREONCHANGE },
{ GE_CMD_FOGCOLOR, FLAG_FLUSHBEFOREONCHANGE, DIRTY_FOGCOLOR },
{ GE_CMD_FOG1, FLAG_FLUSHBEFOREONCHANGE, DIRTY_FOGCOEF },
{ GE_CMD_FOG2, FLAG_FLUSHBEFOREONCHANGE, DIRTY_FOGCOEF },
// These affect the fragment shader so need flushing.
{ GE_CMD_CLEARMODE, FLAG_FLUSHBEFOREONCHANGE, DIRTY_BLEND_STATE | DIRTY_DEPTHSTENCIL_STATE | DIRTY_RASTER_STATE | DIRTY_VIEWPORTSCISSOR_STATE | DIRTY_CULLRANGE | DIRTY_VERTEXSHADER_STATE | DIRTY_FRAGMENTSHADER_STATE | DIRTY_GEOMETRYSHADER_STATE },
{ GE_CMD_TEXTUREMAPENABLE, FLAG_FLUSHBEFOREONCHANGE, DIRTY_VERTEXSHADER_STATE | DIRTY_FRAGMENTSHADER_STATE | DIRTY_GEOMETRYSHADER_STATE },
{ GE_CMD_FOGENABLE, FLAG_FLUSHBEFOREONCHANGE, DIRTY_FRAGMENTSHADER_STATE },
{ GE_CMD_TEXMODE, FLAG_FLUSHBEFOREONCHANGE, DIRTY_TEXTURE_PARAMS | DIRTY_FRAGMENTSHADER_STATE },
{ GE_CMD_TEXSHADELS, FLAG_FLUSHBEFOREONCHANGE, DIRTY_VERTEXSHADER_STATE },
// Raster state for Direct3D 9, uncommon.
{ GE_CMD_SHADEMODE, FLAG_FLUSHBEFOREONCHANGE, DIRTY_VERTEXSHADER_STATE | DIRTY_FRAGMENTSHADER_STATE | DIRTY_RASTER_STATE },
{ GE_CMD_TEXFUNC, FLAG_FLUSHBEFOREONCHANGE, DIRTY_FRAGMENTSHADER_STATE },
{ GE_CMD_COLORTEST, FLAG_FLUSHBEFOREONCHANGE, DIRTY_FRAGMENTSHADER_STATE },
{ GE_CMD_ALPHATESTENABLE, FLAG_FLUSHBEFOREONCHANGE, DIRTY_FRAGMENTSHADER_STATE },
{ GE_CMD_COLORTESTENABLE, FLAG_FLUSHBEFOREONCHANGE, DIRTY_FRAGMENTSHADER_STATE },
{ GE_CMD_COLORTESTMASK, FLAG_FLUSHBEFOREONCHANGE, DIRTY_ALPHACOLORMASK | DIRTY_FRAGMENTSHADER_STATE },
// These change the vertex shader so need flushing.
{ GE_CMD_REVERSENORMAL, FLAG_FLUSHBEFOREONCHANGE, DIRTY_VERTEXSHADER_STATE },
{ GE_CMD_LIGHTINGENABLE, FLAG_FLUSHBEFOREONCHANGE, DIRTY_VERTEXSHADER_STATE | DIRTY_FRAGMENTSHADER_STATE | DIRTY_GEOMETRYSHADER_STATE },
{ GE_CMD_LIGHTENABLE0, FLAG_FLUSHBEFOREONCHANGE, DIRTY_VERTEXSHADER_STATE },
{ GE_CMD_LIGHTENABLE1, FLAG_FLUSHBEFOREONCHANGE, DIRTY_VERTEXSHADER_STATE },
{ GE_CMD_LIGHTENABLE2, FLAG_FLUSHBEFOREONCHANGE, DIRTY_VERTEXSHADER_STATE },
{ GE_CMD_LIGHTENABLE3, FLAG_FLUSHBEFOREONCHANGE, DIRTY_VERTEXSHADER_STATE },
{ GE_CMD_LIGHTTYPE0, FLAG_FLUSHBEFOREONCHANGE, DIRTY_VERTEXSHADER_STATE | DIRTY_LIGHT0 },
{ GE_CMD_LIGHTTYPE1, FLAG_FLUSHBEFOREONCHANGE, DIRTY_VERTEXSHADER_STATE | DIRTY_LIGHT1 },
{ GE_CMD_LIGHTTYPE2, FLAG_FLUSHBEFOREONCHANGE, DIRTY_VERTEXSHADER_STATE | DIRTY_LIGHT2 },
{ GE_CMD_LIGHTTYPE3, FLAG_FLUSHBEFOREONCHANGE, DIRTY_VERTEXSHADER_STATE | DIRTY_LIGHT3 },
{ GE_CMD_MATERIALUPDATE, FLAG_FLUSHBEFOREONCHANGE, DIRTY_VERTEXSHADER_STATE },
// These change both shaders so need flushing.
{ GE_CMD_LIGHTMODE, FLAG_FLUSHBEFOREONCHANGE, DIRTY_VERTEXSHADER_STATE | DIRTY_FRAGMENTSHADER_STATE | DIRTY_GEOMETRYSHADER_STATE },
{ GE_CMD_TEXFILTER, FLAG_FLUSHBEFOREONCHANGE, DIRTY_TEXTURE_PARAMS },
{ GE_CMD_TEXWRAP, FLAG_FLUSHBEFOREONCHANGE, DIRTY_TEXTURE_PARAMS | DIRTY_FRAGMENTSHADER_STATE },
// Uniform changes. though the fragmentshader optimizes based on these sometimes.
{ GE_CMD_ALPHATEST, FLAG_FLUSHBEFOREONCHANGE, DIRTY_ALPHACOLORREF | DIRTY_ALPHACOLORMASK | DIRTY_FRAGMENTSHADER_STATE },
{ GE_CMD_COLORREF, FLAG_FLUSHBEFOREONCHANGE, DIRTY_ALPHACOLORREF | DIRTY_FRAGMENTSHADER_STATE },
{ GE_CMD_TEXENVCOLOR, FLAG_FLUSHBEFOREONCHANGE, DIRTY_TEXENV },
// Simple render state changes. Handled in StateMapping.cpp.
{ GE_CMD_CULL, FLAG_FLUSHBEFOREONCHANGE, DIRTY_RASTER_STATE },
{ GE_CMD_CULLFACEENABLE, FLAG_FLUSHBEFOREONCHANGE, DIRTY_RASTER_STATE },
{ GE_CMD_DITHERENABLE, FLAG_FLUSHBEFOREONCHANGE, DIRTY_RASTER_STATE },
{ GE_CMD_STENCILOP, FLAG_FLUSHBEFOREONCHANGE, DIRTY_BLEND_STATE | DIRTY_DEPTHSTENCIL_STATE | DIRTY_FRAGMENTSHADER_STATE },
{ GE_CMD_STENCILTEST, FLAG_FLUSHBEFOREONCHANGE, DIRTY_STENCILREPLACEVALUE | DIRTY_BLEND_STATE | DIRTY_DEPTHSTENCIL_STATE },
{ GE_CMD_STENCILTESTENABLE, FLAG_FLUSHBEFOREONCHANGE, DIRTY_BLEND_STATE | DIRTY_DEPTHSTENCIL_STATE | DIRTY_FRAGMENTSHADER_STATE },
{ GE_CMD_ALPHABLENDENABLE, FLAG_FLUSHBEFOREONCHANGE, DIRTY_BLEND_STATE | DIRTY_FRAGMENTSHADER_STATE },
{ GE_CMD_BLENDMODE, FLAG_FLUSHBEFOREONCHANGE, DIRTY_BLEND_STATE | DIRTY_FRAGMENTSHADER_STATE },
{ GE_CMD_BLENDFIXEDA, FLAG_FLUSHBEFOREONCHANGE, DIRTY_BLEND_STATE | DIRTY_FRAGMENTSHADER_STATE },
{ GE_CMD_BLENDFIXEDB, FLAG_FLUSHBEFOREONCHANGE, DIRTY_BLEND_STATE | DIRTY_FRAGMENTSHADER_STATE },
{ GE_CMD_MASKRGB, FLAG_FLUSHBEFOREONCHANGE, DIRTY_BLEND_STATE | DIRTY_FRAGMENTSHADER_STATE | DIRTY_DEPTHSTENCIL_STATE | DIRTY_COLORWRITEMASK },
{ GE_CMD_MASKALPHA, FLAG_FLUSHBEFOREONCHANGE, DIRTY_BLEND_STATE | DIRTY_FRAGMENTSHADER_STATE | DIRTY_DEPTHSTENCIL_STATE | DIRTY_COLORWRITEMASK },
{ GE_CMD_ZTEST, FLAG_FLUSHBEFOREONCHANGE, DIRTY_DEPTHSTENCIL_STATE },
{ GE_CMD_ZTESTENABLE, FLAG_FLUSHBEFOREONCHANGE, DIRTY_DEPTHSTENCIL_STATE | DIRTY_FRAGMENTSHADER_STATE },
{ GE_CMD_ZWRITEDISABLE, FLAG_FLUSHBEFOREONCHANGE, DIRTY_DEPTHSTENCIL_STATE | DIRTY_FRAGMENTSHADER_STATE },
{ GE_CMD_LOGICOP, FLAG_FLUSHBEFOREONCHANGE, DIRTY_BLEND_STATE | DIRTY_FRAGMENTSHADER_STATE },
{ GE_CMD_LOGICOPENABLE, FLAG_FLUSHBEFOREONCHANGE, DIRTY_BLEND_STATE | DIRTY_FRAGMENTSHADER_STATE },
{ GE_CMD_TEXMAPMODE, FLAG_FLUSHBEFOREONCHANGE, DIRTY_VERTEXSHADER_STATE | DIRTY_FRAGMENTSHADER_STATE },
// These are read on every SubmitPrim, no need for dirtying or flushing.
{ GE_CMD_TEXSCALEU },
{ GE_CMD_TEXSCALEV },
{ GE_CMD_TEXOFFSETU },
{ GE_CMD_TEXOFFSETV },
{ GE_CMD_TEXSIZE0, FLAG_FLUSHBEFOREONCHANGE | FLAG_EXECUTE, 0, &GPUCommon::Execute_TexSize0 },
{ GE_CMD_TEXSIZE1, FLAG_FLUSHBEFOREONCHANGE, DIRTY_TEXTURE_PARAMS },
{ GE_CMD_TEXSIZE2, FLAG_FLUSHBEFOREONCHANGE, DIRTY_TEXTURE_PARAMS },
{ GE_CMD_TEXSIZE3, FLAG_FLUSHBEFOREONCHANGE, DIRTY_TEXTURE_PARAMS },
{ GE_CMD_TEXSIZE4, FLAG_FLUSHBEFOREONCHANGE, DIRTY_TEXTURE_PARAMS },
{ GE_CMD_TEXSIZE5, FLAG_FLUSHBEFOREONCHANGE, DIRTY_TEXTURE_PARAMS },
{ GE_CMD_TEXSIZE6, FLAG_FLUSHBEFOREONCHANGE, DIRTY_TEXTURE_PARAMS },
{ GE_CMD_TEXSIZE7, FLAG_FLUSHBEFOREONCHANGE, DIRTY_TEXTURE_PARAMS },
{ GE_CMD_TEXFORMAT, FLAG_FLUSHBEFOREONCHANGE, DIRTY_TEXTURE_IMAGE },
{ GE_CMD_TEXLEVEL, FLAG_EXECUTEONCHANGE, DIRTY_TEXTURE_PARAMS, &GPUCommon::Execute_TexLevel },
{ GE_CMD_TEXLODSLOPE, FLAG_FLUSHBEFOREONCHANGE, DIRTY_TEXTURE_PARAMS },
{ GE_CMD_TEXADDR0, FLAG_FLUSHBEFOREONCHANGE, DIRTY_TEXTURE_IMAGE | DIRTY_UVSCALEOFFSET },
{ GE_CMD_TEXADDR1, FLAG_FLUSHBEFOREONCHANGE, DIRTY_TEXTURE_PARAMS },
{ GE_CMD_TEXADDR2, FLAG_FLUSHBEFOREONCHANGE, DIRTY_TEXTURE_PARAMS },
{ GE_CMD_TEXADDR3, FLAG_FLUSHBEFOREONCHANGE, DIRTY_TEXTURE_PARAMS },
{ GE_CMD_TEXADDR4, FLAG_FLUSHBEFOREONCHANGE, DIRTY_TEXTURE_PARAMS },
{ GE_CMD_TEXADDR5, FLAG_FLUSHBEFOREONCHANGE, DIRTY_TEXTURE_PARAMS },
{ GE_CMD_TEXADDR6, FLAG_FLUSHBEFOREONCHANGE, DIRTY_TEXTURE_PARAMS },
{ GE_CMD_TEXADDR7, FLAG_FLUSHBEFOREONCHANGE, DIRTY_TEXTURE_PARAMS },
{ GE_CMD_TEXBUFWIDTH0, FLAG_FLUSHBEFOREONCHANGE, DIRTY_TEXTURE_IMAGE },
{ GE_CMD_TEXBUFWIDTH1, FLAG_FLUSHBEFOREONCHANGE, DIRTY_TEXTURE_PARAMS },
{ GE_CMD_TEXBUFWIDTH2, FLAG_FLUSHBEFOREONCHANGE, DIRTY_TEXTURE_PARAMS },
{ GE_CMD_TEXBUFWIDTH3, FLAG_FLUSHBEFOREONCHANGE, DIRTY_TEXTURE_PARAMS },
{ GE_CMD_TEXBUFWIDTH4, FLAG_FLUSHBEFOREONCHANGE, DIRTY_TEXTURE_PARAMS },
{ GE_CMD_TEXBUFWIDTH5, FLAG_FLUSHBEFOREONCHANGE, DIRTY_TEXTURE_PARAMS },
{ GE_CMD_TEXBUFWIDTH6, FLAG_FLUSHBEFOREONCHANGE, DIRTY_TEXTURE_PARAMS },
{ GE_CMD_TEXBUFWIDTH7, FLAG_FLUSHBEFOREONCHANGE, DIRTY_TEXTURE_PARAMS },
// These must flush on change, so that LoadClut doesn't have to always flush.
{ GE_CMD_CLUTADDR, FLAG_FLUSHBEFOREONCHANGE },
{ GE_CMD_CLUTADDRUPPER, FLAG_FLUSHBEFOREONCHANGE },
{ GE_CMD_CLUTFORMAT, FLAG_FLUSHBEFOREONCHANGE, DIRTY_TEXTURE_PARAMS | DIRTY_DEPAL },
// Morph weights. TODO: Remove precomputation?
{ GE_CMD_MORPHWEIGHT0, FLAG_FLUSHBEFOREONCHANGE | FLAG_EXECUTEONCHANGE, 0, &GPUCommon::Execute_MorphWeight },
{ GE_CMD_MORPHWEIGHT1, FLAG_FLUSHBEFOREONCHANGE | FLAG_EXECUTEONCHANGE, 0, &GPUCommon::Execute_MorphWeight },
{ GE_CMD_MORPHWEIGHT2, FLAG_FLUSHBEFOREONCHANGE | FLAG_EXECUTEONCHANGE, 0, &GPUCommon::Execute_MorphWeight },
{ GE_CMD_MORPHWEIGHT3, FLAG_FLUSHBEFOREONCHANGE | FLAG_EXECUTEONCHANGE, 0, &GPUCommon::Execute_MorphWeight },
{ GE_CMD_MORPHWEIGHT4, FLAG_FLUSHBEFOREONCHANGE | FLAG_EXECUTEONCHANGE, 0, &GPUCommon::Execute_MorphWeight },
{ GE_CMD_MORPHWEIGHT5, FLAG_FLUSHBEFOREONCHANGE | FLAG_EXECUTEONCHANGE, 0, &GPUCommon::Execute_MorphWeight },
{ GE_CMD_MORPHWEIGHT6, FLAG_FLUSHBEFOREONCHANGE | FLAG_EXECUTEONCHANGE, 0, &GPUCommon::Execute_MorphWeight },
{ GE_CMD_MORPHWEIGHT7, FLAG_FLUSHBEFOREONCHANGE | FLAG_EXECUTEONCHANGE, 0, &GPUCommon::Execute_MorphWeight },
// Control spline/bezier patches. Don't really require flushing as such, but meh.
{ GE_CMD_PATCHDIVISION, FLAG_FLUSHBEFOREONCHANGE },
{ GE_CMD_PATCHPRIMITIVE, FLAG_FLUSHBEFOREONCHANGE },
{ GE_CMD_PATCHFACING, FLAG_FLUSHBEFOREONCHANGE, DIRTY_VERTEXSHADER_STATE },
{ GE_CMD_PATCHCULLENABLE, FLAG_FLUSHBEFOREONCHANGE },
// Can probably ignore this one as we don't support AA lines.
{ GE_CMD_ANTIALIASENABLE, FLAG_FLUSHBEFOREONCHANGE },
// Viewport.
