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Thneed refactors for future functions (#2673)

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* delete debug

* thneed updates, but it seems slower

* thneed refactor

* refactor touchups

* add back asserts

* fix uaf

* track the size for local args

* final thneed refactor

* switch kgsl_command_object to avoid memory leak

* comments

* unused includes

Co-authored-by: Comma Device <device@comma.ai>
pull/19510/head
George Hotz 4 years ago committed by GitHub
parent 554ea8f54a
commit 5fdda8dbd8
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GPG Key ID: 4AEE18F83AFDEB23
22 changed files with 349 additions and 14693 deletions
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  1. 21
      selfdrive/modeld/SConscript
  2. 1
      selfdrive/modeld/thneed/debug/.gitignore
  3. 1426
      selfdrive/modeld/thneed/debug/decompiler/disasm-a3xx.c
  4. 1119
      selfdrive/modeld/thneed/debug/decompiler/instr-a3xx.h
  5. 1755
      selfdrive/modeld/thneed/debug/decompiler/ir3.h
  6. 906
      selfdrive/modeld/thneed/debug/decompiler/shader_enums.h
  7. 261
      selfdrive/modeld/thneed/debug/decompiler/util/bitset.h
  8. 262
      selfdrive/modeld/thneed/debug/decompiler/util/list.h
  9. 346
      selfdrive/modeld/thneed/debug/decompiler/util/macros.h
  10. 132
      selfdrive/modeld/thneed/debug/disassembler.cc
  11. 5201
      selfdrive/modeld/thneed/debug/include/a5xx.xml.h
  12. 1344
      selfdrive/modeld/thneed/debug/include/adreno_pm4.xml.h
  13. 473
      selfdrive/modeld/thneed/debug/include/adreno_pm4types.h
  14. 724
      selfdrive/modeld/thneed/debug/main.cc
  15. 51
      selfdrive/modeld/thneed/debug/microbenchmark/gemm.cl
  16. 75
      selfdrive/modeld/thneed/debug/microbenchmark/gemm_image.cl
  17. 314
      selfdrive/modeld/thneed/debug/microbenchmark/go.c
  18. 2
      selfdrive/modeld/thneed/debug/microbenchmark/run.sh
  19. 99
      selfdrive/modeld/thneed/debug/test.cc
  20. 4
      selfdrive/modeld/thneed/debug/thneed
  21. 463
      selfdrive/modeld/thneed/thneed.cc
  22. 63
      selfdrive/modeld/thneed/thneed.h

21
selfdrive/modeld/SConscript
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@ -3,8 +3,6 @@ lenv = env.Clone()
libs = [cereal, messaging, common, 'OpenCL', 'SNPE', 'symphony-cpu', 'capnp', 'zmq', 'kj', 'yuv', gpucommon, visionipc]
TEST_THNEED = False
common_src = [
"models/commonmodel.cc",
"runners/snpemodel.cc",
@ -14,16 +12,14 @@ common_src = [
if arch == "aarch64":
libs += ['gsl', 'CB', 'gnustl_shared']
if not TEST_THNEED:
common_src += ["thneed/thneed.cc"]
lenv['CFLAGS'].append("-DUSE_THNEED")
lenv['CXXFLAGS'].append("-DUSE_THNEED")
common_src += ["thneed/thneed.cc"]
lenv['CFLAGS'].append("-DUSE_THNEED")
lenv['CXXFLAGS'].append("-DUSE_THNEED")
elif arch == "larch64":
libs += ['gsl', 'CB', 'pthread', 'dl']
if not TEST_THNEED:
common_src += ["thneed/thneed.cc"]
lenv['CFLAGS'].append("-DUSE_THNEED")
lenv['CXXFLAGS'].append("-DUSE_THNEED")
common_src += ["thneed/thneed.cc"]
lenv['CFLAGS'].append("-DUSE_THNEED")
lenv['CXXFLAGS'].append("-DUSE_THNEED")
else:
libs += ['pthread']
@ -56,8 +52,3 @@ lenv.Program('_modeld', [
"models/driving.cc",
]+common, LIBS=libs)
if TEST_THNEED:
lenv.Program('thneed/debug/_thneed', [
"thneed/thneed.cc", "thneed/debug/test.cc"
]+common, LIBS=libs)

1
selfdrive/modeld/thneed/debug/.gitignore vendored
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@ -1 +0,0 @@
_thneed

1426
selfdrive/modeld/thneed/debug/decompiler/disasm-a3xx.c
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1119
selfdrive/modeld/thneed/debug/decompiler/instr-a3xx.h
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1755
selfdrive/modeld/thneed/debug/decompiler/ir3.h
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906
selfdrive/modeld/thneed/debug/decompiler/shader_enums.h
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@ -1,906 +0,0 @@
/*
* Mesa 3-D graphics library
*
* Copyright (C) 1999-2008 Brian Paul All Rights Reserved.
* Copyright (C) 2009 VMware, Inc. All Rights Reserved.
*
* Permission is hereby granted, free of charge, to any person obtaining a
* copy of this software and associated documentation files (the "Software"),
* to deal in the Software without restriction, including without limitation
* the rights to use, copy, modify, merge, publish, distribute, sublicense,
* and/or sell copies of the Software, and to permit persons to whom the
* Software is furnished to do so, subject to the following conditions:
*
* The above copyright notice and this permission notice shall be included
* in all copies or substantial portions of the Software.
*
* THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND, EXPRESS
* OR IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF MERCHANTABILITY,
* FITNESS FOR A PARTICULAR PURPOSE AND NONINFRINGEMENT. IN NO EVENT SHALL
* THE AUTHORS OR COPYRIGHT HOLDERS BE LIABLE FOR ANY CLAIM, DAMAGES OR
* OTHER LIABILITY, WHETHER IN AN ACTION OF CONTRACT, TORT OR OTHERWISE,
* ARISING FROM, OUT OF OR IN CONNECTION WITH THE SOFTWARE OR THE USE OR
* OTHER DEALINGS IN THE SOFTWARE.
*/
#ifndef SHADER_ENUMS_H
#define SHADER_ENUMS_H
#include <stdbool.h>
/* Project-wide (GL and Vulkan) maximum. */
#define MAX_DRAW_BUFFERS 8
#ifdef __cplusplus
extern "C" {
#endif
/**
* Shader stages.
*
* The order must match how shaders are ordered in the pipeline.
* The GLSL linker assumes that if i<j, then the j-th shader is
* executed later than the i-th shader.
*/
typedef enum
{
MESA_SHADER_NONE = -1,
MESA_SHADER_VERTEX = 0,
MESA_SHADER_TESS_CTRL = 1,
MESA_SHADER_TESS_EVAL = 2,
MESA_SHADER_GEOMETRY = 3,
MESA_SHADER_FRAGMENT = 4,
MESA_SHADER_COMPUTE = 5,
/* must be last so it doesn't affect the GL pipeline */
MESA_SHADER_KERNEL = 6,
} gl_shader_stage;
static inline bool
gl_shader_stage_is_compute(gl_shader_stage stage)
{
return stage == MESA_SHADER_COMPUTE || stage == MESA_SHADER_KERNEL;
}
/**
* Number of STATE_* values we need to address any GL state.
* Used to dimension arrays.
*/
#define STATE_LENGTH 5
typedef short gl_state_index16; /* see enum gl_state_index */
const char *gl_shader_stage_name(gl_shader_stage stage);
/**
* Translate a gl_shader_stage to a short shader stage name for debug
* printouts and error messages.
*/
const char *_mesa_shader_stage_to_string(unsigned stage);
/**
* Translate a gl_shader_stage to a shader stage abbreviation (VS, GS, FS)
* for debug printouts and error messages.
*/
const char *_mesa_shader_stage_to_abbrev(unsigned stage);
/**
* GL related stages (not including CL)
*/
#define MESA_SHADER_STAGES (MESA_SHADER_COMPUTE + 1)
/**
* All stages
*/
#define MESA_ALL_SHADER_STAGES (MESA_SHADER_KERNEL + 1)
/**
* Indexes for vertex program attributes.
* GL_NV_vertex_program aliases generic attributes over the conventional
* attributes. In GL_ARB_vertex_program shader the aliasing is optional.
* In GL_ARB_vertex_shader / OpenGL 2.0 the aliasing is disallowed (the
* generic attributes are distinct/separate).
*/
typedef enum
{
VERT_ATTRIB_POS,
VERT_ATTRIB_NORMAL,
VERT_ATTRIB_COLOR0,
VERT_ATTRIB_COLOR1,
VERT_ATTRIB_FOG,
VERT_ATTRIB_COLOR_INDEX,
VERT_ATTRIB_EDGEFLAG,
VERT_ATTRIB_TEX0,
VERT_ATTRIB_TEX1,
VERT_ATTRIB_TEX2,
VERT_ATTRIB_TEX3,
VERT_ATTRIB_TEX4,
VERT_ATTRIB_TEX5,
VERT_ATTRIB_TEX6,
VERT_ATTRIB_TEX7,
VERT_ATTRIB_POINT_SIZE,
VERT_ATTRIB_GENERIC0,
VERT_ATTRIB_GENERIC1,
VERT_ATTRIB_GENERIC2,
VERT_ATTRIB_GENERIC3,
VERT_ATTRIB_GENERIC4,
VERT_ATTRIB_GENERIC5,
VERT_ATTRIB_GENERIC6,
VERT_ATTRIB_GENERIC7,
VERT_ATTRIB_GENERIC8,
VERT_ATTRIB_GENERIC9,
VERT_ATTRIB_GENERIC10,
VERT_ATTRIB_GENERIC11,
VERT_ATTRIB_GENERIC12,
VERT_ATTRIB_GENERIC13,
VERT_ATTRIB_GENERIC14,
VERT_ATTRIB_GENERIC15,
VERT_ATTRIB_MAX
} gl_vert_attrib;
const char *gl_vert_attrib_name(gl_vert_attrib attrib);
/**
* Symbolic constats to help iterating over
* specific blocks of vertex attributes.
*
* VERT_ATTRIB_FF
* includes all fixed function attributes as well as
* the aliased GL_NV_vertex_program shader attributes.
* VERT_ATTRIB_TEX
* include the classic texture coordinate attributes.
* Is a subset of VERT_ATTRIB_FF.
* VERT_ATTRIB_GENERIC
* include the OpenGL 2.0+ GLSL generic shader attributes.
* These alias the generic GL_ARB_vertex_shader attributes.
* VERT_ATTRIB_MAT
* include the generic shader attributes used to alias
* varying material values for the TNL shader programs.
* They are located at the end of the generic attribute
* block not to overlap with the generic 0 attribute.
*/
#define VERT_ATTRIB_FF(i) (VERT_ATTRIB_POS + (i))
#define VERT_ATTRIB_FF_MAX VERT_ATTRIB_GENERIC0
#define VERT_ATTRIB_TEX(i) (VERT_ATTRIB_TEX0 + (i))
#define VERT_ATTRIB_TEX_MAX MAX_TEXTURE_COORD_UNITS
#define VERT_ATTRIB_GENERIC(i) (VERT_ATTRIB_GENERIC0 + (i))
#define VERT_ATTRIB_GENERIC_MAX MAX_VERTEX_GENERIC_ATTRIBS
#define VERT_ATTRIB_MAT0 \
(VERT_ATTRIB_GENERIC_MAX - VERT_ATTRIB_MAT_MAX)
#define VERT_ATTRIB_MAT(i) \
VERT_ATTRIB_GENERIC((i) + VERT_ATTRIB_MAT0)
#define VERT_ATTRIB_MAT_MAX MAT_ATTRIB_MAX
/**
* Bitflags for vertex attributes.
* These are used in bitfields in many places.
*/
/*@{*/
#define VERT_BIT_POS BITFIELD_BIT(VERT_ATTRIB_POS)
#define VERT_BIT_NORMAL BITFIELD_BIT(VERT_ATTRIB_NORMAL)
#define VERT_BIT_COLOR0 BITFIELD_BIT(VERT_ATTRIB_COLOR0)
#define VERT_BIT_COLOR1 BITFIELD_BIT(VERT_ATTRIB_COLOR1)
#define VERT_BIT_FOG BITFIELD_BIT(VERT_ATTRIB_FOG)
#define VERT_BIT_COLOR_INDEX BITFIELD_BIT(VERT_ATTRIB_COLOR_INDEX)
#define VERT_BIT_EDGEFLAG BITFIELD_BIT(VERT_ATTRIB_EDGEFLAG)
#define VERT_BIT_TEX0 BITFIELD_BIT(VERT_ATTRIB_TEX0)
#define VERT_BIT_TEX1 BITFIELD_BIT(VERT_ATTRIB_TEX1)
#define VERT_BIT_TEX2 BITFIELD_BIT(VERT_ATTRIB_TEX2)
#define VERT_BIT_TEX3 BITFIELD_BIT(VERT_ATTRIB_TEX3)
#define VERT_BIT_TEX4 BITFIELD_BIT(VERT_ATTRIB_TEX4)
#define VERT_BIT_TEX5 BITFIELD_BIT(VERT_ATTRIB_TEX5)
#define VERT_BIT_TEX6 BITFIELD_BIT(VERT_ATTRIB_TEX6)
#define VERT_BIT_TEX7 BITFIELD_BIT(VERT_ATTRIB_TEX7)
#define VERT_BIT_POINT_SIZE BITFIELD_BIT(VERT_ATTRIB_POINT_SIZE)
#define VERT_BIT_GENERIC0 BITFIELD_BIT(VERT_ATTRIB_GENERIC0)
#define VERT_BIT(i) BITFIELD_BIT(i)
#define VERT_BIT_ALL BITFIELD_RANGE(0, VERT_ATTRIB_MAX)
#define VERT_BIT_FF(i) VERT_BIT(i)
#define VERT_BIT_FF_ALL BITFIELD_RANGE(0, VERT_ATTRIB_FF_MAX)
#define VERT_BIT_TEX(i) VERT_BIT(VERT_ATTRIB_TEX(i))
#define VERT_BIT_TEX_ALL \
BITFIELD_RANGE(VERT_ATTRIB_TEX(0), VERT_ATTRIB_TEX_MAX)
#define VERT_BIT_GENERIC(i) VERT_BIT(VERT_ATTRIB_GENERIC(i))
#define VERT_BIT_GENERIC_ALL \
BITFIELD_RANGE(VERT_ATTRIB_GENERIC(0), VERT_ATTRIB_GENERIC_MAX)
#define VERT_BIT_MAT(i) VERT_BIT(VERT_ATTRIB_MAT(i))
#define VERT_BIT_MAT_ALL \
BITFIELD_RANGE(VERT_ATTRIB_MAT(0), VERT_ATTRIB_MAT_MAX)
/*@}*/
#define MAX_VARYING 32 /**< number of float[4] vectors */
/**
* Indexes for vertex shader outputs, geometry shader inputs/outputs, and
* fragment shader inputs.
*
* Note that some of these values are not available to all pipeline stages.
*
* When this enum is updated, the following code must be updated too:
* - vertResults (in prog_print.c's arb_output_attrib_string())
* - fragAttribs (in prog_print.c's arb_input_attrib_string())
* - _mesa_varying_slot_in_fs()
*/
typedef enum
{
VARYING_SLOT_POS,
VARYING_SLOT_COL0, /* COL0 and COL1 must be contiguous */
VARYING_SLOT_COL1,
VARYING_SLOT_FOGC,
VARYING_SLOT_TEX0, /* TEX0-TEX7 must be contiguous */
VARYING_SLOT_TEX1,
VARYING_SLOT_TEX2,
VARYING_SLOT_TEX3,
VARYING_SLOT_TEX4,
VARYING_SLOT_TEX5,
VARYING_SLOT_TEX6,
VARYING_SLOT_TEX7,
VARYING_SLOT_PSIZ, /* Does not appear in FS */
VARYING_SLOT_BFC0, /* Does not appear in FS */
VARYING_SLOT_BFC1, /* Does not appear in FS */
VARYING_SLOT_EDGE, /* Does not appear in FS */
VARYING_SLOT_CLIP_VERTEX, /* Does not appear in FS */
VARYING_SLOT_CLIP_DIST0,
VARYING_SLOT_CLIP_DIST1,
VARYING_SLOT_CULL_DIST0,
VARYING_SLOT_CULL_DIST1,
VARYING_SLOT_PRIMITIVE_ID, /* Does not appear in VS */
VARYING_SLOT_LAYER, /* Appears as VS or GS output */
VARYING_SLOT_VIEWPORT, /* Appears as VS or GS output */
VARYING_SLOT_FACE, /* FS only */
VARYING_SLOT_PNTC, /* FS only */
VARYING_SLOT_TESS_LEVEL_OUTER, /* Only appears as TCS output. */
VARYING_SLOT_TESS_LEVEL_INNER, /* Only appears as TCS output. */
VARYING_SLOT_BOUNDING_BOX0, /* Only appears as TCS output. */
VARYING_SLOT_BOUNDING_BOX1, /* Only appears as TCS output. */
VARYING_SLOT_VIEW_INDEX,
VARYING_SLOT_VIEWPORT_MASK, /* Does not appear in FS */
VARYING_SLOT_VAR0, /* First generic varying slot */
/* the remaining are simply for the benefit of gl_varying_slot_name()
* and not to be construed as an upper bound:
*/
VARYING_SLOT_VAR1,
VARYING_SLOT_VAR2,
VARYING_SLOT_VAR3,
VARYING_SLOT_VAR4,
VARYING_SLOT_VAR5,
VARYING_SLOT_VAR6,
VARYING_SLOT_VAR7,
VARYING_SLOT_VAR8,
VARYING_SLOT_VAR9,
VARYING_SLOT_VAR10,
VARYING_SLOT_VAR11,
VARYING_SLOT_VAR12,
VARYING_SLOT_VAR13,
VARYING_SLOT_VAR14,
VARYING_SLOT_VAR15,
VARYING_SLOT_VAR16,
VARYING_SLOT_VAR17,
VARYING_SLOT_VAR18,
VARYING_SLOT_VAR19,
VARYING_SLOT_VAR20,
VARYING_SLOT_VAR21,
VARYING_SLOT_VAR22,
VARYING_SLOT_VAR23,
VARYING_SLOT_VAR24,
VARYING_SLOT_VAR25,
VARYING_SLOT_VAR26,
VARYING_SLOT_VAR27,
VARYING_SLOT_VAR28,
VARYING_SLOT_VAR29,
VARYING_SLOT_VAR30,
VARYING_SLOT_VAR31,
} gl_varying_slot;
#define VARYING_SLOT_MAX (VARYING_SLOT_VAR0 + MAX_VARYING)
#define VARYING_SLOT_PATCH0 (VARYING_SLOT_MAX)
#define VARYING_SLOT_TESS_MAX (VARYING_SLOT_PATCH0 + MAX_VARYING)
#define MAX_VARYINGS_INCL_PATCH (VARYING_SLOT_TESS_MAX - VARYING_SLOT_VAR0)
const char *gl_varying_slot_name(gl_varying_slot slot);
/**
* Bitflags for varying slots.
*/
/*@{*/
#define VARYING_BIT_POS BITFIELD64_BIT(VARYING_SLOT_POS)
#define VARYING_BIT_COL0 BITFIELD64_BIT(VARYING_SLOT_COL0)
#define VARYING_BIT_COL1 BITFIELD64_BIT(VARYING_SLOT_COL1)
#define VARYING_BIT_FOGC BITFIELD64_BIT(VARYING_SLOT_FOGC)
#define VARYING_BIT_TEX0 BITFIELD64_BIT(VARYING_SLOT_TEX0)
#define VARYING_BIT_TEX1 BITFIELD64_BIT(VARYING_SLOT_TEX1)
#define VARYING_BIT_TEX2 BITFIELD64_BIT(VARYING_SLOT_TEX2)
#define VARYING_BIT_TEX3 BITFIELD64_BIT(VARYING_SLOT_TEX3)
#define VARYING_BIT_TEX4 BITFIELD64_BIT(VARYING_SLOT_TEX4)
#define VARYING_BIT_TEX5 BITFIELD64_BIT(VARYING_SLOT_TEX5)
#define VARYING_BIT_TEX6 BITFIELD64_BIT(VARYING_SLOT_TEX6)
#define VARYING_BIT_TEX7 BITFIELD64_BIT(VARYING_SLOT_TEX7)
#define VARYING_BIT_TEX(U) BITFIELD64_BIT(VARYING_SLOT_TEX0 + (U))
#define VARYING_BITS_TEX_ANY BITFIELD64_RANGE(VARYING_SLOT_TEX0, \
MAX_TEXTURE_COORD_UNITS)
#define VARYING_BIT_PSIZ BITFIELD64_BIT(VARYING_SLOT_PSIZ)
#define VARYING_BIT_BFC0 BITFIELD64_BIT(VARYING_SLOT_BFC0)
#define VARYING_BIT_BFC1 BITFIELD64_BIT(VARYING_SLOT_BFC1)
#define VARYING_BITS_COLOR (VARYING_BIT_COL0 | \
VARYING_BIT_COL1 | \
VARYING_BIT_BFC0 | \
VARYING_BIT_BFC1)
#define VARYING_BIT_EDGE BITFIELD64_BIT(VARYING_SLOT_EDGE)
#define VARYING_BIT_CLIP_VERTEX BITFIELD64_BIT(VARYING_SLOT_CLIP_VERTEX)
#define VARYING_BIT_CLIP_DIST0 BITFIELD64_BIT(VARYING_SLOT_CLIP_DIST0)
#define VARYING_BIT_CLIP_DIST1 BITFIELD64_BIT(VARYING_SLOT_CLIP_DIST1)
#define VARYING_BIT_CULL_DIST0 BITFIELD64_BIT(VARYING_SLOT_CULL_DIST0)
#define VARYING_BIT_CULL_DIST1 BITFIELD64_BIT(VARYING_SLOT_CULL_DIST1)
#define VARYING_BIT_PRIMITIVE_ID BITFIELD64_BIT(VARYING_SLOT_PRIMITIVE_ID)
#define VARYING_BIT_LAYER BITFIELD64_BIT(VARYING_SLOT_LAYER)
#define VARYING_BIT_VIEWPORT BITFIELD64_BIT(VARYING_SLOT_VIEWPORT)
#define VARYING_BIT_FACE BITFIELD64_BIT(VARYING_SLOT_FACE)
#define VARYING_BIT_PNTC BITFIELD64_BIT(VARYING_SLOT_PNTC)
#define VARYING_BIT_TESS_LEVEL_OUTER BITFIELD64_BIT(VARYING_SLOT_TESS_LEVEL_OUTER)
#define VARYING_BIT_TESS_LEVEL_INNER BITFIELD64_BIT(VARYING_SLOT_TESS_LEVEL_INNER)
#define VARYING_BIT_BOUNDING_BOX0 BITFIELD64_BIT(VARYING_SLOT_BOUNDING_BOX0)
#define VARYING_BIT_BOUNDING_BOX1 BITFIELD64_BIT(VARYING_SLOT_BOUNDING_BOX1)
#define VARYING_BIT_VIEWPORT_MASK BITFIELD64_BIT(VARYING_SLOT_VIEWPORT_MASK)
#define VARYING_BIT_VAR(V) BITFIELD64_BIT(VARYING_SLOT_VAR0 + (V))
/*@}*/
/**
* Bitflags for system values.
*/
#define SYSTEM_BIT_SAMPLE_ID ((uint64_t)1 << SYSTEM_VALUE_SAMPLE_ID)
#define SYSTEM_BIT_SAMPLE_POS ((uint64_t)1 << SYSTEM_VALUE_SAMPLE_POS)
#define SYSTEM_BIT_SAMPLE_MASK_IN ((uint64_t)1 << SYSTEM_VALUE_SAMPLE_MASK_IN)
#define SYSTEM_BIT_LOCAL_INVOCATION_ID ((uint64_t)1 << SYSTEM_VALUE_LOCAL_INVOCATION_ID)
/**
* If the gl_register_file is PROGRAM_SYSTEM_VALUE, the register index will be
* one of these values. If a NIR variable's mode is nir_var_system_value, it
* will be one of these values.
*/
typedef enum
{
/**
* \name System values applicable to all shaders
*/
/*@{*/
/**
* Builtin variables added by GL_ARB_shader_ballot.
*/
/*@{*/
/**
* From the GL_ARB_shader-ballot spec:
*
* "A sub-group is a collection of invocations which execute in lockstep.
* The variable <gl_SubGroupSizeARB> is the maximum number of
* invocations in a sub-group. The maximum <gl_SubGroupSizeARB>
* supported in this extension is 64."
*
* The spec defines this as a uniform. However, it's highly unlikely that
* implementations actually treat it as a uniform (which is loaded from a
* constant buffer). Most likely, this is an implementation-wide constant,
* or perhaps something that depends on the shader stage.
*/
SYSTEM_VALUE_SUBGROUP_SIZE,
/**
* From the GL_ARB_shader_ballot spec:
*
* "The variable <gl_SubGroupInvocationARB> holds the index of the
* invocation within sub-group. This variable is in the range 0 to
* <gl_SubGroupSizeARB>-1, where <gl_SubGroupSizeARB> is the total