{ GE_CMD_OFFSETX, FLAG_FLUSHBEFOREONCHANGE, DIRTY_VIEWPORTSCISSOR_STATE | DIRTY_CULLRANGE },
{ GE_CMD_OFFSETY, FLAG_FLUSHBEFOREONCHANGE, DIRTY_VIEWPORTSCISSOR_STATE | DIRTY_CULLRANGE },
{ GE_CMD_VIEWPORTXSCALE, FLAG_FLUSHBEFOREONCHANGE, DIRTY_FRAMEBUF | DIRTY_TEXTURE_PARAMS | DIRTY_CULLRANGE | DIRTY_PROJMATRIX | DIRTY_VIEWPORTSCISSOR_STATE },
{ GE_CMD_VIEWPORTYSCALE, FLAG_FLUSHBEFOREONCHANGE, DIRTY_FRAMEBUF | DIRTY_TEXTURE_PARAMS | DIRTY_CULLRANGE | DIRTY_PROJMATRIX | DIRTY_VIEWPORTSCISSOR_STATE },
{ GE_CMD_VIEWPORTXCENTER, FLAG_FLUSHBEFOREONCHANGE, DIRTY_FRAMEBUF | DIRTY_TEXTURE_PARAMS | DIRTY_CULLRANGE | DIRTY_PROJMATRIX | DIRTY_VIEWPORTSCISSOR_STATE },
{ GE_CMD_VIEWPORTYCENTER, FLAG_FLUSHBEFOREONCHANGE, DIRTY_FRAMEBUF | DIRTY_TEXTURE_PARAMS | DIRTY_CULLRANGE | DIRTY_PROJMATRIX | DIRTY_VIEWPORTSCISSOR_STATE },
{ GE_CMD_VIEWPORTZSCALE, FLAG_FLUSHBEFOREONCHANGE, DIRTY_FRAMEBUF | DIRTY_TEXTURE_PARAMS | DIRTY_CULLRANGE | DIRTY_DEPTHRANGE | DIRTY_PROJMATRIX | DIRTY_VIEWPORTSCISSOR_STATE },
{ GE_CMD_VIEWPORTZCENTER, FLAG_FLUSHBEFOREONCHANGE, DIRTY_FRAMEBUF | DIRTY_TEXTURE_PARAMS | DIRTY_CULLRANGE | DIRTY_DEPTHRANGE | DIRTY_PROJMATRIX | DIRTY_VIEWPORTSCISSOR_STATE },
{ GE_CMD_DEPTHCLAMPENABLE, FLAG_FLUSHBEFOREONCHANGE, DIRTY_VIEWPORTSCISSOR_STATE | DIRTY_CULLRANGE | DIRTY_RASTER_STATE },
// Z clip
{ GE_CMD_MINZ, FLAG_FLUSHBEFOREONCHANGE, DIRTY_DEPTHRANGE | DIRTY_RASTER_STATE | DIRTY_VIEWPORTSCISSOR_STATE | DIRTY_CULLRANGE },
{ GE_CMD_MAXZ, FLAG_FLUSHBEFOREONCHANGE, DIRTY_DEPTHRANGE | DIRTY_RASTER_STATE | DIRTY_VIEWPORTSCISSOR_STATE | DIRTY_CULLRANGE },
// Region
{ GE_CMD_REGION1, FLAG_FLUSHBEFOREONCHANGE, DIRTY_FRAMEBUF | DIRTY_TEXTURE_PARAMS | DIRTY_VIEWPORTSCISSOR_STATE | DIRTY_CULLRANGE },
{ GE_CMD_REGION2, FLAG_FLUSHBEFOREONCHANGE, DIRTY_FRAMEBUF | DIRTY_TEXTURE_PARAMS | DIRTY_VIEWPORTSCISSOR_STATE | DIRTY_CULLRANGE },
// Scissor
{ GE_CMD_SCISSOR1, FLAG_FLUSHBEFOREONCHANGE, DIRTY_FRAMEBUF | DIRTY_TEXTURE_PARAMS | DIRTY_VIEWPORTSCISSOR_STATE | DIRTY_CULLRANGE },
{ GE_CMD_SCISSOR2, FLAG_FLUSHBEFOREONCHANGE, DIRTY_FRAMEBUF | DIRTY_TEXTURE_PARAMS | DIRTY_VIEWPORTSCISSOR_STATE | DIRTY_CULLRANGE },
// Lighting base colors
{ GE_CMD_AMBIENTCOLOR, FLAG_FLUSHBEFOREONCHANGE, DIRTY_AMBIENT },
{ GE_CMD_AMBIENTALPHA, FLAG_FLUSHBEFOREONCHANGE, DIRTY_AMBIENT },
{ GE_CMD_MATERIALDIFFUSE, FLAG_FLUSHBEFOREONCHANGE, DIRTY_MATDIFFUSE },
{ GE_CMD_MATERIALEMISSIVE, FLAG_FLUSHBEFOREONCHANGE, DIRTY_MATEMISSIVE },
{ GE_CMD_MATERIALAMBIENT, FLAG_FLUSHBEFOREONCHANGE, DIRTY_MATAMBIENTALPHA },
{ GE_CMD_MATERIALALPHA, FLAG_FLUSHBEFOREONCHANGE, DIRTY_MATAMBIENTALPHA },
{ GE_CMD_MATERIALSPECULAR, FLAG_FLUSHBEFOREONCHANGE, DIRTY_MATSPECULAR },
{ GE_CMD_MATERIALSPECULARCOEF, FLAG_FLUSHBEFOREONCHANGE, DIRTY_MATSPECULAR },
// Light parameters
{ GE_CMD_LX0, FLAG_FLUSHBEFOREONCHANGE, DIRTY_LIGHT0 },
{ GE_CMD_LY0, FLAG_FLUSHBEFOREONCHANGE, DIRTY_LIGHT0 },
{ GE_CMD_LZ0, FLAG_FLUSHBEFOREONCHANGE, DIRTY_LIGHT0 },
{ GE_CMD_LX1, FLAG_FLUSHBEFOREONCHANGE, DIRTY_LIGHT1 },
{ GE_CMD_LY1, FLAG_FLUSHBEFOREONCHANGE, DIRTY_LIGHT1 },
{ GE_CMD_LZ1, FLAG_FLUSHBEFOREONCHANGE, DIRTY_LIGHT1 },
{ GE_CMD_LX2, FLAG_FLUSHBEFOREONCHANGE, DIRTY_LIGHT2 },
{ GE_CMD_LY2, FLAG_FLUSHBEFOREONCHANGE, DIRTY_LIGHT2 },
{ GE_CMD_LZ2, FLAG_FLUSHBEFOREONCHANGE, DIRTY_LIGHT2 },
{ GE_CMD_LX3, FLAG_FLUSHBEFOREONCHANGE, DIRTY_LIGHT3 },
{ GE_CMD_LY3, FLAG_FLUSHBEFOREONCHANGE, DIRTY_LIGHT3 },
{ GE_CMD_LZ3, FLAG_FLUSHBEFOREONCHANGE, DIRTY_LIGHT3 },
{ GE_CMD_LDX0, FLAG_FLUSHBEFOREONCHANGE, DIRTY_LIGHT0 },
{ GE_CMD_LDY0, FLAG_FLUSHBEFOREONCHANGE, DIRTY_LIGHT0 },
{ GE_CMD_LDZ0, FLAG_FLUSHBEFOREONCHANGE, DIRTY_LIGHT0 },
{ GE_CMD_LDX1, FLAG_FLUSHBEFOREONCHANGE, DIRTY_LIGHT1 },
{ GE_CMD_LDY1, FLAG_FLUSHBEFOREONCHANGE, DIRTY_LIGHT1 },
{ GE_CMD_LDZ1, FLAG_FLUSHBEFOREONCHANGE, DIRTY_LIGHT1 },
{ GE_CMD_LDX2, FLAG_FLUSHBEFOREONCHANGE, DIRTY_LIGHT2 },
{ GE_CMD_LDY2, FLAG_FLUSHBEFOREONCHANGE, DIRTY_LIGHT2 },
{ GE_CMD_LDZ2, FLAG_FLUSHBEFOREONCHANGE, DIRTY_LIGHT2 },
{ GE_CMD_LDX3, FLAG_FLUSHBEFOREONCHANGE, DIRTY_LIGHT3 },
{ GE_CMD_LDY3, FLAG_FLUSHBEFOREONCHANGE, DIRTY_LIGHT3 },
{ GE_CMD_LDZ3, FLAG_FLUSHBEFOREONCHANGE, DIRTY_LIGHT3 },
{ GE_CMD_LKA0, FLAG_FLUSHBEFOREONCHANGE, DIRTY_LIGHT0 },
{ GE_CMD_LKB0, FLAG_FLUSHBEFOREONCHANGE, DIRTY_LIGHT0 },
{ GE_CMD_LKC0, FLAG_FLUSHBEFOREONCHANGE, DIRTY_LIGHT0 },
{ GE_CMD_LKA1, FLAG_FLUSHBEFOREONCHANGE, DIRTY_LIGHT1 },
{ GE_CMD_LKB1, FLAG_FLUSHBEFOREONCHANGE, DIRTY_LIGHT1 },
{ GE_CMD_LKC1, FLAG_FLUSHBEFOREONCHANGE, DIRTY_LIGHT1 },
{ GE_CMD_LKA2, FLAG_FLUSHBEFOREONCHANGE, DIRTY_LIGHT2 },
{ GE_CMD_LKB2, FLAG_FLUSHBEFOREONCHANGE, DIRTY_LIGHT2 },
{ GE_CMD_LKC2, FLAG_FLUSHBEFOREONCHANGE, DIRTY_LIGHT2 },
{ GE_CMD_LKA3, FLAG_FLUSHBEFOREONCHANGE, DIRTY_LIGHT3 },
{ GE_CMD_LKB3, FLAG_FLUSHBEFOREONCHANGE, DIRTY_LIGHT3 },
{ GE_CMD_LKC3, FLAG_FLUSHBEFOREONCHANGE, DIRTY_LIGHT3 },
{ GE_CMD_LKS0, FLAG_FLUSHBEFOREONCHANGE, DIRTY_LIGHT0 },
{ GE_CMD_LKS1, FLAG_FLUSHBEFOREONCHANGE, DIRTY_LIGHT1 },
{ GE_CMD_LKS2, FLAG_FLUSHBEFOREONCHANGE, DIRTY_LIGHT2 },
{ GE_CMD_LKS3, FLAG_FLUSHBEFOREONCHANGE, DIRTY_LIGHT3 },
{ GE_CMD_LKO0, FLAG_FLUSHBEFOREONCHANGE, DIRTY_LIGHT0 },
{ GE_CMD_LKO1, FLAG_FLUSHBEFOREONCHANGE, DIRTY_LIGHT1 },
{ GE_CMD_LKO2, FLAG_FLUSHBEFOREONCHANGE, DIRTY_LIGHT2 },
{ GE_CMD_LKO3, FLAG_FLUSHBEFOREONCHANGE, DIRTY_LIGHT3 },
{ GE_CMD_LAC0, FLAG_FLUSHBEFOREONCHANGE, DIRTY_LIGHT0 },
{ GE_CMD_LDC0, FLAG_FLUSHBEFOREONCHANGE, DIRTY_LIGHT0 },
{ GE_CMD_LSC0, FLAG_FLUSHBEFOREONCHANGE, DIRTY_LIGHT0 },
{ GE_CMD_LAC1, FLAG_FLUSHBEFOREONCHANGE, DIRTY_LIGHT1 },
{ GE_CMD_LDC1, FLAG_FLUSHBEFOREONCHANGE, DIRTY_LIGHT1 },
{ GE_CMD_LSC1, FLAG_FLUSHBEFOREONCHANGE, DIRTY_LIGHT1 },
{ GE_CMD_LAC2, FLAG_FLUSHBEFOREONCHANGE, DIRTY_LIGHT2 },
{ GE_CMD_LDC2, FLAG_FLUSHBEFOREONCHANGE, DIRTY_LIGHT2 },
{ GE_CMD_LSC2, FLAG_FLUSHBEFOREONCHANGE, DIRTY_LIGHT2 },
{ GE_CMD_LAC3, FLAG_FLUSHBEFOREONCHANGE, DIRTY_LIGHT3 },
{ GE_CMD_LDC3, FLAG_FLUSHBEFOREONCHANGE, DIRTY_LIGHT3 },
{ GE_CMD_LSC3, FLAG_FLUSHBEFOREONCHANGE, DIRTY_LIGHT3 },
// Ignored commands
{ GE_CMD_TEXFLUSH, 0 },
{ GE_CMD_TEXSYNC, 0 },
// These are just nop or part of other later commands.
{ GE_CMD_NOP, 0 },
{ GE_CMD_BASE, 0 },
{ GE_CMD_TRANSFERSRC, 0 },
{ GE_CMD_TRANSFERSRCW, 0 },
{ GE_CMD_TRANSFERDST, 0 },
{ GE_CMD_TRANSFERDSTW, 0 },
{ GE_CMD_TRANSFERSRCPOS, 0 },
{ GE_CMD_TRANSFERDSTPOS, 0 },
{ GE_CMD_TRANSFERSIZE, 0 },
{ GE_CMD_TRANSFERSTART, FLAG_EXECUTE | FLAG_READS_PC, 0, &GPUCommon::Execute_BlockTransferStart },
// We don't use the dither table.
{ GE_CMD_DITH0 },
{ GE_CMD_DITH1 },
{ GE_CMD_DITH2 },
{ GE_CMD_DITH3 },
// These handle their own flushing.
{ GE_CMD_WORLDMATRIXNUMBER, FLAG_EXECUTE | FLAG_READS_PC | FLAG_WRITES_PC, 0, &GPUCommon::Execute_WorldMtxNum },
{ GE_CMD_WORLDMATRIXDATA, FLAG_EXECUTE, 0, &GPUCommon::Execute_WorldMtxData },
{ GE_CMD_VIEWMATRIXNUMBER, FLAG_EXECUTE | FLAG_READS_PC | FLAG_WRITES_PC, 0, &GPUCommon::Execute_ViewMtxNum },
{ GE_CMD_VIEWMATRIXDATA, FLAG_EXECUTE, 0, &GPUCommon::Execute_ViewMtxData },
{ GE_CMD_PROJMATRIXNUMBER, FLAG_EXECUTE | FLAG_READS_PC | FLAG_WRITES_PC, 0, &GPUCommon::Execute_ProjMtxNum },
{ GE_CMD_PROJMATRIXDATA, FLAG_EXECUTE, 0, &GPUCommon::Execute_ProjMtxData },
{ GE_CMD_TGENMATRIXNUMBER, FLAG_EXECUTE | FLAG_READS_PC | FLAG_WRITES_PC, 0, &GPUCommon::Execute_TgenMtxNum },
{ GE_CMD_TGENMATRIXDATA, FLAG_EXECUTE, 0, &GPUCommon::Execute_TgenMtxData },
{ GE_CMD_BONEMATRIXNUMBER, FLAG_EXECUTE | FLAG_READS_PC | FLAG_WRITES_PC, 0, &GPUCommon::Execute_BoneMtxNum },
{ GE_CMD_BONEMATRIXDATA, FLAG_EXECUTE, 0, &GPUCommon::Execute_BoneMtxData },
// Vertex Screen/Texture/Color
{ GE_CMD_VSCX },
{ GE_CMD_VSCY },
{ GE_CMD_VSCZ },
{ GE_CMD_VTCS },
{ GE_CMD_VTCT },
{ GE_CMD_VTCQ },
{ GE_CMD_VCV },
{ GE_CMD_VAP, FLAG_EXECUTE, 0, &GPUCommon::Execute_ImmVertexAlphaPrim },
{ GE_CMD_VFC },
{ GE_CMD_VSCV },
// "Missing" commands (gaps in the sequence)
{ GE_CMD_UNKNOWN_03, FLAG_EXECUTE, 0, &GPUCommon::Execute_Unknown },
{ GE_CMD_UNKNOWN_0D, FLAG_EXECUTE, 0, &GPUCommon::Execute_Unknown },
{ GE_CMD_UNKNOWN_11, FLAG_EXECUTE, 0, &GPUCommon::Execute_Unknown },
{ GE_CMD_UNKNOWN_29, FLAG_EXECUTE, 0, &GPUCommon::Execute_Unknown },
{ GE_CMD_UNKNOWN_34, FLAG_EXECUTE, 0, &GPUCommon::Execute_Unknown },
{ GE_CMD_UNKNOWN_35, FLAG_EXECUTE, 0, &GPUCommon::Execute_Unknown },
{ GE_CMD_UNKNOWN_39, FLAG_EXECUTE, 0, &GPUCommon::Execute_Unknown },
{ GE_CMD_UNKNOWN_4E, FLAG_EXECUTE, 0, &GPUCommon::Execute_Unknown },
{ GE_CMD_UNKNOWN_4F, FLAG_EXECUTE, 0, &GPUCommon::Execute_Unknown },
{ GE_CMD_UNKNOWN_52, FLAG_EXECUTE, 0, &GPUCommon::Execute_Unknown },
{ GE_CMD_UNKNOWN_59, FLAG_EXECUTE, 0, &GPUCommon::Execute_Unknown },
{ GE_CMD_UNKNOWN_5A, FLAG_EXECUTE, 0, &GPUCommon::Execute_Unknown },
{ GE_CMD_UNKNOWN_B6, FLAG_EXECUTE, 0, &GPUCommon::Execute_Unknown },
{ GE_CMD_UNKNOWN_B7, FLAG_EXECUTE, 0, &GPUCommon::Execute_Unknown },
{ GE_CMD_UNKNOWN_D1, FLAG_EXECUTE, 0, &GPUCommon::Execute_Unknown },
{ GE_CMD_UNKNOWN_ED, FLAG_EXECUTE, 0, &GPUCommon::Execute_Unknown },
{ GE_CMD_UNKNOWN_EF, FLAG_EXECUTE, 0, &GPUCommon::Execute_Unknown },
{ GE_CMD_UNKNOWN_FA, FLAG_EXECUTE, 0, &GPUCommon::Execute_Unknown },
{ GE_CMD_UNKNOWN_FB, FLAG_EXECUTE, 0, &GPUCommon::Execute_Unknown },
{ GE_CMD_UNKNOWN_FC, FLAG_EXECUTE, 0, &GPUCommon::Execute_Unknown },
{ GE_CMD_UNKNOWN_FD, FLAG_EXECUTE, 0, &GPUCommon::Execute_Unknown },
{ GE_CMD_UNKNOWN_FE, FLAG_EXECUTE, 0, &GPUCommon::Execute_Unknown },
// Appears to be debugging related or something? Hit a lot in GoW.
{ GE_CMD_NOP_FF, 0 },
};
// TODO: Make class member?
GPUCommon::CommandInfo GPUCommon::cmdInfo_[256];
void GPUCommon::Flush() {
drawEngineCommon_->DispatchFlush();
}
void GPUCommon::DispatchFlush() {
drawEngineCommon_->DispatchFlush();
}
GPUCommon::GPUCommon(GraphicsContext *gfxCtx, Draw::DrawContext *draw) :
gfxCtx_(gfxCtx),
draw_(draw)
{
// This assert failed on GCC x86 32-bit (but not MSVC 32-bit!) before adding the
// "padding" field at the end. This is important for save state compatibility.
// The compiler was not rounding the struct size up to an 8 byte boundary, which
// you'd expect due to the int64 field, but the Linux ABI apparently does not require that.
static_assert(sizeof(DisplayList) == 456, "Bad DisplayList size");
Reinitialize();
gstate.Reset();
gstate_c.Reset();
gpuStats.Reset();
memset(cmdInfo_, 0, sizeof(cmdInfo_));
// Convert the command table to a faster format, and check for dupes.
std::set<u8> dupeCheck;
for (size_t i = 0; i < ARRAY_SIZE(commonCommandTable); i++) {
const u8 cmd = commonCommandTable[i].cmd;
if (dupeCheck.find(cmd) != dupeCheck.end()) {
ERROR_LOG(G3D, "Command table Dupe: %02x (%i)", (int)cmd, (int)cmd);
} else {
dupeCheck.insert(cmd);
}
cmdInfo_[cmd].flags |= (uint64_t)commonCommandTable[i].flags | (commonCommandTable[i].dirty << 8);
cmdInfo_[cmd].func = commonCommandTable[i].func;
if ((cmdInfo_[cmd].flags & (FLAG_EXECUTE | FLAG_EXECUTEONCHANGE)) && !cmdInfo_[cmd].func) {
// Can't have FLAG_EXECUTE commands without a function pointer to execute.
Crash();
}
}
// Find commands missing from the table.
for (int i = 0; i < 0xEF; i++) {
if (dupeCheck.find((u8)i) == dupeCheck.end()) {
ERROR_LOG(G3D, "Command missing from table: %02x (%i)", i, i);
}
}
UpdateCmdInfo();
UpdateVsyncInterval(true);
ResetMatrices();
PPGeSetDrawContext(draw);
}
GPUCommon::~GPUCommon() {
// Probably not necessary.
PPGeSetDrawContext(nullptr);
}
void GPUCommon::UpdateCmdInfo() {
if (g_Config.bSoftwareSkinning) {
cmdInfo_[GE_CMD_VERTEXTYPE].flags &= ~FLAG_FLUSHBEFOREONCHANGE;
cmdInfo_[GE_CMD_VERTEXTYPE].func = &GPUCommon::Execute_VertexTypeSkinning;
} else {
cmdInfo_[GE_CMD_VERTEXTYPE].flags |= FLAG_FLUSHBEFOREONCHANGE;
cmdInfo_[GE_CMD_VERTEXTYPE].func = &GPUCommon::Execute_VertexType;
}
if (g_Config.bFastMemory) {
cmdInfo_[GE_CMD_JUMP].func = &GPUCommon::Execute_JumpFast;
cmdInfo_[GE_CMD_CALL].func = &GPUCommon::Execute_CallFast;
} else {
cmdInfo_[GE_CMD_JUMP].func = &GPUCommon::Execute_Jump;
cmdInfo_[GE_CMD_CALL].func = &GPUCommon::Execute_Call;
}
// Reconfigure for light ubershader or not.
for (int i = 0; i < 4; i++) {
if (gstate_c.Use(GPU_USE_LIGHT_UBERSHADER)) {
cmdInfo_[GE_CMD_LIGHTENABLE0 + i].RemoveDirty(DIRTY_VERTEXSHADER_STATE);
cmdInfo_[GE_CMD_LIGHTENABLE0 + i].AddDirty(DIRTY_LIGHT_CONTROL);
cmdInfo_[GE_CMD_LIGHTTYPE0 + i].RemoveDirty(DIRTY_VERTEXSHADER_STATE);
cmdInfo_[GE_CMD_LIGHTTYPE0 + i].AddDirty(DIRTY_LIGHT_CONTROL);
} else {
cmdInfo_[GE_CMD_LIGHTENABLE0 + i].RemoveDirty(DIRTY_LIGHT_CONTROL);
cmdInfo_[GE_CMD_LIGHTENABLE0 + i].AddDirty(DIRTY_VERTEXSHADER_STATE);
cmdInfo_[GE_CMD_LIGHTTYPE0 + i].RemoveDirty(DIRTY_LIGHT_CONTROL);
cmdInfo_[GE_CMD_LIGHTTYPE0 + i].AddDirty(DIRTY_VERTEXSHADER_STATE);
}
}
if (gstate_c.Use(GPU_USE_LIGHT_UBERSHADER)) {
cmdInfo_[GE_CMD_MATERIALUPDATE].RemoveDirty(DIRTY_VERTEXSHADER_STATE);
cmdInfo_[GE_CMD_MATERIALUPDATE].AddDirty(DIRTY_LIGHT_CONTROL);
} else {
cmdInfo_[GE_CMD_MATERIALUPDATE].RemoveDirty(DIRTY_LIGHT_CONTROL);
cmdInfo_[GE_CMD_MATERIALUPDATE].AddDirty(DIRTY_VERTEXSHADER_STATE);
}
}
void GPUCommon::BeginHostFrame() {
UpdateVsyncInterval(displayResized_);
ReapplyGfxState();
// TODO: Assume config may have changed - maybe move to resize.
gstate_c.Dirty(DIRTY_ALL);
UpdateCmdInfo();
CheckConfigChanged();
CheckDisplayResized();
CheckRenderResized();
}
void GPUCommon::EndHostFrame() {
// Probably not necessary.
if (draw_) {
draw_->Invalidate(InvalidationFlags::CACHED_RENDER_STATE);
}
}
void GPUCommon::Reinitialize() {
memset(dls, 0, sizeof(dls));
for (int i = 0; i < DisplayListMaxCount; ++i) {
dls[i].state = PSP_GE_DL_STATE_NONE;
dls[i].waitTicks = 0;
}
nextListID = 0;
currentList = nullptr;
isbreak = false;
drawCompleteTicks = 0;
busyTicks = 0;
timeSpentStepping_ = 0.0;
interruptsEnabled_ = true;
if (textureCache_)
textureCache_->Clear(true);
if (framebufferManager_)
framebufferManager_->DestroyAllFBOs();
}
// Call at the END of the GPU implementation's DeviceLost
void GPUCommon::DeviceLost() {
framebufferManager_->DeviceLost();
draw_ = nullptr;
}
// Call at the start of the GPU implementation's DeviceRestore
void GPUCommon::DeviceRestore() {
draw_ = (Draw::DrawContext *)PSP_CoreParameter().graphicsContext->GetDrawContext();
framebufferManager_->DeviceRestore(draw_);
PPGeSetDrawContext(draw_);
}
void GPUCommon::UpdateVsyncInterval(bool force) {
#if !(PPSSPP_PLATFORM(ANDROID) || defined(USING_QT_UI) || PPSSPP_PLATFORM(UWP) || PPSSPP_PLATFORM(IOS))
int desiredVSyncInterval = g_Config.bVSync ? 1 : 0;
if (PSP_CoreParameter().fastForward) {
desiredVSyncInterval = 0;
}
if (PSP_CoreParameter().fpsLimit != FPSLimit::NORMAL) {
int limit;
if (PSP_CoreParameter().fpsLimit == FPSLimit::CUSTOM1)
limit = g_Config.iFpsLimit1;
else if (PSP_CoreParameter().fpsLimit == FPSLimit::CUSTOM2)
limit = g_Config.iFpsLimit2;
else
limit = PSP_CoreParameter().analogFpsLimit;
// For an alternative speed that is a clean factor of 60, the user probably still wants vsync.
if (limit == 0 || (limit >= 0 && limit != 15 && limit != 30 && limit != 60)) {
desiredVSyncInterval = 0;
}
}
if (desiredVSyncInterval != lastVsync_ || force) {
// Disabled EXT_swap_control_tear for now, it never seems to settle at the correct timing
// so it just keeps tearing. Not what I hoped for... (gl_extensions.EXT_swap_control_tear)
// See http://developer.download.nvidia.com/opengl/specs/WGL_EXT_swap_control_tear.txt
if (gfxCtx_)
gfxCtx_->SwapInterval(desiredVSyncInterval);
lastVsync_ = desiredVSyncInterval;
}
#endif
}
int GPUCommon::EstimatePerVertexCost() {
// TODO: This is transform cost, also account for rasterization cost somehow... although it probably
// runs in parallel with transform.