* number of invocations in a sub-group."
*/
SYSTEM_VALUE_SUBGROUP_INVOCATION,
/**
* From the GL_ARB_shader_ballot spec:
*
* "The <gl_SubGroup??MaskARB> variables provide a bitmask for all
* invocations, with one bit per invocation starting with the least
* significant bit, according to the following table,
*
* variable equation for bit values
* -------------------- ------------------------------------
* gl_SubGroupEqMaskARB bit index == gl_SubGroupInvocationARB
* gl_SubGroupGeMaskARB bit index >= gl_SubGroupInvocationARB
* gl_SubGroupGtMaskARB bit index > gl_SubGroupInvocationARB
* gl_SubGroupLeMaskARB bit index <= gl_SubGroupInvocationARB
* gl_SubGroupLtMaskARB bit index < gl_SubGroupInvocationARB
*/
SYSTEM_VALUE_SUBGROUP_EQ_MASK,
SYSTEM_VALUE_SUBGROUP_GE_MASK,
SYSTEM_VALUE_SUBGROUP_GT_MASK,
SYSTEM_VALUE_SUBGROUP_LE_MASK,
SYSTEM_VALUE_SUBGROUP_LT_MASK,
/*@}*/
/**
* Builtin variables added by VK_KHR_subgroups
*/
/*@{*/
SYSTEM_VALUE_NUM_SUBGROUPS,
SYSTEM_VALUE_SUBGROUP_ID,
/*@}*/
/*@}*/
/**
* \name Vertex shader system values
*/
/*@{*/
/**
* OpenGL-style vertex ID.
*
* Section 2.11.7 (Shader Execution), subsection Shader Inputs, of the
* OpenGL 3.3 core profile spec says:
*
* "gl_VertexID holds the integer index i implicitly passed by
* DrawArrays or one of the other drawing commands defined in section
* 2.8.3."
*
* Section 2.8.3 (Drawing Commands) of the same spec says:
*
* "The commands....are equivalent to the commands with the same base
* name (without the BaseVertex suffix), except that the ith element
* transferred by the corresponding draw call will be taken from
* element indices[i] + basevertex of each enabled array."
*
* Additionally, the overview in the GL_ARB_shader_draw_parameters spec
* says:
*
* "In unextended GL, vertex shaders have inputs named gl_VertexID and
* gl_InstanceID, which contain, respectively the index of the vertex
* and instance. The value of gl_VertexID is the implicitly passed
* index of the vertex being processed, which includes the value of
* baseVertex, for those commands that accept it."
*
* gl_VertexID gets basevertex added in. This differs from DirectX where
* SV_VertexID does \b not get basevertex added in.
*
* \note
* If all system values are available, \c SYSTEM_VALUE_VERTEX_ID will be
* equal to \c SYSTEM_VALUE_VERTEX_ID_ZERO_BASE plus
* \c SYSTEM_VALUE_BASE_VERTEX.
*
* \sa SYSTEM_VALUE_VERTEX_ID_ZERO_BASE, SYSTEM_VALUE_BASE_VERTEX
*/
SYSTEM_VALUE_VERTEX_ID,
/**
* Instanced ID as supplied to gl_InstanceID
*
* Values assigned to gl_InstanceID always begin with zero, regardless of
* the value of baseinstance.
*
* Section 11.1.3.9 (Shader Inputs) of the OpenGL 4.4 core profile spec
* says:
*
* "gl_InstanceID holds the integer instance number of the current
* primitive in an instanced draw call (see section 10.5)."
*
* Through a big chain of pseudocode, section 10.5 describes that
* baseinstance is not counted by gl_InstanceID. In that section, notice
*
* "If an enabled vertex attribute array is instanced (it has a
* non-zero divisor as specified by VertexAttribDivisor), the element
* index that is transferred to the GL, for all vertices, is given by
*
* floor(instance/divisor) + baseinstance
*
* If an array corresponding to an attribute required by a vertex
* shader is not enabled, then the corresponding element is taken from
* the current attribute state (see section 10.2)."
*
* Note that baseinstance is \b not included in the value of instance.
*/
SYSTEM_VALUE_INSTANCE_ID,
/**
* Vulkan InstanceIndex.
*
* InstanceIndex = gl_InstanceID + gl_BaseInstance
*/
SYSTEM_VALUE_INSTANCE_INDEX,
/**
* DirectX-style vertex ID.
*
* Unlike \c SYSTEM_VALUE_VERTEX_ID, this system value does \b not include
* the value of basevertex.
*
* \sa SYSTEM_VALUE_VERTEX_ID, SYSTEM_VALUE_BASE_VERTEX
*/
SYSTEM_VALUE_VERTEX_ID_ZERO_BASE,
/**
* Value of \c basevertex passed to \c glDrawElementsBaseVertex and similar
* functions.
*
* \sa SYSTEM_VALUE_VERTEX_ID, SYSTEM_VALUE_VERTEX_ID_ZERO_BASE
*/
SYSTEM_VALUE_BASE_VERTEX,
/**
* Depending on the type of the draw call (indexed or non-indexed),
* is the value of \c basevertex passed to \c glDrawElementsBaseVertex and
* similar, or is the value of \c first passed to \c glDrawArrays and
* similar.
*
* \note
* It can be used to calculate the \c SYSTEM_VALUE_VERTEX_ID as
* \c SYSTEM_VALUE_VERTEX_ID_ZERO_BASE plus \c SYSTEM_VALUE_FIRST_VERTEX.
*
* \sa SYSTEM_VALUE_VERTEX_ID_ZERO_BASE, SYSTEM_VALUE_VERTEX_ID
*/
SYSTEM_VALUE_FIRST_VERTEX,
/**
* If the Draw command used to start the rendering was an indexed draw
* or not (~0/0). Useful to calculate \c SYSTEM_VALUE_BASE_VERTEX as
* \c SYSTEM_VALUE_IS_INDEXED_DRAW & \c SYSTEM_VALUE_FIRST_VERTEX.
*/
SYSTEM_VALUE_IS_INDEXED_DRAW,
/**
* Value of \c baseinstance passed to instanced draw entry points
*
* \sa SYSTEM_VALUE_INSTANCE_ID
*/
SYSTEM_VALUE_BASE_INSTANCE,
/**
* From _ARB_shader_draw_parameters:
*
* "Additionally, this extension adds a further built-in variable,
* gl_DrawID to the shading language. This variable contains the index
* of the draw currently being processed by a Multi* variant of a
* drawing command (such as MultiDrawElements or
* MultiDrawArraysIndirect)."
*
* If GL_ARB_multi_draw_indirect is not supported, this is always 0.
*/
SYSTEM_VALUE_DRAW_ID,
/*@}*/
/**
* \name Geometry shader system values
*/
/*@{*/
SYSTEM_VALUE_INVOCATION_ID, /**< (Also in Tessellation Control shader) */
/*@}*/
/**
* \name Fragment shader system values
*/
/*@{*/
SYSTEM_VALUE_FRAG_COORD,
SYSTEM_VALUE_POINT_COORD,
SYSTEM_VALUE_FRONT_FACE,
SYSTEM_VALUE_SAMPLE_ID,
SYSTEM_VALUE_SAMPLE_POS,
SYSTEM_VALUE_SAMPLE_MASK_IN,
SYSTEM_VALUE_HELPER_INVOCATION,
SYSTEM_VALUE_COLOR0,
SYSTEM_VALUE_COLOR1,
/*@}*/
/**
* \name Tessellation Evaluation shader system values
*/
/*@{*/
SYSTEM_VALUE_TESS_COORD,
SYSTEM_VALUE_VERTICES_IN, /**< Tessellation vertices in input patch */
SYSTEM_VALUE_PRIMITIVE_ID,
SYSTEM_VALUE_TESS_LEVEL_OUTER, /**< TES input */
SYSTEM_VALUE_TESS_LEVEL_INNER, /**< TES input */
SYSTEM_VALUE_TESS_LEVEL_OUTER_DEFAULT, /**< TCS input for passthru TCS */
SYSTEM_VALUE_TESS_LEVEL_INNER_DEFAULT, /**< TCS input for passthru TCS */
/*@}*/
/**
* \name Compute shader system values
*/
/*@{*/
SYSTEM_VALUE_LOCAL_INVOCATION_ID,
SYSTEM_VALUE_LOCAL_INVOCATION_INDEX,
SYSTEM_VALUE_GLOBAL_INVOCATION_ID,
SYSTEM_VALUE_GLOBAL_INVOCATION_INDEX,
SYSTEM_VALUE_WORK_GROUP_ID,
SYSTEM_VALUE_NUM_WORK_GROUPS,
SYSTEM_VALUE_LOCAL_GROUP_SIZE,
SYSTEM_VALUE_GLOBAL_GROUP_SIZE,
SYSTEM_VALUE_WORK_DIM,
SYSTEM_VALUE_USER_DATA_AMD,
/*@}*/
/** Required for VK_KHR_device_group */
SYSTEM_VALUE_DEVICE_INDEX,
/** Required for VK_KHX_multiview */
SYSTEM_VALUE_VIEW_INDEX,
/**
* Driver internal vertex-count, used (for example) for drivers to
* calculate stride for stream-out outputs. Not externally visible.
*/
SYSTEM_VALUE_VERTEX_CNT,
/**
* Required for AMD_shader_explicit_vertex_parameter and also used for
* varying-fetch instructions.
*
* The _SIZE value is "primitive size", used to scale i/j in primitive
* space to pixel space.
*/
SYSTEM_VALUE_BARYCENTRIC_PERSP_PIXEL,
SYSTEM_VALUE_BARYCENTRIC_PERSP_SAMPLE,
SYSTEM_VALUE_BARYCENTRIC_PERSP_CENTROID,
SYSTEM_VALUE_BARYCENTRIC_PERSP_SIZE,
SYSTEM_VALUE_BARYCENTRIC_LINEAR_PIXEL,
SYSTEM_VALUE_BARYCENTRIC_LINEAR_CENTROID,
SYSTEM_VALUE_BARYCENTRIC_LINEAR_SAMPLE,
SYSTEM_VALUE_BARYCENTRIC_PULL_MODEL,
/**
* IR3 specific geometry shader and tesselation control shader system
* values that packs invocation id, thread id and vertex id. Having this
* as a nir level system value lets us do the unpacking in nir.
*/
SYSTEM_VALUE_GS_HEADER_IR3,
SYSTEM_VALUE_TCS_HEADER_IR3,
SYSTEM_VALUE_MAX /**< Number of values */
} gl_system_value;
const char *gl_system_value_name(gl_system_value sysval);
/**
* The possible interpolation qualifiers that can be applied to a fragment
* shader input in GLSL.
*
* Note: INTERP_MODE_NONE must be 0 so that memsetting the
* ir_variable data structure to 0 causes the default behavior.
*/
enum glsl_interp_mode
{
INTERP_MODE_NONE = 0,
INTERP_MODE_SMOOTH,
INTERP_MODE_FLAT,
INTERP_MODE_NOPERSPECTIVE,
INTERP_MODE_EXPLICIT,
INTERP_MODE_COUNT /**< Number of interpolation qualifiers */
};
enum glsl_interface_packing {
GLSL_INTERFACE_PACKING_STD140,
GLSL_INTERFACE_PACKING_SHARED,
GLSL_INTERFACE_PACKING_PACKED,
GLSL_INTERFACE_PACKING_STD430
};
const char *glsl_interp_mode_name(enum glsl_interp_mode qual);
/**
* Fragment program results
*/
typedef enum
{
FRAG_RESULT_DEPTH = 0,
FRAG_RESULT_STENCIL = 1,
/* If a single color should be written to all render targets, this
* register is written. No FRAG_RESULT_DATAn will be written.
*/
FRAG_RESULT_COLOR = 2,
FRAG_RESULT_SAMPLE_MASK = 3,
/* FRAG_RESULT_DATAn are the per-render-target (GLSL gl_FragData[n]
* or ARB_fragment_program fragment.color[n]) color results. If
* any are written, FRAG_RESULT_COLOR will not be written.
* FRAG_RESULT_DATA1 and up are simply for the benefit of
* gl_frag_result_name() and not to be construed as an upper bound
*/
FRAG_RESULT_DATA0 = 4,
FRAG_RESULT_DATA1,
FRAG_RESULT_DATA2,
FRAG_RESULT_DATA3,
FRAG_RESULT_DATA4,
FRAG_RESULT_DATA5,
FRAG_RESULT_DATA6,
FRAG_RESULT_DATA7,
} gl_frag_result;
const char *gl_frag_result_name(gl_frag_result result);
#define FRAG_RESULT_MAX (FRAG_RESULT_DATA0 + MAX_DRAW_BUFFERS)
/**
* \brief Layout qualifiers for gl_FragDepth.
*
* Extension AMD_conservative_depth allows gl_FragDepth to be redeclared with
* a layout qualifier.
*
* \see enum ir_depth_layout
*/
enum gl_frag_depth_layout
{
FRAG_DEPTH_LAYOUT_NONE, /**< No layout is specified. */
FRAG_DEPTH_LAYOUT_ANY,
FRAG_DEPTH_LAYOUT_GREATER,
FRAG_DEPTH_LAYOUT_LESS,
FRAG_DEPTH_LAYOUT_UNCHANGED
};
/**
* \brief Buffer access qualifiers
*/
enum gl_access_qualifier
{
ACCESS_COHERENT = (1 << 0),
ACCESS_RESTRICT = (1 << 1),
ACCESS_VOLATILE = (1 << 2),
ACCESS_NON_READABLE = (1 << 3),
ACCESS_NON_WRITEABLE = (1 << 4),
/** The access may use a non-uniform buffer or image index */
ACCESS_NON_UNIFORM = (1 << 5),
/* This has the same semantics as NIR_INTRINSIC_CAN_REORDER, only to be
* used with loads. In other words, it means that the load can be
* arbitrarily reordered, or combined with other loads to the same address.
* It is implied by ACCESS_NON_WRITEABLE together with ACCESS_RESTRICT, and
* a lack of ACCESS_COHERENT and ACCESS_VOLATILE.
*/
ACCESS_CAN_REORDER = (1 << 6),
/** Use as little cache space as possible. */
ACCESS_STREAM_CACHE_POLICY = (1 << 7),
};
/**
* \brief Blend support qualifiers
*/
enum gl_advanced_blend_mode
{
BLEND_NONE = 0x0000,
BLEND_MULTIPLY = 0x0001,
BLEND_SCREEN = 0x0002,
BLEND_OVERLAY = 0x0004,
BLEND_DARKEN = 0x0008,
BLEND_LIGHTEN = 0x0010,
BLEND_COLORDODGE = 0x0020,
BLEND_COLORBURN = 0x0040,
BLEND_HARDLIGHT = 0x0080,
BLEND_SOFTLIGHT = 0x0100,
BLEND_DIFFERENCE = 0x0200,
BLEND_EXCLUSION = 0x0400,
BLEND_HSL_HUE = 0x0800,
BLEND_HSL_SATURATION = 0x1000,
BLEND_HSL_COLOR = 0x2000,
BLEND_HSL_LUMINOSITY = 0x4000,
BLEND_ALL = 0x7fff,
};
enum blend_func
{
BLEND_FUNC_ADD,
BLEND_FUNC_SUBTRACT,
BLEND_FUNC_REVERSE_SUBTRACT,
BLEND_FUNC_MIN,
BLEND_FUNC_MAX,
};
enum blend_factor
{
BLEND_FACTOR_ZERO,
BLEND_FACTOR_SRC_COLOR,
BLEND_FACTOR_DST_COLOR,
BLEND_FACTOR_SRC_ALPHA,
BLEND_FACTOR_DST_ALPHA,
BLEND_FACTOR_CONSTANT_COLOR,
BLEND_FACTOR_CONSTANT_ALPHA,
BLEND_FACTOR_SRC_ALPHA_SATURATE,
};
enum gl_tess_spacing
{
TESS_SPACING_UNSPECIFIED,
TESS_SPACING_EQUAL,
TESS_SPACING_FRACTIONAL_ODD,
TESS_SPACING_FRACTIONAL_EVEN,
};
/**
* A compare function enum for use in compiler lowering passes. This is in
* the same order as GL's compare functions (shifted down by GL_NEVER), and is
* exactly the same as gallium's PIPE_FUNC_*.
*/
enum compare_func
{
COMPARE_FUNC_NEVER,
COMPARE_FUNC_LESS,
COMPARE_FUNC_EQUAL,
COMPARE_FUNC_LEQUAL,
COMPARE_FUNC_GREATER,
COMPARE_FUNC_NOTEQUAL,
COMPARE_FUNC_GEQUAL,
COMPARE_FUNC_ALWAYS,
};
/**
* Arrangements for grouping invocations from NV_compute_shader_derivatives.
*
* The extension provides new layout qualifiers that support two different
* arrangements of compute shader invocations for the purpose of derivative
* computation. When specifying
*
* layout(derivative_group_quadsNV) in;
*
* compute shader invocations are grouped into 2x2x1 arrays whose four local
* invocation ID values follow the pattern:
*
* +-----------------+------------------+
* | (2x+0, 2y+0, z) | (2x+1, 2y+0, z) |
* +-----------------+------------------+
* | (2x+0, 2y+1, z) | (2x+1, 2y+1, z) |
* +-----------------+------------------+
*
* where Y increases from bottom to top. When specifying
*
* layout(derivative_group_linearNV) in;
*
* compute shader invocations are grouped into 2x2x1 arrays whose four local
* invocation index values follow the pattern:
*
* +------+------+
* | 4n+0 | 4n+1 |
* +------+------+
* | 4n+2 | 4n+3 |
* +------+------+
*
* If neither layout qualifier is specified, derivatives in compute shaders
* return zero, which is consistent with the handling of built-in texture
* functions like texture() in GLSL 4.50 compute shaders.
*/
enum gl_derivative_group {
DERIVATIVE_GROUP_NONE = 0,
DERIVATIVE_GROUP_QUADS,
DERIVATIVE_GROUP_LINEAR,
};
enum float_controls
{
FLOAT_CONTROLS_DEFAULT_FLOAT_CONTROL_MODE = 0x0000,
FLOAT_CONTROLS_DENORM_PRESERVE_FP16 = 0x0001,
FLOAT_CONTROLS_DENORM_PRESERVE_FP32 = 0x0002,
FLOAT_CONTROLS_DENORM_PRESERVE_FP64 = 0x0004,
FLOAT_CONTROLS_DENORM_FLUSH_TO_ZERO_FP16 = 0x0008,
FLOAT_CONTROLS_DENORM_FLUSH_TO_ZERO_FP32 = 0x0010,
FLOAT_CONTROLS_DENORM_FLUSH_TO_ZERO_FP64 = 0x0020,
FLOAT_CONTROLS_SIGNED_ZERO_INF_NAN_PRESERVE_FP16 = 0x0040,
FLOAT_CONTROLS_SIGNED_ZERO_INF_NAN_PRESERVE_FP32 = 0x0080,
FLOAT_CONTROLS_SIGNED_ZERO_INF_NAN_PRESERVE_FP64 = 0x0100,
FLOAT_CONTROLS_ROUNDING_MODE_RTE_FP16 = 0x0200,
FLOAT_CONTROLS_ROUNDING_MODE_RTE_FP32 = 0x0400,
FLOAT_CONTROLS_ROUNDING_MODE_RTE_FP64 = 0x0800,
FLOAT_CONTROLS_ROUNDING_MODE_RTZ_FP16 = 0x1000,
FLOAT_CONTROLS_ROUNDING_MODE_RTZ_FP32 = 0x2000,
FLOAT_CONTROLS_ROUNDING_MODE_RTZ_FP64 = 0x4000,
};
#ifdef __cplusplus
} /* extern "C" */
#endif
#endif /* SHADER_ENUMS_H */