// Also, this is all pure guesswork. If we can find a way to do measurements, that would be great.
// GTA wants a low value to run smooth, GoW wants a high value (otherwise it thinks things
// went too fast and starts doing all the work over again).
int cost = 20;
if (gstate.isLightingEnabled()) {
cost += 10;
for (int i = 0; i < 4; i++) {
if (gstate.isLightChanEnabled(i))
cost += 7;
}
}
if (gstate.getUVGenMode() != GE_TEXMAP_TEXTURE_COORDS) {
cost += 20;
}
int morphCount = gstate.getNumMorphWeights();
if (morphCount > 1) {
cost += 5 * morphCount;
}
return cost;
}
void GPUCommon::PopDLQueue() {
if(!dlQueue.empty()) {
dlQueue.pop_front();
if(!dlQueue.empty()) {
bool running = currentList->state == PSP_GE_DL_STATE_RUNNING;
currentList = &dls[dlQueue.front()];
if (running)
currentList->state = PSP_GE_DL_STATE_RUNNING;
} else {
currentList = nullptr;
}
}
}
bool GPUCommon::BusyDrawing() {
u32 state = DrawSync(1);
if (state == PSP_GE_LIST_DRAWING || state == PSP_GE_LIST_STALLING) {
if (currentList && currentList->state != PSP_GE_DL_STATE_PAUSED) {
return true;
}
}
return false;
}
void GPUCommon::NotifyConfigChanged() {
configChanged_ = true;
}
void GPUCommon::NotifyRenderResized() {
renderResized_ = true;
}
void GPUCommon::NotifyDisplayResized() {
displayResized_ = true;
}
void GPUCommon::ClearCacheNextFrame() {
textureCache_->ClearNextFrame();
}
// Called once per frame. Might also get called during the pause screen
// if "transparent".
void GPUCommon::CheckConfigChanged() {
if (configChanged_) {
ClearCacheNextFrame();
gstate_c.useFlags = CheckGPUFeatures();
drawEngineCommon_->NotifyConfigChanged();
textureCache_->NotifyConfigChanged();
framebufferManager_->NotifyConfigChanged();
BuildReportingInfo();
configChanged_ = false;
}
// Check needed when running tests.
if (framebufferManager_) {
framebufferManager_->CheckPostShaders();
}
}
void GPUCommon::CheckDisplayResized() {
if (displayResized_) {
framebufferManager_->NotifyDisplayResized();
displayResized_ = false;
}
}
void GPUCommon::CheckRenderResized() {
if (renderResized_) {
framebufferManager_->NotifyRenderResized();
renderResized_ = false;
}
}
void GPUCommon::DumpNextFrame() {
dumpNextFrame_ = true;
}
u32 GPUCommon::DrawSync(int mode) {
if (mode < 0 || mode > 1)
return SCE_KERNEL_ERROR_INVALID_MODE;
if (mode == 0) {
if (!__KernelIsDispatchEnabled()) {
return SCE_KERNEL_ERROR_CAN_NOT_WAIT;
}
if (__IsInInterrupt()) {
return SCE_KERNEL_ERROR_ILLEGAL_CONTEXT;
}
if (drawCompleteTicks > CoreTiming::GetTicks()) {
__GeWaitCurrentThread(GPU_SYNC_DRAW, 1, "GeDrawSync");
} else {
for (int i = 0; i < DisplayListMaxCount; ++i) {
if (dls[i].state == PSP_GE_DL_STATE_COMPLETED) {
dls[i].state = PSP_GE_DL_STATE_NONE;
}
}
}
return 0;
}
// If there's no current list, it must be complete.
DisplayList *top = NULL;
for (auto it = dlQueue.begin(), end = dlQueue.end(); it != end; ++it) {
if (dls[*it].state != PSP_GE_DL_STATE_COMPLETED) {
top = &dls[*it];
break;
}
}
if (!top || top->state == PSP_GE_DL_STATE_COMPLETED)
return PSP_GE_LIST_COMPLETED;
if (currentList->pc == currentList->stall)
return PSP_GE_LIST_STALLING;
return PSP_GE_LIST_DRAWING;
}
void GPUCommon::CheckDrawSync() {
if (dlQueue.empty()) {
for (int i = 0; i < DisplayListMaxCount; ++i)
dls[i].state = PSP_GE_DL_STATE_NONE;
}
}
int GPUCommon::ListSync(int listid, int mode) {
if (listid < 0 || listid >= DisplayListMaxCount)
return SCE_KERNEL_ERROR_INVALID_ID;
if (mode < 0 || mode > 1)
return SCE_KERNEL_ERROR_INVALID_MODE;
DisplayList& dl = dls[listid];
if (mode == 1) {
switch (dl.state) {
case PSP_GE_DL_STATE_QUEUED:
if (dl.interrupted)
return PSP_GE_LIST_PAUSED;
return PSP_GE_LIST_QUEUED;
case PSP_GE_DL_STATE_RUNNING:
if (dl.pc == dl.stall)
return PSP_GE_LIST_STALLING;
return PSP_GE_LIST_DRAWING;
case PSP_GE_DL_STATE_COMPLETED:
return PSP_GE_LIST_COMPLETED;
case PSP_GE_DL_STATE_PAUSED:
return PSP_GE_LIST_PAUSED;
default:
return SCE_KERNEL_ERROR_INVALID_ID;
}
}
if (!__KernelIsDispatchEnabled()) {
return SCE_KERNEL_ERROR_CAN_NOT_WAIT;
}
if (__IsInInterrupt()) {
return SCE_KERNEL_ERROR_ILLEGAL_CONTEXT;
}
if (dl.waitTicks > CoreTiming::GetTicks()) {
__GeWaitCurrentThread(GPU_SYNC_LIST, listid, "GeListSync");
}
return PSP_GE_LIST_COMPLETED;
}
int GPUCommon::GetStack(int index, u32 stackPtr) {
if (!currentList) {
// Seems like it doesn't return an error code?
return 0;
}
if (currentList->stackptr <= index) {
return SCE_KERNEL_ERROR_INVALID_INDEX;
}
if (index >= 0) {
auto stack = PSPPointer<u32_le>::Create(stackPtr);
if (stack.IsValid()) {
auto entry = currentList->stack[index];
// Not really sure what most of these values are.
stack[0] = 0;
stack[1] = entry.pc + 4;
stack[2] = entry.offsetAddr;
stack[7] = entry.baseAddr;
}
}
return currentList->stackptr;
}
static void CopyMatrix24(u32_le *result, const float *mtx, u32 count, u32 cmdbits) {
for (u32 i = 0; i < count; ++i) {
result[i] = toFloat24(mtx[i]) | cmdbits;
}
}
bool GPUCommon::GetMatrix24(GEMatrixType type, u32_le *result, u32 cmdbits) {
switch (type) {
case GE_MTX_BONE0:
case GE_MTX_BONE1:
case GE_MTX_BONE2:
case GE_MTX_BONE3:
case GE_MTX_BONE4:
case GE_MTX_BONE5:
case GE_MTX_BONE6:
case GE_MTX_BONE7:
CopyMatrix24(result, gstate.boneMatrix + (type - GE_MTX_BONE0) * 12, 12, cmdbits);
break;
case GE_MTX_TEXGEN:
CopyMatrix24(result, gstate.tgenMatrix, 12, cmdbits);
break;
case GE_MTX_WORLD:
CopyMatrix24(result, gstate.worldMatrix, 12, cmdbits);
break;
case GE_MTX_VIEW:
CopyMatrix24(result, gstate.viewMatrix, 12, cmdbits);
break;
case GE_MTX_PROJECTION:
CopyMatrix24(result, gstate.projMatrix, 16, cmdbits);
break;
default:
return false;
}
return true;
}
void GPUCommon::ResetMatrices() {
// This means we restored a context, so update the visible matrix data.
for (size_t i = 0; i < ARRAY_SIZE(gstate.boneMatrix); ++i)
matrixVisible.bone[i] = toFloat24(gstate.boneMatrix[i]);
for (size_t i = 0; i < ARRAY_SIZE(gstate.worldMatrix); ++i)
matrixVisible.world[i] = toFloat24(gstate.worldMatrix[i]);
for (size_t i = 0; i < ARRAY_SIZE(gstate.viewMatrix); ++i)
matrixVisible.view[i] = toFloat24(gstate.viewMatrix[i]);
for (size_t i = 0; i < ARRAY_SIZE(gstate.projMatrix); ++i)
matrixVisible.proj[i] = toFloat24(gstate.projMatrix[i]);
for (size_t i = 0; i < ARRAY_SIZE(gstate.tgenMatrix); ++i)
matrixVisible.tgen[i] = toFloat24(gstate.tgenMatrix[i]);
// Assume all the matrices changed, so dirty things related to them.
gstate_c.Dirty(DIRTY_WORLDMATRIX | DIRTY_VIEWMATRIX | DIRTY_PROJMATRIX | DIRTY_TEXMATRIX | DIRTY_FRAGMENTSHADER_STATE | DIRTY_BONE_UNIFORMS);
}
u32 GPUCommon::EnqueueList(u32 listpc, u32 stall, int subIntrBase, PSPPointer<PspGeListArgs> args, bool head) {
// TODO Check the stack values in missing arg and ajust the stack depth
// Check alignment
// TODO Check the context and stack alignement too
if (((listpc | stall) & 3) != 0 || !Memory::IsValidAddress(listpc)) {
ERROR_LOG_REPORT(G3D, "sceGeListEnqueue: invalid address %08x", listpc);
return SCE_KERNEL_ERROR_INVALID_POINTER;
}
// If args->size is below 16, it's the old struct without stack info.
if (args.IsValid() && args->size >= 16 && args->numStacks >= 256) {
return hleLogError(G3D, SCE_KERNEL_ERROR_INVALID_SIZE, "invalid stack depth %d", args->numStacks);
}
int id = -1;
u64 currentTicks = CoreTiming::GetTicks();
u32 stackAddr = args.IsValid() && args->size >= 16 ? (u32)args->stackAddr : 0;
// Check compatibility
if (sceKernelGetCompiledSdkVersion() > 0x01FFFFFF) {
//numStacks = 0;
//stack = NULL;
for (int i = 0; i < DisplayListMaxCount; ++i) {
if (dls[i].state != PSP_GE_DL_STATE_NONE && dls[i].state != PSP_GE_DL_STATE_COMPLETED) {
// Logically, if the CPU has not interrupted yet, it hasn't seen the latest pc either.
// Exit enqueues right after an END, which fails without ignoring pendingInterrupt lists.
if (dls[i].pc == listpc && !dls[i].pendingInterrupt) {
ERROR_LOG(G3D, "sceGeListEnqueue: can't enqueue, list address %08X already used", listpc);
return 0x80000021;
} else if (stackAddr != 0 && dls[i].stackAddr == stackAddr && !dls[i].pendingInterrupt) {
ERROR_LOG(G3D, "sceGeListEnqueue: can't enqueue, stack address %08X already used", stackAddr);
return 0x80000021;
}
}
}
}
// TODO Check if list stack dls[i].stack already used then return 0x80000021 as above
for (int i = 0; i < DisplayListMaxCount; ++i) {
int possibleID = (i + nextListID) % DisplayListMaxCount;
auto possibleList = dls[possibleID];
if (possibleList.pendingInterrupt) {
continue;
}
if (possibleList.state == PSP_GE_DL_STATE_NONE) {
id = possibleID;
break;
}
if (possibleList.state == PSP_GE_DL_STATE_COMPLETED && possibleList.waitTicks < currentTicks) {
id = possibleID;
}
}
if (id < 0) {
ERROR_LOG_REPORT(G3D, "No DL ID available to enqueue");
for (auto it = dlQueue.begin(); it != dlQueue.end(); ++it) {
DisplayList &dl = dls[*it];
DEBUG_LOG(G3D, "DisplayList %d status %d pc %08x stall %08x", *it, dl.state, dl.pc, dl.stall);
}
return SCE_KERNEL_ERROR_OUT_OF_MEMORY;
}
nextListID = id + 1;
DisplayList &dl = dls[id];
dl.id = id;
dl.startpc = listpc & 0x0FFFFFFF;
dl.pc = listpc & 0x0FFFFFFF;
dl.stall = stall & 0x0FFFFFFF;
dl.subIntrBase = std::max(subIntrBase, -1);
dl.stackptr = 0;
dl.signal = PSP_GE_SIGNAL_NONE;
dl.interrupted = false;
dl.waitTicks = (u64)-1;
dl.interruptsEnabled = interruptsEnabled_;
dl.started = false;
dl.offsetAddr = 0;
dl.bboxResult = false;
dl.stackAddr = stackAddr;
if (args.IsValid() && args->context.IsValid())
dl.context = args->context;
else
dl.context = 0;
if (head) {
if (currentList) {
if (currentList->state != PSP_GE_DL_STATE_PAUSED)
return SCE_KERNEL_ERROR_INVALID_VALUE;
currentList->state = PSP_GE_DL_STATE_QUEUED;
// Make sure we clear the signal so we don't try to pause it again.
currentList->signal = PSP_GE_SIGNAL_NONE;
}
dl.state = PSP_GE_DL_STATE_PAUSED;
currentList = &dl;
dlQueue.push_front(id);
} else if (currentList) {
dl.state = PSP_GE_DL_STATE_QUEUED;
dlQueue.push_back(id);
} else {
dl.state = PSP_GE_DL_STATE_RUNNING;
currentList = &dl;
dlQueue.push_front(id);
drawCompleteTicks = (u64)-1;
// TODO save context when starting the list if param is set
ProcessDLQueue();
}
return id;
}
u32 GPUCommon::DequeueList(int listid) {
if (listid < 0 || listid >= DisplayListMaxCount || dls[listid].state == PSP_GE_DL_STATE_NONE)
return SCE_KERNEL_ERROR_INVALID_ID;
auto &dl = dls[listid];
if (dl.started)
return SCE_KERNEL_ERROR_BUSY;
dl.state = PSP_GE_DL_STATE_NONE;
if (listid == dlQueue.front())
PopDLQueue();
else
dlQueue.remove(listid);
dl.waitTicks = 0;
__GeTriggerWait(GPU_SYNC_LIST, listid);
CheckDrawSync();
return 0;
}
u32 GPUCommon::UpdateStall(int listid, u32 newstall) {
if (listid < 0 || listid >= DisplayListMaxCount || dls[listid].state == PSP_GE_DL_STATE_NONE)
return SCE_KERNEL_ERROR_INVALID_ID;
auto &dl = dls[listid];
if (dl.state == PSP_GE_DL_STATE_COMPLETED)
return SCE_KERNEL_ERROR_ALREADY;
dl.stall = newstall & 0x0FFFFFFF;
ProcessDLQueue();
return 0;
}
u32 GPUCommon::Continue() {
if (!currentList)
return 0;
if (currentList->state == PSP_GE_DL_STATE_PAUSED)
{
if (!isbreak) {
// TODO: Supposedly this returns SCE_KERNEL_ERROR_BUSY in some case, previously it had
// currentList->signal == PSP_GE_SIGNAL_HANDLER_PAUSE, but it doesn't reproduce.
currentList->state = PSP_GE_DL_STATE_RUNNING;
currentList->signal = PSP_GE_SIGNAL_NONE;
// TODO Restore context of DL is necessary
// TODO Restore BASE
// We have a list now, so it's not complete.
drawCompleteTicks = (u64)-1;
} else {
currentList->state = PSP_GE_DL_STATE_QUEUED;
currentList->signal = PSP_GE_SIGNAL_NONE;
}
}
else if (currentList->state == PSP_GE_DL_STATE_RUNNING)
{
if (sceKernelGetCompiledSdkVersion() >= 0x02000000)
return 0x80000020;
return -1;
}
else
{
if (sceKernelGetCompiledSdkVersion() >= 0x02000000)
return 0x80000004;
return -1;
}
ProcessDLQueue();
return 0;
}
u32 GPUCommon::Break(int mode) {
if (mode < 0 || mode > 1)
return SCE_KERNEL_ERROR_INVALID_MODE;
if (!currentList)
return SCE_KERNEL_ERROR_ALREADY;
if (mode == 1)
{
// Clear the queue
dlQueue.clear();
for (int i = 0; i < DisplayListMaxCount; ++i)
{
dls[i].state = PSP_GE_DL_STATE_NONE;
dls[i].signal = PSP_GE_SIGNAL_NONE;
}
nextListID = 0;
currentList = NULL;
return 0;
}
if (currentList->state == PSP_GE_DL_STATE_NONE || currentList->state == PSP_GE_DL_STATE_COMPLETED)
{
if (sceKernelGetCompiledSdkVersion() >= 0x02000000)
return 0x80000004;
return -1;
}
if (currentList->state == PSP_GE_DL_STATE_PAUSED)
{
if (sceKernelGetCompiledSdkVersion() > 0x02000010)
{
if (currentList->signal == PSP_GE_SIGNAL_HANDLER_PAUSE)
{
ERROR_LOG_REPORT(G3D, "sceGeBreak: can't break signal-pausing list");
}
else
return SCE_KERNEL_ERROR_ALREADY;
}
return SCE_KERNEL_ERROR_BUSY;
}
if (currentList->state == PSP_GE_DL_STATE_QUEUED)
{
currentList->state = PSP_GE_DL_STATE_PAUSED;
return currentList->id;
}
// TODO Save BASE
// TODO Adjust pc to be just before SIGNAL/END
// TODO: Is this right?
if (currentList->signal == PSP_GE_SIGNAL_SYNC)
currentList->pc += 8;
currentList->interrupted = true;
currentList->state = PSP_GE_DL_STATE_PAUSED;
currentList->signal = PSP_GE_SIGNAL_HANDLER_SUSPEND;
isbreak = true;
return currentList->id;
}
void GPUCommon::NotifySteppingEnter() {
if (coreCollectDebugStats) {
timeSteppingStarted_ = time_now_d();
}
}
void GPUCommon::NotifySteppingExit() {
if (coreCollectDebugStats) {
if (timeSteppingStarted_ <= 0.0) {
ERROR_LOG(G3D, "Mismatched stepping enter/exit.");
}
double total = time_now_d() - timeSteppingStarted_;
_dbg_assert_msg_(total >= 0.0, "Time spent stepping became negative");
timeSpentStepping_ += total;
timeSteppingStarted_ = 0.0;
}
}
bool GPUCommon::InterpretList(DisplayList &list) {
// Initialized to avoid a race condition with bShowDebugStats changing.
double start = 0.0;
if (coreCollectDebugStats) {
start = time_now_d();
}
if (list.state == PSP_GE_DL_STATE_PAUSED)
return false;
currentList = &list;
if (!list.started && list.context.IsValid()) {
gstate.Save(list.context);
}
list.started = true;
gstate_c.offsetAddr = list.offsetAddr;
if (!Memory::IsValidAddress(list.pc)) {
ERROR_LOG_REPORT(G3D, "DL PC = %08x WTF!!!!", list.pc);
return true;
}
cycleLastPC = list.pc;
cyclesExecuted += 60;
downcount = list.stall == 0 ? 0x0FFFFFFF : (list.stall - list.pc) / 4;
list.state = PSP_GE_DL_STATE_RUNNING;
list.interrupted = false;
gpuState = list.pc == list.stall ? GPUSTATE_STALL : GPUSTATE_RUNNING;
// To enable breakpoints, we don't do fast matrix loads while debugger active.
debugRecording_ = GPUDebug::IsActive() || GPURecord::IsActive();
const bool useFastRunLoop = !dumpThisFrame_ && !debugRecording_;
while (gpuState == GPUSTATE_RUNNING) {
{
if (list.pc == list.stall) {
gpuState = GPUSTATE_STALL;
downcount = 0;
}
}
if (useFastRunLoop) {
FastRunLoop(list);
} else {
SlowRunLoop(list);
}
{
downcount = list.stall == 0 ? 0x0FFFFFFF : (list.stall - list.pc) / 4;
if (gpuState == GPUSTATE_STALL && list.stall != list.pc) {
// Unstalled.
gpuState = GPUSTATE_RUNNING;
}
}
}
FinishDeferred();
if (debugRecording_)
GPURecord::NotifyCPU();
// We haven't run the op at list.pc, so it shouldn't count.
if (cycleLastPC != list.pc) {
UpdatePC(list.pc - 4, list.pc);
}
list.offsetAddr = gstate_c.offsetAddr;
if (coreCollectDebugStats) {
double total = time_now_d() - start - timeSpentStepping_;
_dbg_assert_msg_(total >= 0.0, "Time spent DL processing became negative");
hleSetSteppingTime(timeSpentStepping_);
DisplayNotifySleep(timeSpentStepping_);
timeSpentStepping_ = 0.0;
gpuStats.msProcessingDisplayLists += total;
}
return gpuState == GPUSTATE_DONE || gpuState == GPUSTATE_ERROR;
}
// Maybe should write this in ASM...
void GPUCommon::FastRunLoop(DisplayList &list) {
PROFILE_THIS_SCOPE("gpuloop");
const CommandInfo *cmdInfo = cmdInfo_;
int dc = downcount;
for (; dc > 0; --dc) {
// We know that display list PCs have the upper nibble == 0 - no need to mask the pointer
const u32 op = *(const u32_le *)(Memory::base + list.pc);
const u32 cmd = op >> 24;
const CommandInfo &info = cmdInfo[cmd];
const u32 diff = op ^ gstate.cmdmem[cmd];
if (diff == 0) {
if (info.flags & FLAG_EXECUTE) {
downcount = dc;
(this->*info.func)(op, diff);
dc = downcount;
}
} else {
uint64_t flags = info.flags;
if (flags & FLAG_FLUSHBEFOREONCHANGE) {
if (drawEngineCommon_->GetNumDrawCalls()) {
drawEngineCommon_->DispatchFlush();
}
}
gstate.cmdmem[cmd] = op;
if (flags & (FLAG_EXECUTE | FLAG_EXECUTEONCHANGE)) {
downcount = dc;
(this->*info.func)(op, diff);
dc = downcount;
} else {
uint64_t dirty = flags >> 8;
if (dirty)
gstate_c.Dirty(dirty);
}
}
list.pc += 4;
}
downcount = 0;
}
void GPUCommon::BeginFrame() {
immCount_ = 0;
if (dumpNextFrame_) {
NOTICE_LOG(G3D, "DUMPING THIS FRAME");
dumpThisFrame_ = true;
dumpNextFrame_ = false;
} else if (dumpThisFrame_) {
dumpThisFrame_ = false;
}
GPUDebug::NotifyBeginFrame();
GPURecord::NotifyBeginFrame();
if (drawEngineCommon_->EverUsedExactEqualDepth() && !sawExactEqualDepth_) {
sawExactEqualDepth_ = true;
gstate_c.useFlags = CheckGPUFeatures();
}
}
void GPUCommon::SlowRunLoop(DisplayList &list)
{
const bool dumpThisFrame = dumpThisFrame_;
while (downcount > 0)
{
bool process = GPUDebug::NotifyCommand(list.pc);
if (process) {
GPURecord::NotifyCommand(list.pc);
u32 op = Memory::ReadUnchecked_U32(list.pc);
u32 cmd = op >> 24;
u32 diff = op ^ gstate.cmdmem[cmd];
PreExecuteOp(op, diff);
if (dumpThisFrame) {
char temp[256];
u32 prev;
if (Memory::IsValidAddress(list.pc - 4)) {
prev = Memory::ReadUnchecked_U32(list.pc - 4);
} else {
prev = 0;
}
GeDisassembleOp(list.pc, op, prev, temp, 256);
NOTICE_LOG(G3D, "%08x: %s", op, temp);
}
gstate.cmdmem[cmd] = op;
ExecuteOp(op, diff);
}
list.pc += 4;
--downcount;
}
}
// The newPC parameter is used for jumps, we don't count cycles between.
void GPUCommon::UpdatePC(u32 currentPC, u32 newPC) {
// Rough estimate, 2 CPU ticks (it's double the clock rate) per GPU instruction.
u32 executed = (currentPC - cycleLastPC) / 4;
cyclesExecuted += 2 * executed;
cycleLastPC = newPC;
if (coreCollectDebugStats) {
gpuStats.otherGPUCycles += 2 * executed;
gpuStats.gpuCommandsAtCallLevel[std::min(currentList->stackptr, 3)] += executed;
}
// Exit the runloop and recalculate things. This happens a lot in some games.
if (currentList)
downcount = currentList->stall == 0 ? 0x0FFFFFFF : (currentList->stall - newPC) / 4;
else
downcount = 0;
}
void GPUCommon::ReapplyGfxState() {
// The commands are embedded in the command memory so we can just reexecute the words. Convenient.
// To be safe we pass 0xFFFFFFFF as the diff.
// TODO: Consider whether any of this should really be done. We might be able to get all the way
// by simplying dirtying the appropriate gstate_c dirty flags.
for (int i = GE_CMD_VERTEXTYPE; i < GE_CMD_BONEMATRIXNUMBER; i++) {
if (i != GE_CMD_ORIGIN && i != GE_CMD_OFFSETADDR) {
ExecuteOp(gstate.cmdmem[i], 0xFFFFFFFF);
}
}
// Can't write to bonematrixnumber here
for (int i = GE_CMD_MORPHWEIGHT0; i <= GE_CMD_PATCHFACING; i++) {
ExecuteOp(gstate.cmdmem[i], 0xFFFFFFFF);
}
// There are a few here in the middle that we shouldn't execute...
// 0x42 to 0xEA
for (int i = GE_CMD_VIEWPORTXSCALE; i < GE_CMD_TRANSFERSTART; i++) {
switch (i) {
case GE_CMD_LOADCLUT:
case GE_CMD_TEXSYNC:
case GE_CMD_TEXFLUSH:
break;
default:
ExecuteOp(gstate.cmdmem[i], 0xFFFFFFFF);
break;
}
}
// Let's just skip the transfer size stuff, it's just values.
}
uint32_t GPUCommon::SetAddrTranslation(uint32_t value) {
std::swap(edramTranslation_, value);
return value;
}
uint32_t GPUCommon::GetAddrTranslation() {
return edramTranslation_;
}
inline void GPUCommon::UpdateState(GPURunState state) {
gpuState = state;
if (state != GPUSTATE_RUNNING)
downcount = 0;
}
int GPUCommon::GetNextListIndex() {
auto iter = dlQueue.begin();
if (iter != dlQueue.end()) {
return *iter;
} else {
return -1;
}
}
void GPUCommon::ProcessDLQueue() {
startingTicks = CoreTiming::GetTicks();
cyclesExecuted = 0;
// Seems to be correct behaviour to process the list anyway?
if (startingTicks < busyTicks) {
DEBUG_LOG(G3D, "Can't execute a list yet, still busy for %lld ticks", busyTicks - startingTicks);
//return;
}
for (int listIndex = GetNextListIndex(); listIndex != -1; listIndex = GetNextListIndex()) {
DisplayList &l = dls[listIndex];
DEBUG_LOG(G3D, "Starting DL execution at %08x - stall = %08x", l.pc, l.stall);
if (!InterpretList(l)) {
return;
} else {
// Some other list could've taken the spot while we dilly-dallied around.
if (l.state != PSP_GE_DL_STATE_QUEUED) {
// At the end, we can remove it from the queue and continue.
dlQueue.erase(std::remove(dlQueue.begin(), dlQueue.end(), listIndex), dlQueue.end());
}
}
}
currentList = nullptr;
drawCompleteTicks = startingTicks + cyclesExecuted;
busyTicks = std::max(busyTicks, drawCompleteTicks);
__GeTriggerSync(GPU_SYNC_DRAW, 1, drawCompleteTicks);
// Since the event is in CoreTiming, we're in sync. Just set 0 now.
}
void GPUCommon::PreExecuteOp(u32 op, u32 diff) {
// Nothing to do
}
void GPUCommon::Execute_OffsetAddr(u32 op, u32 diff) {
gstate_c.offsetAddr = op << 8;
}
void GPUCommon::Execute_Vaddr(u32 op, u32 diff) {
gstate_c.vertexAddr = gstate_c.getRelativeAddress(op & 0x00FFFFFF);
}
void GPUCommon::Execute_Iaddr(u32 op, u32 diff) {
gstate_c.indexAddr = gstate_c.getRelativeAddress(op & 0x00FFFFFF);
}
void GPUCommon::Execute_Origin(u32 op, u32 diff) {
if (currentList)
gstate_c.offsetAddr = currentList->pc;
}
void GPUCommon::Execute_Jump(u32 op, u32 diff) {
const u32 target = gstate_c.getRelativeAddress(op & 0x00FFFFFC);
if (!Memory::IsValidAddress(target)) {
ERROR_LOG(G3D, "JUMP to illegal address %08x - ignoring! data=%06x", target, op & 0x00FFFFFF);
UpdateState(GPUSTATE_ERROR);
return;
}
UpdatePC(currentList->pc, target - 4);
currentList->pc = target - 4; // pc will be increased after we return, counteract that
}
void GPUCommon::Execute_JumpFast(u32 op, u32 diff) {
const u32 target = gstate_c.getRelativeAddress(op & 0x00FFFFFC);
UpdatePC(currentList->pc, target - 4);
currentList->pc = target - 4; // pc will be increased after we return, counteract that
}
void GPUCommon::Execute_BJump(u32 op, u32 diff) {
if (!currentList->bboxResult) {
// bounding box jump.
const u32 target = gstate_c.getRelativeAddress(op & 0x00FFFFFC);
if (Memory::IsValidAddress(target)) {
UpdatePC(currentList->pc, target - 4);
currentList->pc = target - 4; // pc will be increased after we return, counteract that
} else {
ERROR_LOG(G3D, "BJUMP to illegal address %08x - ignoring! data=%06x", target, op & 0x00FFFFFF);
UpdateState(GPUSTATE_ERROR);
}
}
}
void GPUCommon::Execute_Call(u32 op, u32 diff) {
PROFILE_THIS_SCOPE("gpu_call");
const u32 target = gstate_c.getRelativeAddress(op & 0x00FFFFFC);
if (!Memory::IsValidAddress(target)) {
ERROR_LOG(G3D, "CALL to illegal address %08x - ignoring! data=%06x", target, op & 0x00FFFFFF);
UpdateState(GPUSTATE_ERROR);
return;
}
DoExecuteCall(target);
}
void GPUCommon::Execute_CallFast(u32 op, u32 diff) {
PROFILE_THIS_SCOPE("gpu_call");
const u32 target = gstate_c.getRelativeAddress(op & 0x00FFFFFC);
DoExecuteCall(target);
}
void GPUCommon::DoExecuteCall(u32 target) {
// Saint Seiya needs correct support for relative calls.
const u32 retval = currentList->pc + 4;
// Bone matrix optimization - many games will CALL a bone matrix (!).
// We don't optimize during recording - so the matrix data gets recorded.
if (!debugRecording_ && (Memory::ReadUnchecked_U32(target) >> 24) == GE_CMD_BONEMATRIXDATA) {
// Check for the end
if ((Memory::ReadUnchecked_U32(target + 11 * 4) >> 24) == GE_CMD_BONEMATRIXDATA &&
(Memory::ReadUnchecked_U32(target + 12 * 4) >> 24) == GE_CMD_RET &&
(gstate.boneMatrixNumber & 0x00FFFFFF) <= 96 - 12) {
// Yep, pretty sure this is a bone matrix call. Double check stall first.
if (target > currentList->stall || target + 12 * 4 < currentList->stall) {
FastLoadBoneMatrix(target);
return;
}
}
}
if (currentList->stackptr == ARRAY_SIZE(currentList->stack)) {
ERROR_LOG(G3D, "CALL: Stack full!");
} else {
auto &stackEntry = currentList->stack[currentList->stackptr++];
stackEntry.pc = retval;
stackEntry.offsetAddr = gstate_c.offsetAddr;
// The base address is NOT saved/restored for a regular call.
UpdatePC(currentList->pc, target - 4);
currentList->pc = target - 4; // pc will be increased after we return, counteract that
}
}
void GPUCommon::Execute_Ret(u32 op, u32 diff) {
if (currentList->stackptr == 0) {
DEBUG_LOG(G3D, "RET: Stack empty!");
} else {
auto &stackEntry = currentList->stack[--currentList->stackptr];
gstate_c.offsetAddr = stackEntry.offsetAddr;
// We always clear the top (uncached/etc.) bits
const u32 target = stackEntry.pc & 0x0FFFFFFF;
UpdatePC(currentList->pc, target - 4);
currentList->pc = target - 4;
#ifdef _DEBUG
if (!Memory::IsValidAddress(currentList->pc)) {
ERROR_LOG_REPORT(G3D, "Invalid DL PC %08x on return", currentList->pc);
UpdateState(GPUSTATE_ERROR);
}
#endif
}
}
void GPUCommon::Execute_End(u32 op, u32 diff) {
if (flushOnParams_)
Flush();
const u32 prev = Memory::ReadUnchecked_U32(currentList->pc - 4);
UpdatePC(currentList->pc, currentList->pc);
// Count in a few extra cycles on END.
cyclesExecuted += 60;
switch (prev >> 24) {
case GE_CMD_SIGNAL:
{
// TODO: see http://code.google.com/p/jpcsp/source/detail?r=2935#
SignalBehavior behaviour = static_cast<SignalBehavior>((prev >> 16) & 0xFF);
const int signal = prev & 0xFFFF;
const int enddata = op & 0xFFFF;
bool trigger = true;
currentList->subIntrToken = signal;
switch (behaviour) {
case PSP_GE_SIGNAL_HANDLER_SUSPEND:
// Suspend the list, and call the signal handler. When it's done, resume.
// Before sdkver 0x02000010, listsync should return paused.
if (sceKernelGetCompiledSdkVersion() <= 0x02000010)
currentList->state = PSP_GE_DL_STATE_PAUSED;
currentList->signal = behaviour;
DEBUG_LOG(G3D, "Signal with wait. signal/end: %04x %04x", signal, enddata);
break;
case PSP_GE_SIGNAL_HANDLER_CONTINUE:
// Resume the list right away, then call the handler.
currentList->signal = behaviour;
DEBUG_LOG(G3D, "Signal without wait. signal/end: %04x %04x", signal, enddata);
break;
case PSP_GE_SIGNAL_HANDLER_PAUSE:
// Pause the list instead of ending at the next FINISH.
// Call the handler with the PAUSE signal value at that FINISH.
// Technically, this ought to trigger an interrupt, but it won't do anything.
// But right now, signal is always reset by interrupts, so that causes pause to not work.
trigger = false;
currentList->signal = behaviour;
DEBUG_LOG(G3D, "Signal with Pause. signal/end: %04x %04x", signal, enddata);
break;
case PSP_GE_SIGNAL_SYNC:
// Acts as a memory barrier, never calls any user code.
// Technically, this ought to trigger an interrupt, but it won't do anything.
// Triggering here can cause incorrect rescheduling, which breaks 3rd Birthday.
// However, this is likely a bug in how GE signal interrupts are handled.
trigger = false;
currentList->signal = behaviour;
DEBUG_LOG(G3D, "Signal with Sync. signal/end: %04x %04x", signal, enddata);
break;
case PSP_GE_SIGNAL_JUMP:
case PSP_GE_SIGNAL_RJUMP:
case PSP_GE_SIGNAL_OJUMP:
{
trigger = false;
currentList->signal = behaviour;
// pc will be increased after we return, counteract that.
u32 target = (((signal << 16) | enddata) & 0xFFFFFFFC) - 4;
const char *targetType = "absolute";
if (behaviour == PSP_GE_SIGNAL_RJUMP) {
target += currentList->pc - 4;
targetType = "relative";
} else if (behaviour == PSP_GE_SIGNAL_OJUMP) {
target = gstate_c.getRelativeAddress(target);
targetType = "origin";
}
if (!Memory::IsValidAddress(target)) {
ERROR_LOG_REPORT(G3D, "Signal with Jump (%s): bad address. signal/end: %04x %04x", targetType, signal, enddata);
UpdateState(GPUSTATE_ERROR);
} else {
UpdatePC(currentList->pc, target);
currentList->pc = target;
DEBUG_LOG(G3D, "Signal with Jump (%s). signal/end: %04x %04x", targetType, signal, enddata);
}
}
break;
case PSP_GE_SIGNAL_CALL:
case PSP_GE_SIGNAL_RCALL:
case PSP_GE_SIGNAL_OCALL:
{
trigger = false;
currentList->signal = behaviour;
// pc will be increased after we return, counteract that.
u32 target = (((signal << 16) | enddata) & 0xFFFFFFFC) - 4;
const char *targetType = "absolute";
if (behaviour == PSP_GE_SIGNAL_RCALL) {
target += currentList->pc - 4;
targetType = "relative";
} else if (behaviour == PSP_GE_SIGNAL_OCALL) {
target = gstate_c.getRelativeAddress(target);
targetType = "origin";
}
if (currentList->stackptr == ARRAY_SIZE(currentList->stack)) {
ERROR_LOG_REPORT(G3D, "Signal with Call (%s): stack full. signal/end: %04x %04x", targetType, signal, enddata);
} else if (!Memory::IsValidAddress(target)) {
ERROR_LOG_REPORT(G3D, "Signal with Call (%s): bad address. signal/end: %04x %04x", targetType, signal, enddata);
UpdateState(GPUSTATE_ERROR);
} else {
// TODO: This might save/restore other state...
auto &stackEntry = currentList->stack[currentList->stackptr++];
stackEntry.pc = currentList->pc;
stackEntry.offsetAddr = gstate_c.offsetAddr;
stackEntry.baseAddr = gstate.base;
UpdatePC(currentList->pc, target);
currentList->pc = target;
DEBUG_LOG(G3D, "Signal with Call (%s). signal/end: %04x %04x", targetType, signal, enddata);
}
}
break;
case PSP_GE_SIGNAL_RET:
{
trigger = false;
currentList->signal = behaviour;
if (currentList->stackptr == 0) {
ERROR_LOG_REPORT(G3D, "Signal with Return: stack empty. signal/end: %04x %04x", signal, enddata);
} else {
// TODO: This might save/restore other state...
auto &stackEntry = currentList->stack[--currentList->stackptr];
gstate_c.offsetAddr = stackEntry.offsetAddr;
gstate.base = stackEntry.baseAddr;
UpdatePC(currentList->pc, stackEntry.pc);
currentList->pc = stackEntry.pc;
DEBUG_LOG(G3D, "Signal with Return. signal/end: %04x %04x", signal, enddata);
}
}
break;
default:
ERROR_LOG_REPORT(G3D, "UNKNOWN Signal UNIMPLEMENTED %i ! signal/end: %04x %04x", behaviour, signal, enddata);
break;
}
// TODO: Technically, jump/call/ret should generate an interrupt, but before the pc change maybe?
if (currentList->interruptsEnabled && trigger) {
if (__GeTriggerInterrupt(currentList->id, currentList->pc, startingTicks + cyclesExecuted)) {
currentList->pendingInterrupt = true;
UpdateState(GPUSTATE_INTERRUPT);
}
}
}
break;
case GE_CMD_FINISH:
switch (currentList->signal) {
case PSP_GE_SIGNAL_HANDLER_PAUSE:
currentList->state = PSP_GE_DL_STATE_PAUSED;
if (currentList->interruptsEnabled) {
if (__GeTriggerInterrupt(currentList->id, currentList->pc, startingTicks + cyclesExecuted)) {
currentList->pendingInterrupt = true;
UpdateState(GPUSTATE_INTERRUPT);
}
}
break;
case PSP_GE_SIGNAL_SYNC:
currentList->signal = PSP_GE_SIGNAL_NONE;
// TODO: Technically this should still cause an interrupt. Probably for memory sync.
break;
default:
FlushImm();
currentList->subIntrToken = prev & 0xFFFF;
UpdateState(GPUSTATE_DONE);
// Since we marked done, we have to restore the context now before the next list runs.
if (currentList->started && currentList->context.IsValid()) {
gstate.Restore(currentList->context);
ReapplyGfxState();
// Don't restore the context again.
currentList->started = false;
}
if (currentList->interruptsEnabled && __GeTriggerInterrupt(currentList->id, currentList->pc, startingTicks + cyclesExecuted)) {
currentList->pendingInterrupt = true;
} else {
currentList->state = PSP_GE_DL_STATE_COMPLETED;
currentList->waitTicks = startingTicks + cyclesExecuted;
busyTicks = std::max(busyTicks, currentList->waitTicks);
__GeTriggerSync(GPU_SYNC_LIST, currentList->id, currentList->waitTicks);
}
break;
}
break;
default:
DEBUG_LOG(G3D,"Ah, not finished: %06x", prev & 0xFFFFFF);
break;
}
}
void GPUCommon::Execute_TexLevel(u32 op, u32 diff) {
// TODO: If you change the rules here, don't forget to update the inner interpreter in Execute_Prim.
if (diff == 0xFFFFFFFF)
return;
gstate.texlevel ^= diff;
if (diff & 0xFF0000) {
// Piggyback on this flag for 3D textures.
gstate_c.Dirty(DIRTY_MIPBIAS);
}
if (gstate.getTexLevelMode() != GE_TEXLEVEL_MODE_AUTO && (0x00FF0000 & gstate.texlevel) != 0) {
Flush();
}
gstate.texlevel ^= diff;
gstate_c.Dirty(DIRTY_TEXTURE_PARAMS | DIRTY_FRAGMENTSHADER_STATE);
}
void GPUCommon::Execute_TexSize0(u32 op, u32 diff) {
// Render to texture may have overridden the width/height.