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/*
* Mesa 3-D graphics library
*
* Copyright (C) 2006 Brian Paul All Rights Reserved.
*
* Permission is hereby granted, free of charge, to any person obtaining a
* copy of this software and associated documentation files (the "Software"),
* to deal in the Software without restriction, including without limitation
* the rights to use, copy, modify, merge, publish, distribute, sublicense,
* and/or sell copies of the Software, and to permit persons to whom the
* Software is furnished to do so, subject to the following conditions:
*
* The above copyright notice and this permission notice shall be included
* in all copies or substantial portions of the Software.
*
* THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND, EXPRESS
* OR IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF MERCHANTABILITY,
* FITNESS FOR A PARTICULAR PURPOSE AND NONINFRINGEMENT. IN NO EVENT SHALL
* THE AUTHORS OR COPYRIGHT HOLDERS BE LIABLE FOR ANY CLAIM, DAMAGES OR
* OTHER LIABILITY, WHETHER IN AN ACTION OF CONTRACT, TORT OR OTHERWISE,
* ARISING FROM, OUT OF OR IN CONNECTION WITH THE SOFTWARE OR THE USE OR
* OTHER DEALINGS IN THE SOFTWARE.
*/
/**
* \file bitset.h
* \brief Bitset of arbitrary size definitions.
* \author Michal Krol
*/
#ifndef BITSET_H
#define BITSET_H
//#include "util/bitscan.h"
//#include "util/macros.h"
/****************************************************************************
* generic bitset implementation
*/
#define BITSET_WORD unsigned int
#define BITSET_WORDBITS (sizeof (BITSET_WORD) * 8)
/* bitset declarations
*/
#define BITSET_WORDS(bits) (((bits) + BITSET_WORDBITS - 1) / BITSET_WORDBITS)
#define BITSET_DECLARE(name, bits) BITSET_WORD name[BITSET_WORDS(bits)]
/* bitset operations
*/
#define BITSET_COPY(x, y) memcpy( (x), (y), sizeof (x) )
#define BITSET_EQUAL(x, y) (memcmp( (x), (y), sizeof (x) ) == 0)
#define BITSET_ZERO(x) memset( (x), 0, sizeof (x) )
#define BITSET_ONES(x) memset( (x), 0xff, sizeof (x) )
#define BITSET_BITWORD(b) ((b) / BITSET_WORDBITS)
#define BITSET_BIT(b) (1u << ((b) % BITSET_WORDBITS))
/* single bit operations
*/
#define BITSET_TEST(x, b) (((x)[BITSET_BITWORD(b)] & BITSET_BIT(b)) != 0)
#define BITSET_SET(x, b) ((x)[BITSET_BITWORD(b)] |= BITSET_BIT(b))
#define BITSET_CLEAR(x, b) ((x)[BITSET_BITWORD(b)] &= ~BITSET_BIT(b))
#define BITSET_MASK(b) (((b) % BITSET_WORDBITS == 0) ? ~0 : BITSET_BIT(b) - 1)
#define BITSET_RANGE(b, e) ((BITSET_MASK((e) + 1)) & ~(BITSET_BIT(b) - 1))
/* bit range operations
*/
#define BITSET_TEST_RANGE(x, b, e) \
(BITSET_BITWORD(b) == BITSET_BITWORD(e) ? \
(((x)[BITSET_BITWORD(b)] & BITSET_RANGE(b, e)) != 0) : \
(assert (!"BITSET_TEST_RANGE: bit range crosses word boundary"), 0))
#define BITSET_SET_RANGE(x, b, e) \
(BITSET_BITWORD(b) == BITSET_BITWORD(e) ? \
((x)[BITSET_BITWORD(b)] |= BITSET_RANGE(b, e)) : \
(assert (!"BITSET_SET_RANGE: bit range crosses word boundary"), 0))
#define BITSET_CLEAR_RANGE(x, b, e) \
(BITSET_BITWORD(b) == BITSET_BITWORD(e) ? \
((x)[BITSET_BITWORD(b)] &= ~BITSET_RANGE(b, e)) : \
(assert (!"BITSET_CLEAR_RANGE: bit range crosses word boundary"), 0))
/* Get first bit set in a bitset.
*/
static inline int
__bitset_ffs(const BITSET_WORD *x, int n)
{
int i;
for (i = 0; i < n; i++) {
if (x[i])
return ffs(x[i]) + BITSET_WORDBITS * i;
}
return 0;
}
#define BITSET_FFS(x) __bitset_ffs(x, ARRAY_SIZE(x))
static inline unsigned
__bitset_next_set(unsigned i, BITSET_WORD *tmp,
const BITSET_WORD *set, unsigned size)
{
unsigned bit, word;
/* NOTE: The initial conditions for this function are very specific. At
* the start of the loop, the tmp variable must be set to *set and the
* initial i value set to 0. This way, if there is a bit set in the first
* word, we ignore the i-value and just grab that bit (so 0 is ok, even
* though 0 may be returned). If the first word is 0, then the value of
* `word` will be 0 and we will go on to look at the second word.
*/
word = BITSET_BITWORD(i);
while (*tmp == 0) {
word++;
if (word >= BITSET_WORDS(size))
return size;
*tmp = set[word];
}
/* Find the next set bit in the non-zero word */
bit = ffs(*tmp) - 1;
/* Unset the bit */
*tmp &= ~(1ull << bit);
return word * BITSET_WORDBITS + bit;
}
/**
* Iterates over each set bit in a set
*
* @param __i iteration variable, bit number
* @param __set the bitset to iterate (will not be modified)
* @param __size number of bits in the set to consider
*/
#define BITSET_FOREACH_SET(__i, __set, __size) \
for (BITSET_WORD __tmp = *(__set), *__foo = &__tmp; __foo != NULL; __foo = NULL) \
for (__i = 0; \
(__i = __bitset_next_set(__i, &__tmp, __set, __size)) < __size;)
#ifdef __cplusplus
/**
* Simple C++ wrapper of a bitset type of static size, with value semantics
* and basic bitwise arithmetic operators. The operators defined below are
* expected to have the same semantics as the same operator applied to other
* fundamental integer types. T is the name of the struct to instantiate
* it as, and N is the number of bits in the bitset.
*/
#define DECLARE_BITSET_T(T, N) struct T { \
EXPLICIT_CONVERSION \
operator bool() const \
{ \
for (unsigned i = 0; i < BITSET_WORDS(N); i++) \
if (words[i]) \
return true; \
return false; \
} \
\
T & \
operator=(int x) \
{ \
const T c = {{ (BITSET_WORD)x }}; \
return *this = c; \
} \
\
friend bool \
operator==(const T &b, const T &c) \
{ \
return BITSET_EQUAL(b.words, c.words); \
} \
\
friend bool \
operator!=(const T &b, const T &c) \
{ \
return !(b == c); \
} \
\
friend bool \
operator==(const T &b, int x) \
{ \
const T c = {{ (BITSET_WORD)x }}; \
return b == c; \
} \
\
friend bool \
operator!=(const T &b, int x) \
{ \
return !(b == x); \
} \
\
friend T \
operator~(const T &b) \
{ \
T c; \
for (unsigned i = 0; i < BITSET_WORDS(N); i++) \
c.words[i] = ~b.words[i]; \
return c; \
} \
\
T & \
operator|=(const T &b) \
{ \
for (unsigned i = 0; i < BITSET_WORDS(N); i++) \
words[i] |= b.words[i]; \
return *this; \
} \
\
friend T \
operator|(const T &b, const T &c) \
{ \
T d = b; \
d |= c; \
return d; \
} \
\
T & \
operator&=(const T &b) \
{ \
for (unsigned i = 0; i < BITSET_WORDS(N); i++) \
words[i] &= b.words[i]; \
return *this; \
} \
\
friend T \
operator&(const T &b, const T &c) \
{ \
T d = b; \
d &= c; \
return d; \
} \
\
bool \
test(unsigned i) const \
{ \
return BITSET_TEST(words, i); \
} \
\
T & \
set(unsigned i) \
{ \
BITSET_SET(words, i); \
return *this; \
} \
\
T & \
clear(unsigned i) \
{ \
BITSET_CLEAR(words, i); \
return *this; \
} \
\
BITSET_WORD words[BITSET_WORDS(N)]; \
}
#endif
#endif

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/**************************************************************************
*
* Copyright 2006 VMware, Inc., Bismarck, ND. USA.
* All Rights Reserved.
*
* Permission is hereby granted, free of charge, to any person obtaining a
* copy of this software and associated documentation files (the
* "Software"), to deal in the Software without restriction, including
* without limitation the rights to use, copy, modify, merge, publish,
* distribute, sub license, and/or sell copies of the Software, and to
* permit persons to whom the Software is furnished to do so, subject to
* the following conditions:
*
* THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND, EXPRESS OR
* IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF MERCHANTABILITY,
* FITNESS FOR A PARTICULAR PURPOSE AND NON-INFRINGEMENT. IN NO EVENT SHALL
* THE COPYRIGHT HOLDERS, AUTHORS AND/OR ITS SUPPLIERS BE LIABLE FOR ANY CLAIM,
* DAMAGES OR OTHER LIABILITY, WHETHER IN AN ACTION OF CONTRACT, TORT OR
* OTHERWISE, ARISING FROM, OUT OF OR IN CONNECTION WITH THE SOFTWARE OR THE
* USE OR OTHER DEALINGS IN THE SOFTWARE.
*
* The above copyright notice and this permission notice (including the
* next paragraph) shall be included in all copies or substantial portions
* of the Software.
*
**************************************************************************/
/**
* \file
* List macros heavily inspired by the Linux kernel
* list handling. No list looping yet.
*
* Is not threadsafe, so common operations need to
* be protected using an external mutex.
*/
#ifndef _UTIL_LIST_H_
#define _UTIL_LIST_H_
#include <stdbool.h>
#include <stddef.h>
#include <assert.h>
#ifdef DEBUG
# define list_assert(cond, msg) assert(cond && msg)
#else
# define list_assert(cond, msg) (void)(0 && (cond))
#endif
struct list_head
{
struct list_head *prev;
struct list_head *next;
};
static inline void list_inithead(struct list_head *item)
{
item->prev = item;
item->next = item;
}
static inline void list_add(struct list_head *item, struct list_head *list)
{
item->prev = list;
item->next = list->next;
list->next->prev = item;
list->next = item;
}
static inline void list_addtail(struct list_head *item, struct list_head *list)
{
item->next = list;
item->prev = list->prev;
list->prev->next = item;
list->prev = item;
}
static inline bool list_is_empty(const struct list_head *list);
static inline void list_replace(struct list_head *from, struct list_head *to)
{
if (list_is_empty(from)) {
list_inithead(to);
} else {
to->prev = from->prev;
to->next = from->next;
from->next->prev = to;
from->prev->next = to;
}
}
static inline void list_del(struct list_head *item)
{
item->prev->next = item->next;
item->next->prev = item->prev;
item->prev = item->next = NULL;
}
static inline void list_delinit(struct list_head *item)
{
item->prev->next = item->next;
item->next->prev = item->prev;
item->next = item;
item->prev = item;
}
static inline bool list_is_empty(const struct list_head *list)
{
return list->next == list;
}
/**
* Returns whether the list has exactly one element.
*/
static inline bool list_is_singular(const struct list_head *list)
{
return list->next != NULL && list->next != list && list->next->next == list;
}
static inline unsigned list_length(const struct list_head *list)
{
struct list_head *node;
unsigned length = 0;
for (node = list->next; node != list; node = node->next)
length++;
return length;
}
static inline void list_splice(struct list_head *src, struct list_head *dst)
{
if (list_is_empty(src))
return;
src->next->prev = dst;
src->prev->next = dst->next;
dst->next->prev = src->prev;
dst->next = src->next;
}
static inline void list_splicetail(struct list_head *src, struct list_head *dst)
{
if (list_is_empty(src))
return;
src->prev->next = dst;
src->next->prev = dst->prev;
dst->prev->next = src->next;
dst->prev = src->prev;
}
static inline void list_validate(const struct list_head *list)
{
struct list_head *node;
assert(list->next->prev == list && list->prev->next == list);
for (node = list->next; node != list; node = node->next)
assert(node->next->prev == node && node->prev->next == node);
}
#define LIST_ENTRY(__type, __item, __field) \
((__type *)(((char *)(__item)) - offsetof(__type, __field)))
/**
* Cast from a pointer to a member of a struct back to the containing struct.
*
* 'sample' MUST be initialized, or else the result is undefined!
*/
#ifndef container_of
#define container_of(ptr, sample, member) \
(void *)((char *)(ptr) \
- ((char *)&(sample)->member - (char *)(sample)))
#endif
#define list_first_entry(ptr, type, member) \
LIST_ENTRY(type, (ptr)->next, member)
#define list_last_entry(ptr, type, member) \
LIST_ENTRY(type, (ptr)->prev, member)
#define LIST_FOR_EACH_ENTRY(pos, head, member) \
for (pos = NULL, pos = container_of((head)->next, pos, member); \
&pos->member != (head); \
pos = container_of(pos->member.next, pos, member))
#define LIST_FOR_EACH_ENTRY_SAFE(pos, storage, head, member) \
for (pos = NULL, pos = container_of((head)->next, pos, member), \
storage = container_of(pos->member.next, pos, member); \
&pos->member != (head); \
pos = storage, storage = container_of(storage->member.next, storage, member))
#define LIST_FOR_EACH_ENTRY_SAFE_REV(pos, storage, head, member) \
for (pos = NULL, pos = container_of((head)->prev, pos, member), \
storage = container_of(pos->member.prev, pos, member); \
&pos->member != (head); \
pos = storage, storage = container_of(storage->member.prev, storage, member))
#define LIST_FOR_EACH_ENTRY_FROM(pos, start, head, member) \
for (pos = NULL, pos = container_of((start), pos, member); \
&pos->member != (head); \
pos = container_of(pos->member.next, pos, member))
#define LIST_FOR_EACH_ENTRY_FROM_REV(pos, start, head, member) \
for (pos = NULL, pos = container_of((start), pos, member); \
&pos->member != (head); \
pos = container_of(pos->member.prev, pos, member))
#define list_for_each_entry(type, pos, head, member) \
for (type *pos = LIST_ENTRY(type, (head)->next, member), \
*__next = LIST_ENTRY(type, pos->member.next, member); \
&pos->member != (head); \
pos = LIST_ENTRY(type, pos->member.next, member), \
list_assert(pos == __next, "use _safe iterator"), \
__next = LIST_ENTRY(type, __next->member.next, member))
#define list_for_each_entry_safe(type, pos, head, member) \
for (type *pos = LIST_ENTRY(type, (head)->next, member), \
*__next = LIST_ENTRY(type, pos->member.next, member); \
&pos->member != (head); \
pos = __next, \
__next = LIST_ENTRY(type, __next->member.next, member))
#define list_for_each_entry_rev(type, pos, head, member) \
for (type *pos = LIST_ENTRY(type, (head)->prev, member), \
*__prev = LIST_ENTRY(type, pos->member.prev, member); \
&pos->member != (head); \
pos = LIST_ENTRY(type, pos->member.prev, member), \
list_assert(pos == __prev, "use _safe iterator"), \
__prev = LIST_ENTRY(type, __prev->member.prev, member))
#define list_for_each_entry_safe_rev(type, pos, head, member) \
for (type *pos = LIST_ENTRY(type, (head)->prev, member), \
*__prev = LIST_ENTRY(type, pos->member.prev, member); \
&pos->member != (head); \
pos = __prev, \
__prev = LIST_ENTRY(type, __prev->member.prev, member))
#define list_for_each_entry_from(type, pos, start, head, member) \
for (type *pos = LIST_ENTRY(type, (start), member); \
&pos->member != (head); \
pos = LIST_ENTRY(type, pos->member.next, member))
#define list_for_each_entry_from_safe(type, pos, start, head, member) \
for (type *pos = LIST_ENTRY(type, (start), member), \
*__next = LIST_ENTRY(type, pos->member.next, member); \
&pos->member != (head); \
pos = __next, \
__next = LIST_ENTRY(type, __next->member.next, member))
#define list_for_each_entry_from_rev(type, pos, start, head, member) \
for (type *pos = LIST_ENTRY(type, (start), member); \
&pos->member != (head); \
pos = LIST_ENTRY(type, pos->member.prev, member))
#define list_pair_for_each_entry(type, pos1, pos2, head1, head2, member) \
for (type *pos1 = LIST_ENTRY(type, (head1)->next, member), \
*pos2 = LIST_ENTRY(type, (head2)->next, member); \
&pos1->member != (head1) && &pos2->member != (head2); \
pos1 = LIST_ENTRY(type, pos1->member.next, member), \
pos2 = LIST_ENTRY(type, pos2->member.next, member))
#endif /*_UTIL_LIST_H_*/