// Don't reset it unless the size is different / the texture has changed.
if (diff || gstate_c.IsDirty(DIRTY_TEXTURE_IMAGE | DIRTY_TEXTURE_PARAMS)) {
gstate_c.curTextureWidth = gstate.getTextureWidth(0);
gstate_c.curTextureHeight = gstate.getTextureHeight(0);
gstate_c.Dirty(DIRTY_UVSCALEOFFSET);
// We will need to reset the texture now.
gstate_c.Dirty(DIRTY_TEXTURE_PARAMS);
}
}
void GPUCommon::Execute_VertexType(u32 op, u32 diff) {
if (diff)
gstate_c.Dirty(DIRTY_VERTEXSHADER_STATE);
if (diff & (GE_VTYPE_TC_MASK | GE_VTYPE_THROUGH_MASK)) {
gstate_c.Dirty(DIRTY_UVSCALEOFFSET);
if (diff & GE_VTYPE_THROUGH_MASK)
gstate_c.Dirty(DIRTY_RASTER_STATE | DIRTY_VIEWPORTSCISSOR_STATE | DIRTY_FRAGMENTSHADER_STATE | DIRTY_GEOMETRYSHADER_STATE | DIRTY_CULLRANGE);
}
}
void GPUCommon::Execute_LoadClut(u32 op, u32 diff) {
gstate_c.Dirty(DIRTY_TEXTURE_PARAMS);
textureCache_->LoadClut(gstate.getClutAddress(), gstate.getClutLoadBytes());
}
void GPUCommon::Execute_VertexTypeSkinning(u32 op, u32 diff) {
// Don't flush when weight count changes.
if (diff & ~GE_VTYPE_WEIGHTCOUNT_MASK) {
// Restore and flush
gstate.vertType ^= diff;
Flush();
gstate.vertType ^= diff;
if (diff & (GE_VTYPE_TC_MASK | GE_VTYPE_THROUGH_MASK))
gstate_c.Dirty(DIRTY_UVSCALEOFFSET);
// In this case, we may be doing weights and morphs.
// Update any bone matrix uniforms so it uses them correctly.
if ((op & GE_VTYPE_MORPHCOUNT_MASK) != 0) {
gstate_c.Dirty(gstate_c.deferredVertTypeDirty);
gstate_c.deferredVertTypeDirty = 0;
}
gstate_c.Dirty(DIRTY_VERTEXSHADER_STATE);
}
if (diff & GE_VTYPE_THROUGH_MASK)
gstate_c.Dirty(DIRTY_RASTER_STATE | DIRTY_VIEWPORTSCISSOR_STATE | DIRTY_FRAGMENTSHADER_STATE | DIRTY_GEOMETRYSHADER_STATE | DIRTY_CULLRANGE);
}
void GPUCommon::CheckDepthUsage(VirtualFramebuffer *vfb) {
if (!gstate_c.usingDepth) {
bool isReadingDepth = false;
bool isClearingDepth = false;
bool isWritingDepth = false;
if (gstate.isModeClear()) {
isClearingDepth = gstate.isClearModeDepthMask();
isWritingDepth = isClearingDepth;
} else if (gstate.isDepthTestEnabled()) {
isWritingDepth = gstate.isDepthWriteEnabled();
isReadingDepth = gstate.getDepthTestFunction() > GE_COMP_ALWAYS;
}
if (isWritingDepth || isReadingDepth) {
gstate_c.usingDepth = true;
gstate_c.clearingDepth = isClearingDepth;
vfb->last_frame_depth_render = gpuStats.numFlips;
if (isWritingDepth) {
vfb->last_frame_depth_updated = gpuStats.numFlips;
}
framebufferManager_->SetDepthFrameBuffer(isClearingDepth);
}
}
}
void GPUCommon::Execute_Prim(u32 op, u32 diff) {
// This drives all drawing. All other state we just buffer up, then we apply it only
// when it's time to draw. As most PSP games set state redundantly ALL THE TIME, this is a huge optimization.
PROFILE_THIS_SCOPE("execprim");
u32 data = op & 0xFFFFFF;
u32 count = data & 0xFFFF;
if (count == 0)
return;
FlushImm();
// Upper bits are ignored.
GEPrimitiveType prim = static_cast<GEPrimitiveType>((data >> 16) & 7);
SetDrawType(DRAW_PRIM, prim);
// Discard AA lines as we can't do anything that makes sense with these anyway. The SW plugin might, though.
if (gstate.isAntiAliasEnabled()) {
// Heuristic derived from discussions in #6483 and #12588.
// Discard AA lines in Persona 3 Portable, DOA Paradise and Summon Night 5, while still keeping AA lines in Echochrome.
if ((prim == GE_PRIM_LINE_STRIP || prim == GE_PRIM_LINES) && gstate.getTextureFunction() == GE_TEXFUNC_REPLACE)
return;
}
// Update cached framebuffer format.
// We store it in the cache so it can be modified for blue-to-alpha, next.
gstate_c.framebufFormat = gstate.FrameBufFormat();
if (!Memory::IsValidAddress(gstate_c.vertexAddr)) {
ERROR_LOG(G3D, "Bad vertex address %08x!", gstate_c.vertexAddr);
return;
}
// See the documentation for gstate_c.blueToAlpha.
bool blueToAlpha = false;
if (PSP_CoreParameter().compat.flags().BlueToAlpha) {
if (gstate_c.framebufFormat == GEBufferFormat::GE_FORMAT_565 && gstate.getColorMask() == 0x0FFFFF && !gstate.isLogicOpEnabled()) {
blueToAlpha = true;
gstate_c.framebufFormat = GEBufferFormat::GE_FORMAT_4444;
}
if (blueToAlpha != gstate_c.blueToAlpha) {
gstate_c.blueToAlpha = blueToAlpha;
gstate_c.Dirty(DIRTY_FRAMEBUF | DIRTY_FRAGMENTSHADER_STATE | DIRTY_BLEND_STATE);
}
}
if (PSP_CoreParameter().compat.flags().SplitFramebufferMargin) {
switch (gstate.vertType & 0xFFFFFF) {
case 0x00800102: // through, u16 uv, u16 pos (used for the framebuffer effect in-game)
case 0x0080011c: // through, 8888 color, s16 pos (used for clearing in the margin of the title screen)
case 0x00000183: // float uv, float pos (used for drawing in the margin of the title screen)
// Need to re-check the framebuffer every one of these draws, to update the split if needed.
gstate_c.Dirty(DIRTY_FRAMEBUF);
}
}
// This also makes skipping drawing very effective.
VirtualFramebuffer *vfb = framebufferManager_->SetRenderFrameBuffer(gstate_c.IsDirty(DIRTY_FRAMEBUF), gstate_c.skipDrawReason);
if (blueToAlpha) {
vfb->usageFlags |= FB_USAGE_BLUE_TO_ALPHA;
}
// Must check this after SetRenderFrameBuffer so we know SKIPDRAW_NON_DISPLAYED_FB.
if (gstate_c.skipDrawReason & (SKIPDRAW_SKIPFRAME | SKIPDRAW_NON_DISPLAYED_FB)) {
// Rough estimate, not sure what's correct.
cyclesExecuted += EstimatePerVertexCost() * count;
if (gstate.isModeClear()) {
gpuStats.numClears++;
}
return;
}
CheckDepthUsage(vfb);
const void *verts = Memory::GetPointerUnchecked(gstate_c.vertexAddr);
const void *inds = nullptr;
u32 vertexType = gstate.vertType;
if ((vertexType & GE_VTYPE_IDX_MASK) != GE_VTYPE_IDX_NONE) {
u32 indexAddr = gstate_c.indexAddr;
if (!Memory::IsValidAddress(indexAddr)) {
ERROR_LOG(G3D, "Bad index address %08x!", indexAddr);
return;
}
inds = Memory::GetPointerUnchecked(indexAddr);
}
if (gstate_c.dirty & DIRTY_VERTEXSHADER_STATE) {
vertexCost_ = EstimatePerVertexCost();
}
int bytesRead = 0;
UpdateUVScaleOffset();
// cull mode
int cullMode = gstate.getCullMode();
uint32_t vertTypeID = GetVertTypeID(vertexType, gstate.getUVGenMode(), g_Config.bSoftwareSkinning);
drawEngineCommon_->SubmitPrim(verts, inds, prim, count, vertTypeID, cullMode, &bytesRead);
// After drawing, we advance the vertexAddr (when non indexed) or indexAddr (when indexed).
// Some games rely on this, they don't bother reloading VADDR and IADDR.
// The VADDR/IADDR registers are NOT updated.
AdvanceVerts(vertexType, count, bytesRead);
int totalVertCount = count;
// PRIMs are often followed by more PRIMs. Save some work and submit them immediately.
const u32_le *src = (const u32_le *)Memory::GetPointerUnchecked(currentList->pc + 4);
const u32_le *stall = currentList->stall ? (const u32_le *)Memory::GetPointerUnchecked(currentList->stall) : 0;
int cmdCount = 0;
// Optimized submission of sequences of PRIM. Allows us to avoid going through all the mess
// above for each one. This can be expanded to support additional games that intersperse
// PRIM commands with other commands. A special case is Earth Defence Force 2 that changes culling mode
// between each prim, we just change the triangle winding right here to still be able to join draw calls.
uint32_t vtypeCheckMask = ~GE_VTYPE_WEIGHTCOUNT_MASK;
if (!g_Config.bSoftwareSkinning)
vtypeCheckMask = 0xFFFFFFFF;
if (debugRecording_)
goto bail;
while (src != stall) {
uint32_t data = *src;
switch (data >> 24) {
case GE_CMD_PRIM:
{
u32 count = data & 0xFFFF;
if (count == 0) {
// Ignore.
break;
}
GEPrimitiveType newPrim = static_cast<GEPrimitiveType>((data >> 16) & 7);
SetDrawType(DRAW_PRIM, newPrim);
// TODO: more efficient updating of verts/inds
verts = Memory::GetPointerUnchecked(gstate_c.vertexAddr);
inds = nullptr;
if ((vertexType & GE_VTYPE_IDX_MASK) != GE_VTYPE_IDX_NONE) {
inds = Memory::GetPointerUnchecked(gstate_c.indexAddr);
}
drawEngineCommon_->SubmitPrim(verts, inds, newPrim, count, vertTypeID, cullMode, &bytesRead);
AdvanceVerts(vertexType, count, bytesRead);
totalVertCount += count;
break;
}
case GE_CMD_VERTEXTYPE:
{
uint32_t diff = data ^ vertexType;
// don't mask upper bits, vertexType is unmasked
if (diff & vtypeCheckMask) {
goto bail;
} else {
vertexType = data;
vertTypeID = GetVertTypeID(vertexType, gstate.getUVGenMode(), g_Config.bSoftwareSkinning);
}
break;
}
case GE_CMD_VADDR:
gstate.cmdmem[GE_CMD_VADDR] = data;
gstate_c.vertexAddr = gstate_c.getRelativeAddress(data & 0x00FFFFFF);
break;
case GE_CMD_IADDR:
gstate.cmdmem[GE_CMD_IADDR] = data;
gstate_c.indexAddr = gstate_c.getRelativeAddress(data & 0x00FFFFFF);
break;
case GE_CMD_OFFSETADDR:
gstate.cmdmem[GE_CMD_OFFSETADDR] = data;
gstate_c.offsetAddr = data << 8;
break;
case GE_CMD_BASE:
gstate.cmdmem[GE_CMD_BASE] = data;
break;
case GE_CMD_CULLFACEENABLE:
// Earth Defence Force 2
if (gstate.cmdmem[GE_CMD_CULLFACEENABLE] != data) {
goto bail;
}
break;
case GE_CMD_CULL:
// flip face by indices for triangles
cullMode = data & 1;
break;
case GE_CMD_TEXFLUSH:
case GE_CMD_NOP:
case GE_CMD_NOP_FF:
gstate.cmdmem[data >> 24] = data;
break;
case GE_CMD_BONEMATRIXNUMBER:
gstate.cmdmem[GE_CMD_BONEMATRIXNUMBER] = data;
break;
case GE_CMD_TEXSCALEU:
gstate.cmdmem[GE_CMD_TEXSCALEU] = data;
gstate_c.uv.uScale = getFloat24(data);
break;
case GE_CMD_TEXSCALEV:
gstate.cmdmem[GE_CMD_TEXSCALEV] = data;
gstate_c.uv.vScale = getFloat24(data);
break;
case GE_CMD_TEXOFFSETU:
gstate.cmdmem[GE_CMD_TEXOFFSETU] = data;
gstate_c.uv.uOff = getFloat24(data);
break;
case GE_CMD_TEXOFFSETV:
gstate.cmdmem[GE_CMD_TEXOFFSETV] = data;
gstate_c.uv.vOff = getFloat24(data);
break;
case GE_CMD_TEXLEVEL:
// Same Gran Turismo hack from Execute_TexLevel
if ((data & 3) != GE_TEXLEVEL_MODE_AUTO && (0x00FF0000 & data) != 0) {
goto bail;
}
gstate.cmdmem[GE_CMD_TEXLEVEL] = data;
break;
case GE_CMD_CALL:
{
// A bone matrix probably. If not we bail.
const u32 target = gstate_c.getRelativeAddress(data & 0x00FFFFFC);
if ((Memory::ReadUnchecked_U32(target) >> 24) == GE_CMD_BONEMATRIXDATA &&
(Memory::ReadUnchecked_U32(target + 11 * 4) >> 24) == GE_CMD_BONEMATRIXDATA &&
(Memory::ReadUnchecked_U32(target + 12 * 4) >> 24) == GE_CMD_RET &&
(target > currentList->stall || target + 12 * 4 < currentList->stall) &&
(gstate.boneMatrixNumber & 0x00FFFFFF) <= 96 - 12) {
FastLoadBoneMatrix(target);
} else {
goto bail;
}
break;
}
case GE_CMD_TEXBUFWIDTH0:
case GE_CMD_TEXADDR0:
if (data != gstate.cmdmem[data >> 24])
goto bail;
break;
default:
// All other commands might need a flush or something, stop this inner loop.
goto bail;
}
cmdCount++;
src++;
}
bail:
gstate.cmdmem[GE_CMD_VERTEXTYPE] = vertexType;
// Skip over the commands we just read out manually.
if (cmdCount > 0) {
UpdatePC(currentList->pc, currentList->pc + cmdCount * 4);
currentList->pc += cmdCount * 4;
// flush back cull mode
if (cullMode != gstate.getCullMode()) {
// We rewrote everything to the old cull mode, so flush first.
drawEngineCommon_->DispatchFlush();
// Now update things for next time.
gstate.cmdmem[GE_CMD_CULL] ^= 1;
gstate_c.Dirty(DIRTY_RASTER_STATE);
}
}
gpuStats.vertexGPUCycles += vertexCost_ * totalVertCount;
cyclesExecuted += vertexCost_ * totalVertCount;
}
void GPUCommon::Execute_Bezier(u32 op, u32 diff) {
// We don't dirty on normal changes anymore as we prescale, but it's needed for splines/bezier.
gstate_c.Dirty(DIRTY_UVSCALEOFFSET);
gstate_c.framebufFormat = gstate.FrameBufFormat();
// This also make skipping drawing very effective.
VirtualFramebuffer *vfb = framebufferManager_->SetRenderFrameBuffer(gstate_c.IsDirty(DIRTY_FRAMEBUF), gstate_c.skipDrawReason);
if (gstate_c.skipDrawReason & (SKIPDRAW_SKIPFRAME | SKIPDRAW_NON_DISPLAYED_FB)) {
// TODO: Should this eat some cycles? Probably yes. Not sure if important.
return;
}
CheckDepthUsage(vfb);
if (!Memory::IsValidAddress(gstate_c.vertexAddr)) {
ERROR_LOG_REPORT(G3D, "Bad vertex address %08x!", gstate_c.vertexAddr);
return;
}
const void *control_points = Memory::GetPointerUnchecked(gstate_c.vertexAddr);
const void *indices = NULL;
if ((gstate.vertType & GE_VTYPE_IDX_MASK) != GE_VTYPE_IDX_NONE) {
if (!Memory::IsValidAddress(gstate_c.indexAddr)) {
ERROR_LOG_REPORT(G3D, "Bad index address %08x!", gstate_c.indexAddr);
return;
}
indices = Memory::GetPointerUnchecked(gstate_c.indexAddr);
}
if (vertTypeIsSkinningEnabled(gstate.vertType)) {
DEBUG_LOG_REPORT(G3D, "Unusual bezier/spline vtype: %08x, morph: %d, bones: %d", gstate.vertType, (gstate.vertType & GE_VTYPE_MORPHCOUNT_MASK) >> GE_VTYPE_MORPHCOUNT_SHIFT, vertTypeGetNumBoneWeights(gstate.vertType));
}
// Can't flush after setting gstate_c.submitType below since it'll be a mess - it must be done already.
if (flushOnParams_)
drawEngineCommon_->DispatchFlush();
Spline::BezierSurface surface;
surface.tess_u = gstate.getPatchDivisionU();
surface.tess_v = gstate.getPatchDivisionV();
surface.num_points_u = op & 0xFF;
surface.num_points_v = (op >> 8) & 0xFF;
surface.num_patches_u = (surface.num_points_u - 1) / 3;
surface.num_patches_v = (surface.num_points_v - 1) / 3;
surface.primType = gstate.getPatchPrimitiveType();
surface.patchFacing = gstate.patchfacing & 1;
SetDrawType(DRAW_BEZIER, PatchPrimToPrim(surface.primType));
gstate_c.Dirty(DIRTY_VERTEXSHADER_STATE | DIRTY_GEOMETRYSHADER_STATE);
if (drawEngineCommon_->CanUseHardwareTessellation(surface.primType)) {
gstate_c.submitType = SubmitType::HW_BEZIER;
if (gstate_c.spline_num_points_u != surface.num_points_u) {
gstate_c.Dirty(DIRTY_BEZIERSPLINE);
gstate_c.spline_num_points_u = surface.num_points_u;
}
} else {
gstate_c.submitType = SubmitType::BEZIER;
}
int bytesRead = 0;
UpdateUVScaleOffset();
drawEngineCommon_->SubmitCurve(control_points, indices, surface, gstate.vertType, &bytesRead, "bezier");
gstate_c.Dirty(DIRTY_VERTEXSHADER_STATE | DIRTY_GEOMETRYSHADER_STATE);
gstate_c.submitType = SubmitType::DRAW;
// After drawing, we advance pointers - see SubmitPrim which does the same.
int count = surface.num_points_u * surface.num_points_v;
AdvanceVerts(gstate.vertType, count, bytesRead);
}
void GPUCommon::Execute_Spline(u32 op, u32 diff) {
// We don't dirty on normal changes anymore as we prescale, but it's needed for splines/bezier.
gstate_c.Dirty(DIRTY_UVSCALEOFFSET);
gstate_c.framebufFormat = gstate.FrameBufFormat();
// This also make skipping drawing very effective.
VirtualFramebuffer *vfb = framebufferManager_->SetRenderFrameBuffer(gstate_c.IsDirty(DIRTY_FRAMEBUF), gstate_c.skipDrawReason);
if (gstate_c.skipDrawReason & (SKIPDRAW_SKIPFRAME | SKIPDRAW_NON_DISPLAYED_FB)) {
// TODO: Should this eat some cycles? Probably yes. Not sure if important.
return;
}
CheckDepthUsage(vfb);
if (!Memory::IsValidAddress(gstate_c.vertexAddr)) {
ERROR_LOG_REPORT(G3D, "Bad vertex address %08x!", gstate_c.vertexAddr);
return;
}
const void *control_points = Memory::GetPointerUnchecked(gstate_c.vertexAddr);
const void *indices = NULL;
if ((gstate.vertType & GE_VTYPE_IDX_MASK) != GE_VTYPE_IDX_NONE) {
if (!Memory::IsValidAddress(gstate_c.indexAddr)) {
ERROR_LOG_REPORT(G3D, "Bad index address %08x!", gstate_c.indexAddr);
return;
}
indices = Memory::GetPointerUnchecked(gstate_c.indexAddr);
}
if (vertTypeIsSkinningEnabled(gstate.vertType)) {
DEBUG_LOG_REPORT(G3D, "Unusual bezier/spline vtype: %08x, morph: %d, bones: %d", gstate.vertType, (gstate.vertType & GE_VTYPE_MORPHCOUNT_MASK) >> GE_VTYPE_MORPHCOUNT_SHIFT, vertTypeGetNumBoneWeights(gstate.vertType));
}
// Can't flush after setting gstate_c.submitType below since it'll be a mess - it must be done already.
if (flushOnParams_)
drawEngineCommon_->DispatchFlush();
Spline::SplineSurface surface;
surface.tess_u = gstate.getPatchDivisionU();
surface.tess_v = gstate.getPatchDivisionV();
surface.type_u = (op >> 16) & 0x3;
surface.type_v = (op >> 18) & 0x3;
surface.num_points_u = op & 0xFF;
surface.num_points_v = (op >> 8) & 0xFF;
surface.num_patches_u = surface.num_points_u - 3;
surface.num_patches_v = surface.num_points_v - 3;
surface.primType = gstate.getPatchPrimitiveType();
surface.patchFacing = gstate.patchfacing & 1;
SetDrawType(DRAW_SPLINE, PatchPrimToPrim(surface.primType));
gstate_c.Dirty(DIRTY_VERTEXSHADER_STATE);
if (drawEngineCommon_->CanUseHardwareTessellation(surface.primType)) {
gstate_c.submitType = SubmitType::HW_SPLINE;
if (gstate_c.spline_num_points_u != surface.num_points_u) {
gstate_c.Dirty(DIRTY_BEZIERSPLINE);
gstate_c.spline_num_points_u = surface.num_points_u;
}
} else {
gstate_c.submitType = SubmitType::SPLINE;
}
int bytesRead = 0;
UpdateUVScaleOffset();
drawEngineCommon_->SubmitCurve(control_points, indices, surface, gstate.vertType, &bytesRead, "spline");
gstate_c.Dirty(DIRTY_VERTEXSHADER_STATE | DIRTY_GEOMETRYSHADER_STATE);
gstate_c.submitType = SubmitType::DRAW;
// After drawing, we advance pointers - see SubmitPrim which does the same.
int count = surface.num_points_u * surface.num_points_v;
AdvanceVerts(gstate.vertType, count, bytesRead);
}
void GPUCommon::Execute_BoundingBox(u32 op, u32 diff) {
// Just resetting, nothing to check bounds for.
const u32 count = op & 0xFFFF;
if (count == 0) {
currentList->bboxResult = false;
return;
}
// Approximate based on timings of several counts on a PSP.
cyclesExecuted += count * 22;
const bool useInds = (gstate.vertType & GE_VTYPE_IDX_MASK) != 0;
VertexDecoder *dec = drawEngineCommon_->GetVertexDecoder(gstate.vertType);
int bytesRead = (useInds ? 1 : dec->VertexSize()) * count;
if (Memory::IsValidRange(gstate_c.vertexAddr, bytesRead)) {
const void *control_points = Memory::GetPointerUnchecked(gstate_c.vertexAddr);
if (!control_points) {
ERROR_LOG_REPORT_ONCE(boundingbox, G3D, "Invalid verts in bounding box check");
currentList->bboxResult = true;
return;
}
const void *inds = nullptr;
if (useInds) {
int indexShift = ((gstate.vertType & GE_VTYPE_IDX_MASK) >> GE_VTYPE_IDX_SHIFT) - 1;
inds = Memory::GetPointerUnchecked(gstate_c.indexAddr);
if (!inds || !Memory::IsValidRange(gstate_c.indexAddr, count << indexShift)) {
ERROR_LOG_REPORT_ONCE(boundingboxInds, G3D, "Invalid inds in bounding box check");
currentList->bboxResult = true;
return;
}
}
// Test if the bounding box is within the drawing region.
// The PSP only seems to vary the result based on a single range of 0x100.
if (count > 0x200) {
// The second to last set of 0x100 is checked (even for odd counts.)
size_t skipSize = (count - 0x200) * dec->VertexSize();
currentList->bboxResult = drawEngineCommon_->TestBoundingBox((const uint8_t *)control_points + skipSize, inds, 0x100, gstate.vertType);
} else if (count > 0x100) {
int checkSize = count - 0x100;
currentList->bboxResult = drawEngineCommon_->TestBoundingBox(control_points, inds, checkSize, gstate.vertType);
} else {
currentList->bboxResult = drawEngineCommon_->TestBoundingBox(control_points, inds, count, gstate.vertType);
}
AdvanceVerts(gstate.vertType, count, bytesRead);
} else {
ERROR_LOG_REPORT_ONCE(boundingbox, G3D, "Bad bounding box data: %06x", count);
// Data seems invalid. Let's assume the box test passed.
currentList->bboxResult = true;
}
}
void GPUCommon::Execute_BlockTransferStart(u32 op, u32 diff) {
Flush();
PROFILE_THIS_SCOPE("block"); // don't include the flush in the profile, would be misleading.
gstate_c.framebufFormat = gstate.FrameBufFormat();
// and take appropriate action. This is a block transfer between RAM and VRAM, or vice versa.
// Can we skip this on SkipDraw?
DoBlockTransfer(gstate_c.skipDrawReason);
}
void GPUCommon::Execute_WorldMtxNum(u32 op, u32 diff) {
if (!currentList) {
gstate.worldmtxnum = (GE_CMD_WORLDMATRIXNUMBER << 24) | (op & 0xF);
return;
}
// This is almost always followed by GE_CMD_WORLDMATRIXDATA.
const u32_le *src = (const u32_le *)Memory::GetPointerUnchecked(currentList->pc + 4);
u32 *dst = (u32 *)(gstate.worldMatrix + (op & 0xF));
const int end = 12 - (op & 0xF);
int i = 0;
// We must record the individual data commands while debugRecording_.
bool fastLoad = !debugRecording_ && end > 0;
// Stalling in the middle of a matrix would be stupid, I doubt this check is necessary.
if (currentList->pc < currentList->stall && currentList->pc + end * 4 >= currentList->stall) {
fastLoad = false;
}
if (fastLoad) {
while ((src[i] >> 24) == GE_CMD_WORLDMATRIXDATA) {
const u32 newVal = src[i] << 8;
if (dst[i] != newVal) {
Flush();
dst[i] = newVal;
gstate_c.Dirty(DIRTY_WORLDMATRIX);
}
if (++i >= end) {
break;
}
}
}
const int count = i;
gstate.worldmtxnum = (GE_CMD_WORLDMATRIXNUMBER << 24) | ((op & 0xF) + count);
// Skip over the loaded data, it's done now.
UpdatePC(currentList->pc, currentList->pc + count * 4);
currentList->pc += count * 4;
}
void GPUCommon::Execute_WorldMtxData(u32 op, u32 diff) {
// Note: it's uncommon to get here now, see above.
int num = gstate.worldmtxnum & 0x00FFFFFF;
u32 newVal = op << 8;
if (num < 12 && newVal != ((const u32 *)gstate.worldMatrix)[num]) {
Flush();
((u32 *)gstate.worldMatrix)[num] = newVal;
gstate_c.Dirty(DIRTY_WORLDMATRIX);
}
num++;
gstate.worldmtxnum = (GE_CMD_WORLDMATRIXNUMBER << 24) | (num & 0x00FFFFFF);
gstate.worldmtxdata = GE_CMD_WORLDMATRIXDATA << 24;
}
void GPUCommon::Execute_ViewMtxNum(u32 op, u32 diff) {
if (!currentList) {
gstate.viewmtxnum = (GE_CMD_VIEWMATRIXNUMBER << 24) | (op & 0xF);
return;
}
// This is almost always followed by GE_CMD_VIEWMATRIXDATA.
const u32_le *src = (const u32_le *)Memory::GetPointerUnchecked(currentList->pc + 4);
u32 *dst = (u32 *)(gstate.viewMatrix + (op & 0xF));
const int end = 12 - (op & 0xF);
int i = 0;
bool fastLoad = !debugRecording_ && end > 0;
if (currentList->pc < currentList->stall && currentList->pc + end * 4 >= currentList->stall) {
fastLoad = false;
}
if (fastLoad) {
while ((src[i] >> 24) == GE_CMD_VIEWMATRIXDATA) {
const u32 newVal = src[i] << 8;
if (dst[i] != newVal) {
Flush();
dst[i] = newVal;
gstate_c.Dirty(DIRTY_VIEWMATRIX);
}
if (++i >= end) {
break;
}
}
}
const int count = i;
gstate.viewmtxnum = (GE_CMD_VIEWMATRIXNUMBER << 24) | ((op & 0xF) + count);
// Skip over the loaded data, it's done now.
UpdatePC(currentList->pc, currentList->pc + count * 4);
currentList->pc += count * 4;
}
void GPUCommon::Execute_ViewMtxData(u32 op, u32 diff) {
// Note: it's uncommon to get here now, see above.
int num = gstate.viewmtxnum & 0x00FFFFFF;
u32 newVal = op << 8;
if (num < 12 && newVal != ((const u32 *)gstate.viewMatrix)[num]) {
Flush();
((u32 *)gstate.viewMatrix)[num] = newVal;
gstate_c.Dirty(DIRTY_VIEWMATRIX);
}
num++;
gstate.viewmtxnum = (GE_CMD_VIEWMATRIXNUMBER << 24) | (num & 0x00FFFFFF);
gstate.viewmtxdata = GE_CMD_VIEWMATRIXDATA << 24;
}
void GPUCommon::Execute_ProjMtxNum(u32 op, u32 diff) {
if (!currentList) {
gstate.projmtxnum = (GE_CMD_PROJMATRIXNUMBER << 24) | (op & 0xF);
return;
}
// This is almost always followed by GE_CMD_PROJMATRIXDATA.
const u32_le *src = (const u32_le *)Memory::GetPointerUnchecked(currentList->pc + 4);
u32 *dst = (u32 *)(gstate.projMatrix + (op & 0xF));
const int end = 16 - (op & 0xF);
int i = 0;
bool fastLoad = !debugRecording_;
if (currentList->pc < currentList->stall && currentList->pc + end * 4 >= currentList->stall) {
fastLoad = false;
}
if (fastLoad) {
while ((src[i] >> 24) == GE_CMD_PROJMATRIXDATA) {
const u32 newVal = src[i] << 8;
if (dst[i] != newVal) {
Flush();
dst[i] = newVal;
gstate_c.Dirty(DIRTY_PROJMATRIX);
}
if (++i >= end) {
break;
}
}
}
const int count = i;
gstate.projmtxnum = (GE_CMD_PROJMATRIXNUMBER << 24) | ((op & 0xF) + count);
// Skip over the loaded data, it's done now.
UpdatePC(currentList->pc, currentList->pc + count * 4);
currentList->pc += count * 4;
}
void GPUCommon::Execute_ProjMtxData(u32 op, u32 diff) {
// Note: it's uncommon to get here now, see above.
int num = gstate.projmtxnum & 0x00FFFFFF;
u32 newVal = op << 8;
if (num < 16 && newVal != ((const u32 *)gstate.projMatrix)[num]) {
Flush();
((u32 *)gstate.projMatrix)[num] = newVal;
gstate_c.Dirty(DIRTY_PROJMATRIX);
}
num++;
if (num <= 16)
gstate.projmtxnum = (GE_CMD_PROJMATRIXNUMBER << 24) | (num & 0x00FFFFFF);
gstate.projmtxdata = GE_CMD_PROJMATRIXDATA << 24;
}
void GPUCommon::Execute_TgenMtxNum(u32 op, u32 diff) {
if (!currentList) {
gstate.texmtxnum = (GE_CMD_TGENMATRIXNUMBER << 24) | (op & 0xF);
return;
}
// This is almost always followed by GE_CMD_TGENMATRIXDATA.
const u32_le *src = (const u32_le *)Memory::GetPointerUnchecked(currentList->pc + 4);
u32 *dst = (u32 *)(gstate.tgenMatrix + (op & 0xF));
const int end = 12 - (op & 0xF);
int i = 0;
bool fastLoad = !debugRecording_ && end > 0;
if (currentList->pc < currentList->stall && currentList->pc + end * 4 >= currentList->stall) {
fastLoad = false;
}
if (fastLoad) {
while ((src[i] >> 24) == GE_CMD_TGENMATRIXDATA) {
const u32 newVal = src[i] << 8;
if (dst[i] != newVal) {
Flush();
dst[i] = newVal;
// We check the matrix to see if we need projection.
gstate_c.Dirty(DIRTY_TEXMATRIX | DIRTY_FRAGMENTSHADER_STATE);
}
if (++i >= end) {
break;
}
}
}
const int count = i;
gstate.texmtxnum = (GE_CMD_TGENMATRIXNUMBER << 24) | ((op & 0xF) + count);
// Skip over the loaded data, it's done now.
UpdatePC(currentList->pc, currentList->pc + count * 4);
currentList->pc += count * 4;
}
void GPUCommon::Execute_TgenMtxData(u32 op, u32 diff) {
// Note: it's uncommon to get here now, see above.
int num = gstate.texmtxnum & 0x00FFFFFF;
u32 newVal = op << 8;
if (num < 12 && newVal != ((const u32 *)gstate.tgenMatrix)[num]) {
Flush();
((u32 *)gstate.tgenMatrix)[num] = newVal;
gstate_c.Dirty(DIRTY_TEXMATRIX | DIRTY_FRAGMENTSHADER_STATE); // We check the matrix to see if we need projection
}
num++;
gstate.texmtxnum = (GE_CMD_TGENMATRIXNUMBER << 24) | (num & 0x00FFFFFF);
gstate.texmtxdata = GE_CMD_TGENMATRIXDATA << 24;
}
void GPUCommon::Execute_BoneMtxNum(u32 op, u32 diff) {
if (!currentList) {
gstate.boneMatrixNumber = (GE_CMD_BONEMATRIXNUMBER << 24) | (op & 0x7F);
return;
}
// This is almost always followed by GE_CMD_BONEMATRIXDATA.
const u32_le *src = (const u32_le *)Memory::GetPointerUnchecked(currentList->pc + 4);
u32 *dst = (u32 *)(gstate.boneMatrix + (op & 0x7F));
const int end = 12 * 8 - (op & 0x7F);
int i = 0;
bool fastLoad = !debugRecording_ && end > 0;
if (currentList->pc < currentList->stall && currentList->pc + end * 4 >= currentList->stall) {
fastLoad = false;
}
if (fastLoad) {
// If we can't use software skinning, we have to flush and dirty.
if (!g_Config.bSoftwareSkinning) {
while ((src[i] >> 24) == GE_CMD_BONEMATRIXDATA) {
const u32 newVal = src[i] << 8;
if (dst[i] != newVal) {
Flush();
dst[i] = newVal;
}
if (++i >= end) {
break;
}
}
const unsigned int numPlusCount = (op & 0x7F) + i;
for (unsigned int num = op & 0x7F; num < numPlusCount; num += 12) {
gstate_c.Dirty(DIRTY_BONEMATRIX0 << (num / 12));
}
} else {
while ((src[i] >> 24) == GE_CMD_BONEMATRIXDATA) {
dst[i] = src[i] << 8;
if (++i >= end) {
break;
}
}
const unsigned int numPlusCount = (op & 0x7F) + i;
for (unsigned int num = op & 0x7F; num < numPlusCount; num += 12) {
gstate_c.deferredVertTypeDirty |= DIRTY_BONEMATRIX0 << (num / 12);
}
}
}
const int count = i;
gstate.boneMatrixNumber = (GE_CMD_BONEMATRIXNUMBER << 24) | ((op & 0x7F) + count);
// Skip over the loaded data, it's done now.
UpdatePC(currentList->pc, currentList->pc + count * 4);
currentList->pc += count * 4;
}
void GPUCommon::Execute_BoneMtxData(u32 op, u32 diff) {
// Note: it's uncommon to get here now, see above.
int num = gstate.boneMatrixNumber & 0x00FFFFFF;
u32 newVal = op << 8;
if (num < 96 && newVal != ((const u32 *)gstate.boneMatrix)[num]) {
// Bone matrices should NOT flush when software skinning is enabled!
if (!g_Config.bSoftwareSkinning) {
Flush();
gstate_c.Dirty(DIRTY_BONEMATRIX0 << (num / 12));
} else {
gstate_c.deferredVertTypeDirty |= DIRTY_BONEMATRIX0 << (num / 12);
}
((u32 *)gstate.boneMatrix)[num] = newVal;
}
num++;
gstate.boneMatrixNumber = (GE_CMD_BONEMATRIXNUMBER << 24) | (num & 0x00FFFFFF);
gstate.boneMatrixData = GE_CMD_BONEMATRIXDATA << 24;
}
void GPUCommon::Execute_MorphWeight(u32 op, u32 diff) {
gstate_c.morphWeights[(op >> 24) - GE_CMD_MORPHWEIGHT0] = getFloat24(op);
}
void GPUCommon::Execute_ImmVertexAlphaPrim(u32 op, u32 diff) {
// Safety check.
if (immCount_ >= MAX_IMMBUFFER_SIZE) {
// Only print once for each overrun.
if (immCount_ == MAX_IMMBUFFER_SIZE) {
ERROR_LOG_REPORT_ONCE(exceed_imm_buffer, G3D, "Exceeded immediate draw buffer size. gstate.imm_ap=%06x , prim=%d", gstate.imm_ap & 0xFFFFFF, (int)immPrim_);
}
if (immCount_ < 0x7fffffff) // Paranoia :)
immCount_++;
return;
}
int prim = (op >> 8) & 0x7;
if (prim != GE_PRIM_KEEP_PREVIOUS) {
// Flush before changing the prim type. Only continue can be used to continue a prim.
FlushImm();
}
TransformedVertex &v = immBuffer_[immCount_++];
// ThrillVille does a clear with this, additional parameters found via tests.