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/*
* Copyright © 2014 Intel Corporation
*
* Permission is hereby granted, free of charge, to any person obtaining a
* copy of this software and associated documentation files (the "Software"),
* to deal in the Software without restriction, including without limitation
* the rights to use, copy, modify, merge, publish, distribute, sublicense,
* and/or sell copies of the Software, and to permit persons to whom the
* Software is furnished to do so, subject to the following conditions:
*
* The above copyright notice and this permission notice (including the next
* paragraph) shall be included in all copies or substantial portions of the
* Software.
*
* THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND, EXPRESS OR
* IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF MERCHANTABILITY,
* FITNESS FOR A PARTICULAR PURPOSE AND NONINFRINGEMENT. IN NO EVENT SHALL
* THE AUTHORS OR COPYRIGHT HOLDERS BE LIABLE FOR ANY CLAIM, DAMAGES OR OTHER
* LIABILITY, WHETHER IN AN ACTION OF CONTRACT, TORT OR OTHERWISE, ARISING
* FROM, OUT OF OR IN CONNECTION WITH THE SOFTWARE OR THE USE OR OTHER DEALINGS
* IN THE SOFTWARE.
*/
#ifndef UTIL_MACROS_H
#define UTIL_MACROS_H
#include <assert.h>
/* Compute the size of an array */
#ifndef ARRAY_SIZE
# define ARRAY_SIZE(x) (sizeof(x) / sizeof((x)[0]))
#endif
/* For compatibility with Clang's __has_builtin() */
#ifndef __has_builtin
# define __has_builtin(x) 0
#endif
/**
* __builtin_expect macros
*/
#if !defined(HAVE___BUILTIN_EXPECT)
# define __builtin_expect(x, y) (x)
#endif
#ifndef likely
# ifdef HAVE___BUILTIN_EXPECT
# define likely(x) __builtin_expect(!!(x), 1)
# define unlikely(x) __builtin_expect(!!(x), 0)
# else
# define likely(x) (x)
# define unlikely(x) (x)
# endif
#endif
/**
* Static (compile-time) assertion.
* Basically, use COND to dimension an array. If COND is false/zero the
* array size will be -1 and we'll get a compilation error.
*/
#define STATIC_ASSERT(COND) \
do { \
(void) sizeof(char [1 - 2*!(COND)]); \
} while (0)
/**
* Unreachable macro. Useful for suppressing "control reaches end of non-void
* function" warnings.
*/
#if defined(HAVE___BUILTIN_UNREACHABLE) || __has_builtin(__builtin_unreachable)
#define unreachable(str) \
do { \
assert(!str); \
__builtin_unreachable(); \
} while (0)
#elif defined (_MSC_VER)
#define unreachable(str) \
do { \
assert(!str); \
__assume(0); \
} while (0)
#else
#define unreachable(str) assert(!str)
#endif
/**
* Assume macro. Useful for expressing our assumptions to the compiler,
* typically for purposes of silencing warnings.
*/
#if __has_builtin(__builtin_assume)
#define assume(expr) \
do { \
assert(expr); \
__builtin_assume(expr); \
} while (0)
#elif defined HAVE___BUILTIN_UNREACHABLE
#define assume(expr) ((expr) ? ((void) 0) \
: (assert(!"assumption failed"), \
__builtin_unreachable()))
#elif defined (_MSC_VER)
#define assume(expr) __assume(expr)
#else
#define assume(expr) assert(expr)
#endif
/* Attribute const is used for functions that have no effects other than their
* return value, and only rely on the argument values to compute the return
* value. As a result, calls to it can be CSEed. Note that using memory
* pointed to by the arguments is not allowed for const functions.
*/
#ifdef HAVE_FUNC_ATTRIBUTE_CONST
#define ATTRIBUTE_CONST __attribute__((__const__))
#else
#define ATTRIBUTE_CONST
#endif
#ifdef HAVE_FUNC_ATTRIBUTE_FLATTEN
#define FLATTEN __attribute__((__flatten__))
#else
#define FLATTEN
#endif
#ifdef HAVE_FUNC_ATTRIBUTE_FORMAT
#define PRINTFLIKE(f, a) __attribute__ ((format(__printf__, f, a)))
#else
#define PRINTFLIKE(f, a)
#endif
#ifdef HAVE_FUNC_ATTRIBUTE_MALLOC
#define MALLOCLIKE __attribute__((__malloc__))
#else
#define MALLOCLIKE
#endif
/* Forced function inlining */
/* Note: Clang also sets __GNUC__ (see other cases below) */
#ifndef ALWAYS_INLINE
# if defined(__GNUC__)
# define ALWAYS_INLINE inline __attribute__((always_inline))
# elif defined(_MSC_VER)
# define ALWAYS_INLINE __forceinline
# else
# define ALWAYS_INLINE inline
# endif
#endif
/* Used to optionally mark structures with misaligned elements or size as
* packed, to trade off performance for space.
*/
#ifdef HAVE_FUNC_ATTRIBUTE_PACKED
#define PACKED __attribute__((__packed__))
#else
#define PACKED
#endif
/* Attribute pure is used for functions that have no effects other than their
* return value. As a result, calls to it can be dead code eliminated.
*/
#ifdef HAVE_FUNC_ATTRIBUTE_PURE
#define ATTRIBUTE_PURE __attribute__((__pure__))
#else
#define ATTRIBUTE_PURE
#endif
#ifdef HAVE_FUNC_ATTRIBUTE_RETURNS_NONNULL
#define ATTRIBUTE_RETURNS_NONNULL __attribute__((__returns_nonnull__))
#else
#define ATTRIBUTE_RETURNS_NONNULL
#endif
#ifndef NORETURN
# ifdef _MSC_VER
# define NORETURN __declspec(noreturn)
# elif defined HAVE_FUNC_ATTRIBUTE_NORETURN
# define NORETURN __attribute__((__noreturn__))
# else
# define NORETURN
# endif
#endif
#ifdef __cplusplus
/**
* Macro function that evaluates to true if T is a trivially
* destructible type -- that is, if its (non-virtual) destructor
* performs no action and all member variables and base classes are
* trivially destructible themselves.
*/
# if (defined(__clang__) && defined(__has_feature))
# if __has_feature(has_trivial_destructor)
# define HAS_TRIVIAL_DESTRUCTOR(T) __has_trivial_destructor(T)
# endif
# elif defined(__GNUC__)
# if ((__GNUC__ > 4) || ((__GNUC__ == 4) && (__GNUC_MINOR__ >= 3)))
# define HAS_TRIVIAL_DESTRUCTOR(T) __has_trivial_destructor(T)
# endif
# elif defined(_MSC_VER) && !defined(__INTEL_COMPILER)
# define HAS_TRIVIAL_DESTRUCTOR(T) __has_trivial_destructor(T)
# endif
# ifndef HAS_TRIVIAL_DESTRUCTOR
/* It's always safe (if inefficient) to assume that a
* destructor is non-trivial.
*/
# define HAS_TRIVIAL_DESTRUCTOR(T) (false)
# endif
#endif
/**
* PUBLIC/USED macros
*
* If we build the library with gcc's -fvisibility=hidden flag, we'll
* use the PUBLIC macro to mark functions that are to be exported.
*
* We also need to define a USED attribute, so the optimizer doesn't
* inline a static function that we later use in an alias. - ajax
*/
#ifndef PUBLIC
# if defined(__GNUC__)
# define PUBLIC __attribute__((visibility("default")))
# define USED __attribute__((used))
# elif defined(_MSC_VER)
# define PUBLIC __declspec(dllexport)
# define USED
# else
# define PUBLIC
# define USED
# endif
#endif
/**
* UNUSED marks variables (or sometimes functions) that have to be defined,
* but are sometimes (or always) unused beyond that. A common case is for
* a function parameter to be used in some build configurations but not others.
* Another case is fallback vfuncs that don't do anything with their params.
*
* Note that this should not be used for identifiers used in `assert()`;
* see ASSERTED below.
*/
#ifdef HAVE_FUNC_ATTRIBUTE_UNUSED
#define UNUSED __attribute__((unused))
#else
#define UNUSED
#endif
/**
* Use ASSERTED to indicate that an identifier is unused outside of an `assert()`,
* so that assert-free builds don't get "unused variable" warnings.
*/
#ifdef NDEBUG
#define ASSERTED UNUSED
#else
#define ASSERTED
#endif
#ifdef HAVE_FUNC_ATTRIBUTE_WARN_UNUSED_RESULT
#define MUST_CHECK __attribute__((warn_unused_result))
#else
#define MUST_CHECK
#endif
#if defined(__GNUC__)
#define ATTRIBUTE_NOINLINE __attribute__((noinline))
#else
#define ATTRIBUTE_NOINLINE
#endif
/**
* Check that STRUCT::FIELD can hold MAXVAL. We use a lot of bitfields
* in Mesa/gallium. We have to be sure they're of sufficient size to
* hold the largest expected value.
* Note that with MSVC, enums are signed and enum bitfields need one extra
* high bit (always zero) to ensure the max value is handled correctly.
* This macro will detect that with MSVC, but not GCC.
*/
#define ASSERT_BITFIELD_SIZE(STRUCT, FIELD, MAXVAL) \
do { \
ASSERTED STRUCT s; \
s.FIELD = (MAXVAL); \
assert((int) s.FIELD == (MAXVAL) && "Insufficient bitfield size!"); \
} while (0)
/** Compute ceiling of integer quotient of A divided by B. */
#define DIV_ROUND_UP( A, B ) ( ((A) + (B) - 1) / (B) )
/** Clamp X to [MIN,MAX]. Turn NaN into MIN, arbitrarily. */
#define CLAMP( X, MIN, MAX ) ( (X)>(MIN) ? ((X)>(MAX) ? (MAX) : (X)) : (MIN) )
/** Minimum of two values: */
#define MIN2( A, B ) ( (A)<(B) ? (A) : (B) )
/** Maximum of two values: */
#define MAX2( A, B ) ( (A)>(B) ? (A) : (B) )
/** Minimum and maximum of three values: */
#define MIN3( A, B, C ) ((A) < (B) ? MIN2(A, C) : MIN2(B, C))
#define MAX3( A, B, C ) ((A) > (B) ? MAX2(A, C) : MAX2(B, C))
/** Align a value to a power of two */
#define ALIGN_POT(x, pot_align) (((x) + (pot_align) - 1) & ~((pot_align) - 1))
/**
* Macro for declaring an explicit conversion operator. Defaults to an
* implicit conversion if C++11 is not supported.
*/
#if __cplusplus >= 201103L
#define EXPLICIT_CONVERSION explicit
#elif defined(__cplusplus)
#define EXPLICIT_CONVERSION
#endif
/** Set a single bit */
#define BITFIELD_BIT(b) (1u << (b))
/** Set all bits up to excluding bit b */
#define BITFIELD_MASK(b) \
((b) == 32 ? (~0u) : BITFIELD_BIT((b) % 32) - 1)
/** Set count bits starting from bit b */
#define BITFIELD_RANGE(b, count) \
(BITFIELD_MASK((b) + (count)) & ~BITFIELD_MASK(b))
/** Set a single bit */
#define BITFIELD64_BIT(b) (1ull << (b))
/** Set all bits up to excluding bit b */
#define BITFIELD64_MASK(b) \
((b) == 64 ? (~0ull) : BITFIELD64_BIT(b) - 1)
/** Set count bits starting from bit b */
#define BITFIELD64_RANGE(b, count) \
(BITFIELD64_MASK((b) + (count)) & ~BITFIELD64_MASK(b))
/* TODO: In future we should try to move this to u_debug.h once header
* dependencies are reorganised to allow this.
*/
enum pipe_debug_type
{
PIPE_DEBUG_TYPE_OUT_OF_MEMORY = 1,
PIPE_DEBUG_TYPE_ERROR,
PIPE_DEBUG_TYPE_SHADER_INFO,
PIPE_DEBUG_TYPE_PERF_INFO,
PIPE_DEBUG_TYPE_INFO,
PIPE_DEBUG_TYPE_FALLBACK,
PIPE_DEBUG_TYPE_CONFORMANCE,
};
#endif /* UTIL_MACROS_H */