// The current vtype affects how the coordinate is processed.
if (gstate.isModeThrough()) {
v.x = ((int)(gstate.imm_vscx & 0xFFFF) - 0x8000) / 16.0f;
v.y = ((int)(gstate.imm_vscy & 0xFFFF) - 0x8000) / 16.0f;
} else {
int offsetX = gstate.getOffsetX16();
int offsetY = gstate.getOffsetY16();
v.x = ((int)(gstate.imm_vscx & 0xFFFF) - offsetX) / 16.0f;
v.y = ((int)(gstate.imm_vscy & 0xFFFF) - offsetY) / 16.0f;
}
v.z = gstate.imm_vscz & 0xFFFF;
v.pos_w = 1.0f;
v.u = getFloat24(gstate.imm_vtcs);
v.v = getFloat24(gstate.imm_vtct);
v.uv_w = getFloat24(gstate.imm_vtcq);
v.color0_32 = (gstate.imm_cv & 0xFFFFFF) | (gstate.imm_ap << 24);
// TODO: When !gstate.isModeThrough(), direct fog coefficient (0 = entirely fog), ignore fog flag (also GE_IMM_FOG.)
v.fog = (gstate.imm_fc & 0xFF) / 255.0f;
// TODO: Apply if gstate.isUsingSecondaryColor() && !gstate.isModeThrough(), ignore lighting flag.
v.color1_32 = gstate.imm_scv & 0xFFFFFF;
if (prim != GE_PRIM_KEEP_PREVIOUS) {
immPrim_ = (GEPrimitiveType)prim;
// Flags seem to only be respected from the first prim.
immFlags_ = op & 0x00FFF800;
immFirstSent_ = false;
} else if (prim == GE_PRIM_KEEP_PREVIOUS && immPrim_ != GE_PRIM_INVALID) {
static constexpr int flushPrimCount[] = { 1, 2, 0, 3, 0, 0, 2, 0 };
// Instead of finding a proper point to flush, we just emit prims when we can.
if (immCount_ == flushPrimCount[immPrim_ & 7])
FlushImm();
} else {
ERROR_LOG_REPORT_ONCE(imm_draw_prim, G3D, "Immediate draw: Unexpected primitive %d at count %d", prim, immCount_);
}
}
void GPUCommon::FlushImm() {
if (immCount_ == 0 || immPrim_ == GE_PRIM_INVALID)
return;
SetDrawType(DRAW_PRIM, immPrim_);
if (framebufferManager_)
framebufferManager_->SetRenderFrameBuffer(gstate_c.IsDirty(DIRTY_FRAMEBUF), gstate_c.skipDrawReason);
if (gstate_c.skipDrawReason & (SKIPDRAW_SKIPFRAME | SKIPDRAW_NON_DISPLAYED_FB)) {
// No idea how many cycles to skip, heh.
immCount_ = 0;
return;
}
UpdateUVScaleOffset();
bool antialias = (immFlags_ & GE_IMM_ANTIALIAS) != 0;
bool prevAntialias = gstate.isAntiAliasEnabled();
bool shading = (immFlags_ & GE_IMM_SHADING) != 0;
bool prevShading = gstate.getShadeMode() == GE_SHADE_GOURAUD;
bool cullEnable = (immFlags_ & GE_IMM_CULLENABLE) != 0;
bool prevCullEnable = gstate.isCullEnabled();
int cullMode = (immFlags_ & GE_IMM_CULLFACE) != 0 ? 1 : 0;
bool texturing = (immFlags_ & GE_IMM_TEXTURE) != 0;
bool prevTexturing = gstate.isTextureMapEnabled();
bool fog = (immFlags_ & GE_IMM_FOG) != 0;
bool prevFog = gstate.isFogEnabled();
bool dither = (immFlags_ & GE_IMM_DITHER) != 0;
bool prevDither = gstate.isDitherEnabled();
if ((immFlags_ & GE_IMM_CLIPMASK) != 0) {
WARN_LOG_REPORT_ONCE(geimmclipvalue, G3D, "Imm vertex used clip value, flags=%06x", immFlags_);
}
bool changed = texturing != prevTexturing || cullEnable != prevCullEnable || dither != prevDither;
changed = changed || prevShading != shading || prevFog != fog;
if (changed) {
DispatchFlush();
gstate.antiAliasEnable = (GE_CMD_ANTIALIASENABLE << 24) | (int)antialias;
gstate.shademodel = (GE_CMD_SHADEMODE << 24) | (int)shading;
gstate.cullfaceEnable = (GE_CMD_CULLFACEENABLE << 24) | (int)cullEnable;
gstate.textureMapEnable = (GE_CMD_TEXTUREMAPENABLE << 24) | (int)texturing;
gstate.fogEnable = (GE_CMD_FOGENABLE << 24) | (int)fog;
gstate.ditherEnable = (GE_CMD_DITHERENABLE << 24) | (int)dither;
gstate_c.Dirty(DIRTY_VERTEXSHADER_STATE | DIRTY_FRAGMENTSHADER_STATE | DIRTY_RASTER_STATE | DIRTY_VIEWPORTSCISSOR_STATE | DIRTY_UVSCALEOFFSET | DIRTY_CULLRANGE);
}
drawEngineCommon_->DispatchSubmitImm(immPrim_, immBuffer_, immCount_, cullMode, immFirstSent_);
immCount_ = 0;
immFirstSent_ = true;
if (changed) {
DispatchFlush();
gstate.antiAliasEnable = (GE_CMD_ANTIALIASENABLE << 24) | (int)prevAntialias;
gstate.shademodel = (GE_CMD_SHADEMODE << 24) | (int)prevShading;
gstate.cullfaceEnable = (GE_CMD_CULLFACEENABLE << 24) | (int)prevCullEnable;
gstate.textureMapEnable = (GE_CMD_TEXTUREMAPENABLE << 24) | (int)prevTexturing;
gstate.fogEnable = (GE_CMD_FOGENABLE << 24) | (int)prevFog;
gstate.ditherEnable = (GE_CMD_DITHERENABLE << 24) | (int)prevDither;
gstate_c.Dirty(DIRTY_VERTEXSHADER_STATE | DIRTY_FRAGMENTSHADER_STATE | DIRTY_RASTER_STATE | DIRTY_VIEWPORTSCISSOR_STATE | DIRTY_UVSCALEOFFSET | DIRTY_CULLRANGE);
}
}
void GPUCommon::ExecuteOp(u32 op, u32 diff) {
const u32 cmd = op >> 24;
// Handle control and drawing commands here directly. The others we delegate.
switch (cmd) {
case GE_CMD_NOP:
break;
case GE_CMD_OFFSETADDR:
Execute_OffsetAddr(op, diff);
break;
case GE_CMD_ORIGIN:
Execute_Origin(op, diff);
break;
case GE_CMD_JUMP:
Execute_Jump(op, diff);
break;
case GE_CMD_BJUMP:
Execute_BJump(op, diff);
break;
case GE_CMD_CALL:
Execute_Call(op, diff);
break;
case GE_CMD_RET:
Execute_Ret(op, diff);
break;
case GE_CMD_SIGNAL:
case GE_CMD_FINISH:
// Processed in GE_END.
break;
case GE_CMD_END:
Execute_End(op, diff);
break;
default:
DEBUG_LOG(G3D, "DL Unknown: %08x @ %08x", op, currentList == NULL ? 0 : currentList->pc);
break;
}
}
void GPUCommon::Execute_Unknown(u32 op, u32 diff) {
if ((op & 0xFFFFFF) != 0)
WARN_LOG_REPORT_ONCE(unknowncmd, G3D, "Unknown GE command : %08x ", op);
}
void GPUCommon::FastLoadBoneMatrix(u32 target) {
const u32 num = gstate.boneMatrixNumber & 0x7F;
_dbg_assert_msg_(num + 12 <= 96, "FastLoadBoneMatrix would corrupt memory");
const u32 mtxNum = num / 12;
u32 uniformsToDirty = DIRTY_BONEMATRIX0 << mtxNum;
if (num != 12 * mtxNum) {
uniformsToDirty |= DIRTY_BONEMATRIX0 << ((mtxNum + 1) & 7);
}
if (!g_Config.bSoftwareSkinning) {
if (flushOnParams_)
Flush();
gstate_c.Dirty(uniformsToDirty);
} else {
gstate_c.deferredVertTypeDirty |= uniformsToDirty;
}
gstate.FastLoadBoneMatrix(target);
}
struct DisplayList_v1 {
int id;
u32 startpc;
u32 pc;
u32 stall;
DisplayListState state;
SignalBehavior signal;
int subIntrBase;
u16 subIntrToken;
DisplayListStackEntry stack[32];
int stackptr;
bool interrupted;
u64 waitTicks;
bool interruptsEnabled;
bool pendingInterrupt;
bool started;
size_t contextPtr;
u32 offsetAddr;
bool bboxResult;
};
struct DisplayList_v2 {
int id;
u32 startpc;
u32 pc;
u32 stall;
DisplayListState state;
SignalBehavior signal;
int subIntrBase;
u16 subIntrToken;
DisplayListStackEntry stack[32];
int stackptr;
bool interrupted;
u64 waitTicks;
bool interruptsEnabled;
bool pendingInterrupt;
bool started;
PSPPointer<u32_le> context;
u32 offsetAddr;
bool bboxResult;
};
void GPUCommon::DoState(PointerWrap &p) {
auto s = p.Section("GPUCommon", 1, 6);
if (!s)
return;
Do<int>(p, dlQueue);
if (s >= 4) {
DoArray(p, dls, ARRAY_SIZE(dls));
} else if (s >= 3) {
// This may have been saved with or without padding, depending on platform.
// We need to upconvert it to our consistently-padded struct.
static const size_t DisplayList_v3_size = 452;
static const size_t DisplayList_v4_size = 456;
static_assert(DisplayList_v4_size == sizeof(DisplayList), "Make sure to change here when updating DisplayList");
p.DoVoid(&dls[0], DisplayList_v3_size);
dls[0].padding = 0;
const u8 *savedPtr = *p.GetPPtr();
const u32 *savedPtr32 = (const u32 *)savedPtr;
// Here's the trick: the first member (id) is always the same as the index.
// The second member (startpc) is always an address, or 0, never 1. So we can see the padding.
const bool hasPadding = savedPtr32[1] == 1;
if (hasPadding) {
u32 padding;
Do(p, padding);
}
for (size_t i = 1; i < ARRAY_SIZE(dls); ++i) {
p.DoVoid(&dls[i], DisplayList_v3_size);
dls[i].padding = 0;
if (hasPadding) {
u32 padding;
Do(p, padding);
}
}
} else if (s >= 2) {
for (size_t i = 0; i < ARRAY_SIZE(dls); ++i) {
DisplayList_v2 oldDL;
Do(p, oldDL);
// Copy over everything except the last, new member (stackAddr.)
memcpy(&dls[i], &oldDL, sizeof(DisplayList_v2));
dls[i].stackAddr = 0;
}
} else {
// Can only be in read mode here.
for (size_t i = 0; i < ARRAY_SIZE(dls); ++i) {
DisplayList_v1 oldDL;
Do(p, oldDL);
// On 32-bit, they're the same, on 64-bit oldDL is bigger.
memcpy(&dls[i], &oldDL, sizeof(DisplayList_v1));
// Fix the other fields. Let's hope context wasn't important, it was a pointer.
dls[i].context = 0;
dls[i].offsetAddr = oldDL.offsetAddr;
dls[i].bboxResult = oldDL.bboxResult;
dls[i].stackAddr = 0;
}
}
int currentID = 0;
if (currentList != nullptr) {
currentID = (int)(currentList - &dls[0]);
}
Do(p, currentID);
if (currentID == 0) {
currentList = nullptr;
} else {
currentList = &dls[currentID];
}
Do(p, interruptRunning);
Do(p, gpuState);
Do(p, isbreak);
Do(p, drawCompleteTicks);
Do(p, busyTicks);
if (s >= 5) {
Do(p, matrixVisible.all);
}
if (s >= 6) {
Do(p, edramTranslation_);
}
}
void GPUCommon::InterruptStart(int listid) {
interruptRunning = true;
}
void GPUCommon::InterruptEnd(int listid) {
interruptRunning = false;
isbreak = false;
DisplayList &dl = dls[listid];
dl.pendingInterrupt = false;
// TODO: Unless the signal handler could change it?
if (dl.state == PSP_GE_DL_STATE_COMPLETED || dl.state == PSP_GE_DL_STATE_NONE) {
if (dl.started && dl.context.IsValid()) {
gstate.Restore(dl.context);
ReapplyGfxState();
}
dl.waitTicks = 0;
__GeTriggerWait(GPU_SYNC_LIST, listid);
// Make sure the list isn't still queued since it's now completed.
if (!dlQueue.empty()) {
if (listid == dlQueue.front())
PopDLQueue();
else
dlQueue.remove(listid);
}
}
ProcessDLQueue();
}
// TODO: Maybe cleaner to keep this in GE and trigger the clear directly?
void GPUCommon::SyncEnd(GPUSyncType waitType, int listid, bool wokeThreads) {
if (waitType == GPU_SYNC_DRAW && wokeThreads)
{
for (int i = 0; i < DisplayListMaxCount; ++i) {
if (dls[i].state == PSP_GE_DL_STATE_COMPLETED) {
dls[i].state = PSP_GE_DL_STATE_NONE;
}
}
}
}
bool GPUCommon::GetCurrentDisplayList(DisplayList &list) {
if (!currentList) {
return false;
}
list = *currentList;
return true;
}
std::vector<DisplayList> GPUCommon::ActiveDisplayLists() {
std::vector<DisplayList> result;
for (auto it = dlQueue.begin(), end = dlQueue.end(); it != end; ++it) {
result.push_back(dls[*it]);
}
return result;
}
void GPUCommon::ResetListPC(int listID, u32 pc) {
if (listID < 0 || listID >= DisplayListMaxCount) {
_dbg_assert_msg_(false, "listID out of range: %d", listID);
return;
}
Reporting::NotifyDebugger();
dls[listID].pc = pc;
downcount = 0;
}
void GPUCommon::ResetListStall(int listID, u32 stall) {
if (listID < 0 || listID >= DisplayListMaxCount) {
_dbg_assert_msg_(false, "listID out of range: %d", listID);
return;
}
Reporting::NotifyDebugger();
dls[listID].stall = stall;
downcount = 0;
}
void GPUCommon::ResetListState(int listID, DisplayListState state) {
if (listID < 0 || listID >= DisplayListMaxCount) {
_dbg_assert_msg_(false, "listID out of range: %d", listID);
return;
}
Reporting::NotifyDebugger();
dls[listID].state = state;
downcount = 0;
}
GPUDebugOp GPUCommon::DissassembleOp(u32 pc, u32 op) {
char buffer[1024];
u32 prev = Memory::IsValidAddress(pc - 4) ? Memory::ReadUnchecked_U32(pc - 4) : 0;
GeDisassembleOp(pc, op, prev, buffer, sizeof(buffer));
GPUDebugOp info;
info.pc = pc;
info.cmd = op >> 24;
info.op = op;
info.desc = buffer;
return info;
}
std::vector<GPUDebugOp> GPUCommon::DissassembleOpRange(u32 startpc, u32 endpc) {
char buffer[1024];
std::vector<GPUDebugOp> result;
GPUDebugOp info;
// Don't trigger a pause.
u32 prev = Memory::IsValidAddress(startpc - 4) ? Memory::Read_U32(startpc - 4) : 0;
for (u32 pc = startpc; pc < endpc; pc += 4) {
u32 op = Memory::IsValidAddress(pc) ? Memory::Read_U32(pc) : 0;
GeDisassembleOp(pc, op, prev, buffer, sizeof(buffer));
prev = op;
info.pc = pc;
info.cmd = op >> 24;
info.op = op;
info.desc = buffer;
result.push_back(info);
}
return result;
}
u32 GPUCommon::GetRelativeAddress(u32 data) {
return gstate_c.getRelativeAddress(data);
}
u32 GPUCommon::GetVertexAddress() {
return gstate_c.vertexAddr;
}
u32 GPUCommon::GetIndexAddress() {
return gstate_c.indexAddr;
}
GPUgstate GPUCommon::GetGState() {
return gstate;
}
void GPUCommon::SetCmdValue(u32 op) {
u32 cmd = op >> 24;
u32 diff = op ^ gstate.cmdmem[cmd];
Reporting::NotifyDebugger();
PreExecuteOp(op, diff);
gstate.cmdmem[cmd] = op;
ExecuteOp(op, diff);
downcount = 0;
}
void GPUCommon::SetDisplayFramebuffer(u32 framebuf, u32 stride, GEBufferFormat format) {
framebufferManager_->SetDisplayFramebuffer(framebuf, stride, format);
}
void GPUCommon::DoBlockTransfer(u32 skipDrawReason) {
u32 srcBasePtr = gstate.getTransferSrcAddress();
u32 srcStride = gstate.getTransferSrcStride();
u32 dstBasePtr = gstate.getTransferDstAddress();
u32 dstStride = gstate.getTransferDstStride();
int srcX = gstate.getTransferSrcX();
int srcY = gstate.getTransferSrcY();
int dstX = gstate.getTransferDstX();
int dstY = gstate.getTransferDstY();
int width = gstate.getTransferWidth();
int height = gstate.getTransferHeight();
int bpp = gstate.getTransferBpp();
DEBUG_LOG(G3D, "Block transfer: %08x/%x -> %08x/%x, %ix%ix%i (%i,%i)->(%i,%i)", srcBasePtr, srcStride, dstBasePtr, dstStride, width, height, bpp, srcX, srcY, dstX, dstY);
// For VRAM, we wrap around when outside valid memory (mirrors still work.)
if ((srcBasePtr & 0x04800000) == 0x04800000)
srcBasePtr &= ~0x00800000;
if ((dstBasePtr & 0x04800000) == 0x04800000)
dstBasePtr &= ~0x00800000;
// Use height less one to account for width, which can be greater or less than stride.
const uint32_t src = srcBasePtr + (srcY * srcStride + srcX) * bpp;
const uint32_t srcSize = (height - 1) * (srcStride + width) * bpp;
const uint32_t dst = dstBasePtr + (dstY * dstStride + dstX) * bpp;
const uint32_t dstSize = (height - 1) * (dstStride + width) * bpp;
bool srcDstOverlap = src + srcSize > dst && dst + dstSize > src;
bool srcValid = Memory::IsValidRange(src, srcSize);
bool dstValid = Memory::IsValidRange(dst, dstSize);
bool srcWraps = Memory::IsVRAMAddress(srcBasePtr) && !srcValid;
bool dstWraps = Memory::IsVRAMAddress(dstBasePtr) && !dstValid;
char tag[128];
size_t tagSize;
// Tell the framebuffer manager to take action if possible. If it does the entire thing, let's just return.
if (!framebufferManager_ || !framebufferManager_->NotifyBlockTransferBefore(dstBasePtr, dstStride, dstX, dstY, srcBasePtr, srcStride, srcX, srcY, width, height, bpp, skipDrawReason)) {
// Do the copy! (Hm, if we detect a drawn video frame (see below) then we could maybe skip this?)
// Can use GetPointerUnchecked because we checked the addresses above. We could also avoid them
// entirely by walking a couple of pointers...
// Simple case: just a straight copy, no overlap or wrapping.
if (srcStride == dstStride && (u32)width == srcStride && !srcDstOverlap && srcValid && dstValid) {
u32 srcLineStartAddr = srcBasePtr + (srcY * srcStride + srcX) * bpp;
u32 dstLineStartAddr = dstBasePtr + (dstY * dstStride + dstX) * bpp;
u32 bytesToCopy = width * height * bpp;
const u8 *srcp = Memory::GetPointer(srcLineStartAddr);
u8 *dstp = Memory::GetPointerWrite(dstLineStartAddr);
memcpy(dstp, srcp, bytesToCopy);
if (MemBlockInfoDetailed(bytesToCopy)) {
tagSize = FormatMemWriteTagAt(tag, sizeof(tag), "GPUBlockTransfer/", src, bytesToCopy);
NotifyMemInfo(MemBlockFlags::READ, src, bytesToCopy, tag, tagSize);
NotifyMemInfo(MemBlockFlags::WRITE, dst, bytesToCopy, tag, tagSize);
}
} else if ((srcDstOverlap || srcWraps || dstWraps) && (srcValid || srcWraps) && (dstValid || dstWraps)) {
// This path means we have either src/dst overlap, OR one or both of src and dst wrap.
// This should be uncommon so it's the slowest path.
u32 bytesToCopy = width * bpp;
bool notifyDetail = MemBlockInfoDetailed(srcWraps || dstWraps ? 64 : bytesToCopy);
bool notifyAll = !notifyDetail && MemBlockInfoDetailed(srcSize, dstSize);
if (notifyDetail || notifyAll) {
tagSize = FormatMemWriteTagAt(tag, sizeof(tag), "GPUBlockTransfer/", src, srcSize);
}
auto notifyingMemmove = [&](u32 d, u32 s, u32 sz) {
const u8 *srcp = Memory::GetPointer(s);
u8 *dstp = Memory::GetPointerWrite(d);
memmove(dstp, srcp, sz);
if (notifyDetail) {
NotifyMemInfo(MemBlockFlags::READ, s, sz, tag, tagSize);
NotifyMemInfo(MemBlockFlags::WRITE, d, sz, tag, tagSize);
}
};
for (int y = 0; y < height; y++) {
u32 srcLineStartAddr = srcBasePtr + ((y + srcY) * srcStride + srcX) * bpp;
u32 dstLineStartAddr = dstBasePtr + ((y + dstY) * dstStride + dstX) * bpp;
// If we already passed a wrap, we can use the quicker path.
if ((srcLineStartAddr & 0x04800000) == 0x04800000)
srcLineStartAddr &= ~0x00800000;
if ((dstLineStartAddr & 0x04800000) == 0x04800000)
dstLineStartAddr &= ~0x00800000;
// These flags mean there's a wrap inside this line.
bool srcLineWrap = !Memory::IsValidRange(srcLineStartAddr, bytesToCopy);
bool dstLineWrap = !Memory::IsValidRange(dstLineStartAddr, bytesToCopy);
if (!srcLineWrap && !dstLineWrap) {
const u8 *srcp = Memory::GetPointer(srcLineStartAddr);
u8 *dstp = Memory::GetPointerWrite(dstLineStartAddr);
for (u32 i = 0; i < bytesToCopy; i += 64) {
u32 chunk = i + 64 > bytesToCopy ? bytesToCopy - i : 64;
memmove(dstp + i, srcp + i, chunk);
}
// If we're tracking detail, it's useful to have the gaps illustrated properly.
if (notifyDetail) {
NotifyMemInfo(MemBlockFlags::READ, srcLineStartAddr, bytesToCopy, tag, tagSize);
NotifyMemInfo(MemBlockFlags::WRITE, dstLineStartAddr, bytesToCopy, tag, tagSize);
}
} else {
// We can wrap at any point, so along with overlap this gets a bit complicated.
// We're just going to do this the slow and easy way.
u32 srcLinePos = srcLineStartAddr;
u32 dstLinePos = dstLineStartAddr;
for (u32 i = 0; i < bytesToCopy; i += 64) {
u32 chunk = i + 64 > bytesToCopy ? bytesToCopy - i : 64;
u32 srcValid = Memory::ValidSize(srcLinePos, chunk);
u32 dstValid = Memory::ValidSize(dstLinePos, chunk);
// First chunk, for which both are valid.
u32 bothSize = std::min(srcValid, dstValid);
if (bothSize != 0)
notifyingMemmove(dstLinePos, srcLinePos, bothSize);
// Now, whichever side has more valid (or the rest, if only one side must wrap.)
u32 exclusiveSize = std::max(srcValid, dstValid) - bothSize;
if (exclusiveSize != 0 && srcValid >= dstValid) {
notifyingMemmove(PSP_GetVidMemBase(), srcLineStartAddr + bothSize, exclusiveSize);
} else if (exclusiveSize != 0 && srcValid < dstValid) {
notifyingMemmove(dstLineStartAddr + bothSize, PSP_GetVidMemBase(), exclusiveSize);
}
// Finally, if both src and dst wrapped, that portion.
u32 wrappedSize = chunk - bothSize - exclusiveSize;
if (wrappedSize != 0 && srcValid >= dstValid) {
notifyingMemmove(PSP_GetVidMemBase() + exclusiveSize, PSP_GetVidMemBase(), wrappedSize);
} else if (wrappedSize != 0 && srcValid < dstValid) {
notifyingMemmove(PSP_GetVidMemBase(), PSP_GetVidMemBase() + exclusiveSize, wrappedSize);
}
srcLinePos += chunk;
dstLinePos += chunk;
if ((srcLinePos & 0x04800000) == 0x04800000)
srcLinePos &= ~0x00800000;
if ((dstLinePos & 0x04800000) == 0x04800000)
dstLinePos &= ~0x00800000;
}
}
}
if (notifyAll) {
if (srcWraps) {
u32 validSize = Memory::ValidSize(src, srcSize);
NotifyMemInfo(MemBlockFlags::READ, src, validSize, tag, tagSize);
NotifyMemInfo(MemBlockFlags::READ, PSP_GetVidMemBase(), srcSize - validSize, tag, tagSize);
} else {
NotifyMemInfo(MemBlockFlags::READ, src, srcSize, tag, tagSize);
}
if (dstWraps) {
u32 validSize = Memory::ValidSize(dst, dstSize);
NotifyMemInfo(MemBlockFlags::WRITE, dst, validSize, tag, tagSize);
NotifyMemInfo(MemBlockFlags::WRITE, PSP_GetVidMemBase(), dstSize - validSize, tag, tagSize);
} else {
NotifyMemInfo(MemBlockFlags::WRITE, dst, dstSize, tag, tagSize);
}
}
} else if (srcValid && dstValid) {
u32 bytesToCopy = width * bpp;
bool notifyDetail = MemBlockInfoDetailed(bytesToCopy);
bool notifyAll = !notifyDetail && MemBlockInfoDetailed(srcSize, dstSize);
if (notifyDetail || notifyAll) {
tagSize = FormatMemWriteTagAt(tag, sizeof(tag), "GPUBlockTransfer/", src, srcSize);
}
for (int y = 0; y < height; y++) {
u32 srcLineStartAddr = srcBasePtr + ((y + srcY) * srcStride + srcX) * bpp;
u32 dstLineStartAddr = dstBasePtr + ((y + dstY) * dstStride + dstX) * bpp;
const u8 *srcp = Memory::GetPointer(srcLineStartAddr);
u8 *dstp = Memory::GetPointerWrite(dstLineStartAddr);
memcpy(dstp, srcp, bytesToCopy);
// If we're tracking detail, it's useful to have the gaps illustrated properly.
if (notifyDetail) {
NotifyMemInfo(MemBlockFlags::READ, srcLineStartAddr, bytesToCopy, tag, tagSize);
NotifyMemInfo(MemBlockFlags::WRITE, dstLineStartAddr, bytesToCopy, tag, tagSize);
}
}
if (notifyAll) {
NotifyMemInfo(MemBlockFlags::READ, src, srcSize, tag, tagSize);
NotifyMemInfo(MemBlockFlags::WRITE, dst, dstSize, tag, tagSize);
}
} else {
// This seems to cause the GE to require a break/reset on a PSP.
// TODO: Handle that and figure out which bytes are still copied?
ERROR_LOG_REPORT_ONCE(invalidtransfer, G3D, "Block transfer invalid: %08x/%x -> %08x/%x, %ix%ix%i (%i,%i)->(%i,%i)", srcBasePtr, srcStride, dstBasePtr, dstStride, width, height, bpp, srcX, srcY, dstX, dstY);
}
if (framebufferManager_) {
// Fixes Gran Turismo's funky text issue, since it overwrites the current texture.
textureCache_->Invalidate(dstBasePtr + (dstY * dstStride + dstX) * bpp, height * dstStride * bpp, GPU_INVALIDATE_HINT);
framebufferManager_->NotifyBlockTransferAfter(dstBasePtr, dstStride, dstX, dstY, srcBasePtr, srcStride, srcX, srcY, width, height, bpp, skipDrawReason);
}
}
// TODO: Correct timing appears to be 1.9, but erring a bit low since some of our other timing is inaccurate.
cyclesExecuted += ((height * width * bpp) * 16) / 10;
}
bool GPUCommon::PerformMemoryCopy(u32 dest, u32 src, int size, GPUCopyFlag flags) {
// Track stray copies of a framebuffer in RAM. MotoGP does this.
if (framebufferManager_->MayIntersectFramebuffer(src) || framebufferManager_->MayIntersectFramebuffer(dest)) {
if (!framebufferManager_->NotifyFramebufferCopy(src, dest, size, flags, gstate_c.skipDrawReason)) {
// We use matching values in PerformReadbackToMemory/PerformWriteColorFromMemory.
// Since they're identical we don't need to copy.
if (dest != src) {
if (MemBlockInfoDetailed(size)) {
char tag[128];
size_t tagSize = FormatMemWriteTagAt(tag, sizeof(tag), "GPUMemcpy/", src, size);
Memory::Memcpy(dest, src, size, tag, tagSize);
} else {
Memory::Memcpy(dest, src, size, "GPUMemcpy");
}
}
}
InvalidateCache(dest, size, GPU_INVALIDATE_HINT);
return true;
}
if (MemBlockInfoDetailed(size)) {
char tag[128];
size_t tagSize = FormatMemWriteTagAt(tag, sizeof(tag), "GPUMemcpy/", src, size);
NotifyMemInfo(MemBlockFlags::READ, src, size, tag, tagSize);
NotifyMemInfo(MemBlockFlags::WRITE, dest, size, tag, tagSize);
}
InvalidateCache(dest, size, GPU_INVALIDATE_HINT);
if (!(flags & GPUCopyFlag::DEBUG_NOTIFIED))
GPURecord::NotifyMemcpy(dest, src, size);
return false;
}
bool GPUCommon::PerformMemorySet(u32 dest, u8 v, int size) {
// This may indicate a memset, usually to 0, of a framebuffer.
if (framebufferManager_->MayIntersectFramebuffer(dest)) {
Memory::Memset(dest, v, size, "GPUMemset");
if (!framebufferManager_->NotifyFramebufferCopy(dest, dest, size, GPUCopyFlag::MEMSET, gstate_c.skipDrawReason)) {
InvalidateCache(dest, size, GPU_INVALIDATE_HINT);
}
return true;
}
NotifyMemInfo(MemBlockFlags::WRITE, dest, size, "GPUMemset");
// Or perhaps a texture, let's invalidate.
InvalidateCache(dest, size, GPU_INVALIDATE_HINT);
GPURecord::NotifyMemset(dest, v, size);
return false;
}
bool GPUCommon::PerformReadbackToMemory(u32 dest, int size) {
if (Memory::IsVRAMAddress(dest)) {
return PerformMemoryCopy(dest, dest, size, GPUCopyFlag::FORCE_DST_MEM);
}
return false;
}
bool GPUCommon::PerformWriteColorFromMemory(u32 dest, int size) {
if (Memory::IsVRAMAddress(dest)) {
GPURecord::NotifyUpload(dest, size);
return PerformMemoryCopy(dest, dest, size, GPUCopyFlag::FORCE_SRC_MEM | GPUCopyFlag::DEBUG_NOTIFIED);
}
return false;
}
void GPUCommon::InvalidateCache(u32 addr, int size, GPUInvalidationType type) {
if (size > 0)
textureCache_->Invalidate(addr, size, type);
else
textureCache_->InvalidateAll(type);
if (type != GPU_INVALIDATE_ALL && framebufferManager_->MayIntersectFramebuffer(addr)) {
// Vempire invalidates (with writeback) after drawing, but before blitting.
// TODO: Investigate whether we can get this to work some other way.
if (type == GPU_INVALIDATE_SAFE) {
framebufferManager_->UpdateFromMemory(addr, size);
}
}
}
void GPUCommon::PerformWriteFormattedFromMemory(u32 addr, int size, int frameWidth, GEBufferFormat format) {
if (Memory::IsVRAMAddress(addr)) {
framebufferManager_->PerformWriteFormattedFromMemory(addr, size, frameWidth, format);
}
textureCache_->NotifyWriteFormattedFromMemory(addr, size, frameWidth, format);
InvalidateCache(addr, size, GPU_INVALIDATE_SAFE);
}
bool GPUCommon::PerformWriteStencilFromMemory(u32 dest, int size, WriteStencil flags) {
if (framebufferManager_->MayIntersectFramebuffer(dest)) {
framebufferManager_->PerformWriteStencilFromMemory(dest, size, flags);
return true;
}
return false;
}
bool GPUCommon::GetCurrentFramebuffer(GPUDebugBuffer &buffer, GPUDebugFramebufferType type, int maxRes) {
u32 fb_address = type == GPU_DBG_FRAMEBUF_RENDER ? (gstate.getFrameBufRawAddress() | 0x04000000) : framebufferManager_->DisplayFramebufAddr();
int fb_stride = type == GPU_DBG_FRAMEBUF_RENDER ? gstate.FrameBufStride() : framebufferManager_->DisplayFramebufStride();
GEBufferFormat format = type == GPU_DBG_FRAMEBUF_RENDER ? gstate_c.framebufFormat : framebufferManager_->DisplayFramebufFormat();
return framebufferManager_->GetFramebuffer(fb_address, fb_stride, format, buffer, maxRes);
}
bool GPUCommon::GetCurrentDepthbuffer(GPUDebugBuffer &buffer) {
u32 fb_address = gstate.getFrameBufRawAddress() | 0x04000000;
int fb_stride = gstate.FrameBufStride();
u32 z_address = gstate.getDepthBufRawAddress() | 0x04000000;
int z_stride = gstate.DepthBufStride();
return framebufferManager_->GetDepthbuffer(fb_address, fb_stride, z_address, z_stride, buffer);
}
bool GPUCommon::GetCurrentStencilbuffer(GPUDebugBuffer &buffer) {
u32 fb_address = gstate.getFrameBufRawAddress() | 0x04000000;
int fb_stride = gstate.FrameBufStride();
return framebufferManager_->GetStencilbuffer(fb_address, fb_stride, buffer);
}
bool GPUCommon::GetOutputFramebuffer(GPUDebugBuffer &buffer) {
// framebufferManager_ can be null here when taking screens in software rendering mode.
// TODO: Actually grab the framebuffer anyway.
return framebufferManager_ ? framebufferManager_->GetOutputFramebuffer(buffer) : false;
}
std::vector<FramebufferInfo> GPUCommon::GetFramebufferList() const {
return framebufferManager_->GetFramebufferList();
}
bool GPUCommon::GetCurrentSimpleVertices(int count, std::vector<GPUDebugVertex> &vertices, std::vector<u16> &indices) {
UpdateUVScaleOffset();
return drawEngineCommon_->GetCurrentSimpleVertices(count, vertices, indices);
}
bool GPUCommon::GetCurrentClut(GPUDebugBuffer &buffer) {
return textureCache_->GetCurrentClutBuffer(buffer);
}
bool GPUCommon::GetCurrentTexture(GPUDebugBuffer &buffer, int level, bool *isFramebuffer) {
if (!gstate.isTextureMapEnabled()) {
return false;
}
return textureCache_->GetCurrentTextureDebug(buffer, level, isFramebuffer);
}
bool GPUCommon::DescribeCodePtr(const u8 *ptr, std::string &name) {
if (drawEngineCommon_->IsCodePtrVertexDecoder(ptr)) {
name = "VertexDecoderJit";
return true;
}
return false;
}
bool GPUCommon::FramebufferDirty() {
VirtualFramebuffer *vfb = framebufferManager_->GetDisplayVFB();
if (vfb) {
bool dirty = vfb->dirtyAfterDisplay;
vfb->dirtyAfterDisplay = false;
return dirty;
}
return true;
}
bool GPUCommon::FramebufferReallyDirty() {
VirtualFramebuffer *vfb = framebufferManager_->GetDisplayVFB();
if (vfb) {
bool dirty = vfb->reallyDirtyAfterDisplay;
vfb->reallyDirtyAfterDisplay = false;
return dirty;
}
return true;
}
void GPUCommon::UpdateUVScaleOffset() {
#ifdef _M_SSE
__m128i values = _mm_slli_epi32(_mm_load_si128((const __m128i *) & gstate.texscaleu), 8);
_mm_storeu_si128((__m128i *)&gstate_c.uv, values);
#elif PPSSPP_ARCH(ARM_NEON)
const uint32x4_t values = vshlq_n_u32(vld1q_u32((const u32 *)&gstate.texscaleu), 8);
vst1q_u32((u32 *)&gstate_c.uv, values);
#else
gstate_c.uv.uScale = getFloat24(gstate.texscaleu);
gstate_c.uv.vScale = getFloat24(gstate.texscalev);
gstate_c.uv.uOff = getFloat24(gstate.texoffsetu);
gstate_c.uv.vOff = getFloat24(gstate.texoffsetv);
#endif
}
size_t GPUCommon::FormatGPUStatsCommon(char *buffer, size_t size) {
float vertexAverageCycles = gpuStats.numVertsSubmitted > 0 ? (float)gpuStats.vertexGPUCycles / (float)gpuStats.numVertsSubmitted : 0.0f;
return snprintf(buffer, size,
"DL processing time: %0.2f ms\n"
"Draw calls: %d, flushes %d, clears %d (cached: %d)\n"
"Num Tracked Vertex Arrays: %d\n"
"Commands per call level: %i %i %i %i\n"
"Vertices: %d cached: %d uncached: %d\n"
"FBOs active: %d (evaluations: %d)\n"
"Textures: %d, dec: %d, invalidated: %d, hashed: %d kB\n"
"readbacks %d, uploads %d, depal %d\n"
"Copies: depth %d, color %d, reint %d, blend %d, selftex %d\n"
"GPU cycles executed: %d (%f per vertex)\n",
gpuStats.msProcessingDisplayLists * 1000.0f,
gpuStats.numDrawCalls,
gpuStats.numFlushes,
gpuStats.numClears,
gpuStats.numCachedDrawCalls,
gpuStats.numTrackedVertexArrays,
gpuStats.gpuCommandsAtCallLevel[0], gpuStats.gpuCommandsAtCallLevel[1], gpuStats.gpuCommandsAtCallLevel[2], gpuStats.gpuCommandsAtCallLevel[3],
gpuStats.numVertsSubmitted,
gpuStats.numCachedVertsDrawn,
gpuStats.numUncachedVertsDrawn,
(int)framebufferManager_->NumVFBs(),
gpuStats.numFramebufferEvaluations,
(int)textureCache_->NumLoadedTextures(),
gpuStats.numTexturesDecoded,
gpuStats.numTextureInvalidations,
gpuStats.numTextureDataBytesHashed / 1024,
gpuStats.numReadbacks,
gpuStats.numUploads,
gpuStats.numDepal,
gpuStats.numDepthCopies,
gpuStats.numColorCopies,
gpuStats.numReinterpretCopies,
gpuStats.numCopiesForShaderBlend,
gpuStats.numCopiesForSelfTex,
gpuStats.vertexGPUCycles + gpuStats.otherGPUCycles,
vertexAverageCycles
);
}
u32 GPUCommon::CheckGPUFeatures() const {
u32 features = 0;
if (draw_->GetDeviceCaps().logicOpSupported) {
features |= GPU_USE_LOGIC_OP;
}
if (draw_->GetDeviceCaps().anisoSupported) {
features |= GPU_USE_ANISOTROPY;
}
if (draw_->GetDeviceCaps().textureNPOTFullySupported) {
features |= GPU_USE_TEXTURE_NPOT;
}
if (draw_->GetDeviceCaps().dualSourceBlend) {
if (!g_Config.bVendorBugChecksEnabled || !draw_->GetBugs().Has(Draw::Bugs::DUAL_SOURCE_BLENDING_BROKEN)) {
features |= GPU_USE_DUALSOURCE_BLEND;
}
}
if (draw_->GetDeviceCaps().blendMinMaxSupported) {
features |= GPU_USE_BLEND_MINMAX;
}
if (draw_->GetDeviceCaps().clipDistanceSupported) {
features |= GPU_USE_CLIP_DISTANCE;
}
if (draw_->GetDeviceCaps().cullDistanceSupported) {
features |= GPU_USE_CULL_DISTANCE;
}
if (draw_->GetDeviceCaps().textureDepthSupported) {
features |= GPU_USE_DEPTH_TEXTURE;
}
if (draw_->GetDeviceCaps().depthClampSupported) {
// Some backends always do GPU_USE_ACCURATE_DEPTH, but it's required for depth clamp.
features |= GPU_USE_DEPTH_CLAMP | GPU_USE_ACCURATE_DEPTH;
}
bool canClipOrCull = draw_->GetDeviceCaps().clipDistanceSupported || draw_->GetDeviceCaps().cullDistanceSupported;
bool canDiscardVertex = draw_->GetBugs().Has(Draw::Bugs::BROKEN_NAN_IN_CONDITIONAL);
if (canClipOrCull || canDiscardVertex) {
// We'll dynamically use the parts that are supported, to reduce artifacts as much as possible.
features |= GPU_USE_VS_RANGE_CULLING;
}
if (draw_->GetDeviceCaps().framebufferFetchSupported) {
features |= GPU_USE_FRAMEBUFFER_FETCH;
}
if (draw_->GetShaderLanguageDesc().bitwiseOps) {
features |= GPU_USE_LIGHT_UBERSHADER;
}
if (PSP_CoreParameter().compat.flags().ClearToRAM) {
features |= GPU_USE_CLEAR_RAM_HACK;
}
return features;
}
u32 GPUCommon::CheckGPUFeaturesLate(u32 features) const {
// If we already have a 16-bit depth buffer, we don't need to round.
bool prefer24 = draw_->GetDeviceCaps().preferredDepthBufferFormat == Draw::DataFormat::D24_S8;
bool prefer16 = draw_->GetDeviceCaps().preferredDepthBufferFormat == Draw::DataFormat::D16;
if (!prefer16) {
if (sawExactEqualDepth_ && (features & GPU_USE_ACCURATE_DEPTH) != 0) {
// Exact equal tests tend to have issues unless we use the PSP's depth range.
// We use 24-bit depth virtually everwhere, the fallback is just for safety.
if (prefer24)
features |= GPU_SCALE_DEPTH_FROM_24BIT_TO_16BIT;
else
features |= GPU_ROUND_FRAGMENT_DEPTH_TO_16BIT;
} else if (!g_Config.bHighQualityDepth && (features & GPU_USE_ACCURATE_DEPTH) != 0) {
features |= GPU_SCALE_DEPTH_FROM_24BIT_TO_16BIT;
} else if (PSP_CoreParameter().compat.flags().PixelDepthRounding) {
if (prefer24 && (features & GPU_USE_ACCURATE_DEPTH) != 0) {
// Here we can simulate a 16 bit depth buffer by scaling.
// Note that the depth buffer is fixed point, not floating, so dividing by 256 is pretty good.
features |= GPU_SCALE_DEPTH_FROM_24BIT_TO_16BIT;
} else {
// Use fragment rounding on where available otherwise.
features |= GPU_ROUND_FRAGMENT_DEPTH_TO_16BIT;
}
} else if (PSP_CoreParameter().compat.flags().VertexDepthRounding) {
features |= GPU_ROUND_DEPTH_TO_16BIT;
}
}
return features;
}
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