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#include "debug/include/adreno_pm4types.h"
#define REG_A5XX_TPL1_CS_TEX_CONST_LO 0x0000e760
#define REG_A5XX_TPL1_CS_TEX_SAMP_LO 0x0000e75c
#define REG_A5XX_SP_CS_CTRL_REG0 0x0000e5f0
std::map<int, std::string> regs = {
{0x0000e760, "REG_A5XX_TPL1_CS_TEX_CONST_LO"},
{0x0000e75c, "REG_A5XX_TPL1_CS_TEX_SAMP_LO"},
{0x00000e06, "REG_A5XX_HLSQ_MODE_CNTL"},
{0x00000e91, "REG_A5XX_UCHE_CACHE_INVALIDATE_MIN_LO"},
{0x00000ec2, "REG_A5XX_SP_MODE_CNTL"},
{0x0000e580, "REG_A5XX_SP_SP_CNTL"},
{0x0000e5f0, "REG_A5XX_SP_CS_CTRL_REG0"},
{0x0000e796, "REG_A5XX_HLSQ_CS_CNTL"},
{0x0000e784, "REG_A5XX_HLSQ_CONTROL_0_REG"},
{0x0000e7b0, "REG_A5XX_HLSQ_CS_NDRANGE_0"},
{0x0000e7b9, "REG_A5XX_HLSQ_CS_KERNEL_GROUP_X"},
{0x00000cdd, "REG_A5XX_VSC_RESOLVE_CNTL"},
};
std::map<int, std::string> ops = {
{33, "CP_REG_RMW"},
{62, "CP_REG_TO_MEM"},
{49, "CP_RUN_OPENCL"},
{16, "CP_NOP"},
{38, "CP_WAIT_FOR_IDLE"},
{110, "CP_COMPUTE_CHECKPOINT"},
{48, "CP_LOAD_STATE"},
};
void CachedCommand::disassemble() {
uint32_t *src = (uint32_t *)cmds[1].gpuaddr;
int len = cmds[1].size/4;
printf("disassemble %p %d\n", src, len);
int i = 0;
while (i < len) {
int pktsize;
int pkttype = -1;
if (pkt_is_type0(src[i])) {
pkttype = 0;
pktsize = type0_pkt_size(src[i]);
} else if (pkt_is_type3(src[i])) {
pkttype = 3;
pktsize = type3_pkt_size(src[i]);
} else if (pkt_is_type4(src[i])) {
pkttype = 4;
pktsize = type4_pkt_size(src[i]);
} else if (pkt_is_type7(src[i])) {
pkttype = 7;
pktsize = type7_pkt_size(src[i]);
}
printf("%3d: type:%d size:%d ", i, pkttype, pktsize);
if (pkttype == 7) {
int op = cp_type7_opcode(src[i]);
if (ops.find(op) != ops.end()) {
printf("%-40s ", ops[op].c_str());
} else {
printf("op: %4d ", op);
}
}
if (pkttype == 4) {
int reg = cp_type4_base_index_one_reg_wr(src[i]);
if (regs.find(reg) != regs.end()) {
printf("%-40s ", regs[reg].c_str());
} else {
printf("reg: %4x ", reg);
}
}
for (int j = 0; j < pktsize+1; j++) {
printf("%8.8X ", src[i+j]);
}
printf("\n");
uint64_t addr;
if (pkttype == 7) {
switch (cp_type7_opcode(src[i])) {
case CP_LOAD_STATE:
int dst_off = src[i+1] & 0x1FFF;
int state_src = (src[i+1] >> 16) & 3;
int state_block = (src[i+1] >> 18) & 7;
int state_type = src[i+2] & 3;
int num_unit = (src[i+1] & 0xffc00000) >> 22;
printf(" dst_off: %x state_src: %d state_block: %d state_type: %d num_unit: %d\n",
dst_off, state_src, state_block, state_type, num_unit);
addr = (uint64_t)(src[i+2] & 0xfffffffc) | ((uint64_t)(src[i+3]) << 32);
if (state_block == 5 && state_type == 0) {
if (!(addr&0xFFF)) {
int len = 0x1000;
if (num_unit >= 32) len += 0x1000;
//hexdump((uint32_t *)addr, len);
char fn[0x100];
snprintf(fn, sizeof(fn), "/tmp/0x%lx.shader", addr);
printf("dumping %s\n", fn);
FILE *f = fopen(fn, "wb");
// groups of 16 instructions
fwrite((void*)addr, 1, len, f);
fclose(f);
}
}
break;
}
}
/*if (pkttype == 4) {
switch (cp_type4_base_index_one_reg_wr(src[i])) {
case REG_A5XX_SP_CS_CTRL_REG0:
addr = (uint64_t)(src[i+4] & 0xfffffffc) | ((uint64_t)(src[i+5]) << 32);
hexdump((uint32_t *)addr, 0x1000);
break;
}
}*/
/*if (pkttype == 4 && cp_type4_base_index_one_reg_wr(src[i]) == REG_A5XX_TPL1_CS_TEX_CONST_LO) {
uint64_t addr = (uint64_t)(src[i+1] & 0xffffffff) | ((uint64_t)(src[i+2]) << 32);
hexdump((uint32_t *)addr, 0x40);
}
if (pkttype == 4 && cp_type4_base_index_one_reg_wr(src[i]) == REG_A5XX_TPL1_CS_TEX_SAMP_LO) {
uint64_t addr = (uint64_t)(src[i+1] & 0xffffffff) | ((uint64_t)(src[i+2]) << 32);
hexdump((uint32_t *)addr, 0x40);
}*/
if (pkttype == -1) break;
i += (1+pktsize);
}
assert(i == len);
}

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/* Copyright (c) 2002,2007-2015, The Linux Foundation. All rights reserved.
*
* This program is free software; you can redistribute it and/or modify
* it under the terms of the GNU General Public License version 2 and
* only version 2 as published by the Free Software Foundation.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU General Public License for more details.
*
*/
#ifndef __ADRENO_PM4TYPES_H
#define __ADRENO_PM4TYPES_H
//#include "adreno.h"
#define CP_PKT_MASK 0xc0000000
#define CP_TYPE0_PKT ((unsigned int)0 << 30)
#define CP_TYPE3_PKT ((unsigned int)3 << 30)
#define CP_TYPE4_PKT ((unsigned int)4 << 28)
#define CP_TYPE7_PKT ((unsigned int)7 << 28)
#define PM4_TYPE4_PKT_SIZE_MAX 128
/* type3 packets */
/* Enable preemption flag */
#define CP_PREEMPT_ENABLE 0x1C
/* Preemption token command on which preemption occurs */
#define CP_PREEMPT_TOKEN 0x1E
/* Bit to set in CP_PREEMPT_TOKEN ordinal for interrupt on preemption */
#define CP_PREEMPT_ORDINAL_INTERRUPT 24
/* copy from ME scratch RAM to a register */
#define CP_SCRATCH_TO_REG 0x4d
/* Copy from REG to ME scratch RAM */
#define CP_REG_TO_SCRATCH 0x4a
/* Wait for memory writes to complete */
#define CP_WAIT_MEM_WRITES 0x12
/* Conditional execution based on register comparison */
#define CP_COND_REG_EXEC 0x47
/* Memory to REG copy */
#define CP_MEM_TO_REG 0x42
/* initialize CP's micro-engine */
#define CP_ME_INIT 0x48
/* skip N 32-bit words to get to the next packet */
#define CP_NOP 0x10
/* indirect buffer dispatch. same as IB, but init is pipelined */
#define CP_INDIRECT_BUFFER_PFD 0x37
/* wait for the IDLE state of the engine */
#define CP_WAIT_FOR_IDLE 0x26
/* wait until a register or memory location is a specific value */
#define CP_WAIT_REG_MEM 0x3c
/* wait until a register location is equal to a specific value */
#define CP_WAIT_REG_EQ 0x52
/* switches SMMU pagetable, used on a5xx only */
#define CP_SMMU_TABLE_UPDATE 0x53
/* wait until a read completes */
#define CP_WAIT_UNTIL_READ 0x5c
/* wait until all base/size writes from an IB_PFD packet have completed */
#define CP_WAIT_IB_PFD_COMPLETE 0x5d
/* register read/modify/write */
#define CP_REG_RMW 0x21
/* Set binning configuration registers */
#define CP_SET_BIN_DATA 0x2f
/* reads register in chip and writes to memory */
#define CP_REG_TO_MEM 0x3e
/* write N 32-bit words to memory */
#define CP_MEM_WRITE 0x3d
/* write CP_PROG_COUNTER value to memory */
#define CP_MEM_WRITE_CNTR 0x4f
/* conditional execution of a sequence of packets */
#define CP_COND_EXEC 0x44
/* conditional write to memory or register */
#define CP_COND_WRITE 0x45
/* generate an event that creates a write to memory when completed */
#define CP_EVENT_WRITE 0x46
/* generate a VS|PS_done event */
#define CP_EVENT_WRITE_SHD 0x58
/* generate a cache flush done event */
#define CP_EVENT_WRITE_CFL 0x59
/* generate a z_pass done event */
#define CP_EVENT_WRITE_ZPD 0x5b
/* initiate fetch of index buffer and draw */
#define CP_DRAW_INDX 0x22
/* draw using supplied indices in packet */
#define CP_DRAW_INDX_2 0x36
/* initiate fetch of index buffer and binIDs and draw */
#define CP_DRAW_INDX_BIN 0x34
/* initiate fetch of bin IDs and draw using supplied indices */
#define CP_DRAW_INDX_2_BIN 0x35
/* New draw packets defined for A4XX */
#define CP_DRAW_INDX_OFFSET 0x38
#define CP_DRAW_INDIRECT 0x28
#define CP_DRAW_INDX_INDIRECT 0x29
#define CP_DRAW_AUTO 0x24
/* begin/end initiator for viz query extent processing */
#define CP_VIZ_QUERY 0x23
/* fetch state sub-blocks and initiate shader code DMAs */
#define CP_SET_STATE 0x25
/* load constant into chip and to memory */
#define CP_SET_CONSTANT 0x2d
/* load sequencer instruction memory (pointer-based) */
#define CP_IM_LOAD 0x27
/* load sequencer instruction memory (code embedded in packet) */
#define CP_IM_LOAD_IMMEDIATE 0x2b
/* load constants from a location in memory */
#define CP_LOAD_CONSTANT_CONTEXT 0x2e
/* selective invalidation of state pointers */
#define CP_INVALIDATE_STATE 0x3b
/* dynamically changes shader instruction memory partition */
#define CP_SET_SHADER_BASES 0x4A
/* sets the 64-bit BIN_MASK register in the PFP */
#define CP_SET_BIN_MASK 0x50
/* sets the 64-bit BIN_SELECT register in the PFP */
#define CP_SET_BIN_SELECT 0x51
/* updates the current context, if needed */
#define CP_CONTEXT_UPDATE 0x5e
/* generate interrupt from the command stream */
#define CP_INTERRUPT 0x40
/* A5XX Enable yield in RB only */
#define CP_YIELD_ENABLE 0x1C
/* Enable/Disable/Defer A5x global preemption model */
#define CP_PREEMPT_ENABLE_GLOBAL 0x69
/* Enable/Disable A5x local preemption model */
#define CP_PREEMPT_ENABLE_LOCAL 0x6A
/* Yeild token on a5xx similar to CP_PREEMPT on a4xx */
#define CP_CONTEXT_SWITCH_YIELD 0x6B
/* Inform CP about current render mode (needed for a5xx preemption) */
#define CP_SET_RENDER_MODE 0x6C
/* copy sequencer instruction memory to system memory */
#define CP_IM_STORE 0x2c
/* test 2 memory locations to dword values specified */
#define CP_TEST_TWO_MEMS 0x71
/* Write register, ignoring context state for context sensitive registers */
#define CP_REG_WR_NO_CTXT 0x78
/*
* for A4xx
* Write to register with address that does not fit into type-0 pkt
*/
#define CP_WIDE_REG_WRITE 0x74
/* PFP waits until the FIFO between the PFP and the ME is empty */
#define CP_WAIT_FOR_ME 0x13
/* Record the real-time when this packet is processed by PFP */
#define CP_RECORD_PFP_TIMESTAMP 0x11
#define CP_SET_PROTECTED_MODE 0x5f /* sets the register protection mode */
/* Used to switch GPU between secure and non-secure modes */
#define CP_SET_SECURE_MODE 0x66
#define CP_BOOTSTRAP_UCODE 0x6f /* bootstraps microcode */
/*
* for a3xx
*/
#define CP_LOAD_STATE 0x30 /* load high level sequencer command */
/* Conditionally load a IB based on a flag */
#define CP_COND_INDIRECT_BUFFER_PFE 0x3A /* prefetch enabled */
#define CP_COND_INDIRECT_BUFFER_PFD 0x32 /* prefetch disabled */
/* Load a buffer with pre-fetch enabled */
#define CP_INDIRECT_BUFFER_PFE 0x3F
#define CP_EXEC_CL 0x31
/* (A4x) save PM4 stream pointers to execute upon a visible draw */
#define CP_SET_DRAW_STATE 0x43
#define CP_LOADSTATE_DSTOFFSET_SHIFT 0x00000000
#define CP_LOADSTATE_STATESRC_SHIFT 0x00000010
#define CP_LOADSTATE_STATEBLOCKID_SHIFT 0x00000013
#define CP_LOADSTATE_NUMOFUNITS_SHIFT 0x00000016
#define CP_LOADSTATE_STATETYPE_SHIFT 0x00000000
#define CP_LOADSTATE_EXTSRCADDR_SHIFT 0x00000002
static inline uint pm4_calc_odd_parity_bit(uint val)
{
return (0x9669 >> (0xf & ((val) ^
((val) >> 4) ^ ((val) >> 8) ^ ((val) >> 12) ^
((val) >> 16) ^ ((val) >> 20) ^ ((val) >> 24) ^
((val) >> 28)))) & 1;
}
/*
* PM4 packet header functions
* For all the packet functions the passed in count should be the size of the
* payload excluding the header
*/
static inline uint cp_type0_packet(uint regindx, uint cnt)
{
return CP_TYPE0_PKT | ((cnt-1) << 16) | ((regindx) & 0x7FFF);
}
static inline uint cp_type3_packet(uint opcode, uint cnt)
{
return CP_TYPE3_PKT | ((cnt-1) << 16) | (((opcode) & 0xFF) << 8);
}
static inline uint cp_type4_packet(uint opcode, uint cnt)
{
return CP_TYPE4_PKT | ((cnt) << 0) |
(pm4_calc_odd_parity_bit(cnt) << 7) |
(((opcode) & 0x3FFFF) << 8) |
((pm4_calc_odd_parity_bit(opcode) << 27));
}
static inline uint cp_type7_packet(uint opcode, uint cnt)
{
return CP_TYPE7_PKT | ((cnt) << 0) |
(pm4_calc_odd_parity_bit(cnt) << 15) |
(((opcode) & 0x7F) << 16) |
((pm4_calc_odd_parity_bit(opcode) << 23));
}
#define pkt_is_type0(pkt) (((pkt) & 0XC0000000) == CP_TYPE0_PKT)
#define type0_pkt_size(pkt) ((((pkt) >> 16) & 0x3FFF) + 1)
#define type0_pkt_offset(pkt) ((pkt) & 0x7FFF)
/*
* Check both for the type3 opcode and make sure that the reserved bits [1:7]
* and 15 are 0
*/
#define pkt_is_type3(pkt) \
((((pkt) & 0xC0000000) == CP_TYPE3_PKT) && \
(((pkt) & 0x80FE) == 0))
#define cp_type3_opcode(pkt) (((pkt) >> 8) & 0xFF)
#define type3_pkt_size(pkt) ((((pkt) >> 16) & 0x3FFF) + 1)
#define pkt_is_type4(pkt) \
((((pkt) & 0xF0000000) == CP_TYPE4_PKT) && \
((((pkt) >> 27) & 0x1) == \
pm4_calc_odd_parity_bit(cp_type4_base_index_one_reg_wr(pkt))) \
&& ((((pkt) >> 7) & 0x1) == \
pm4_calc_odd_parity_bit(type4_pkt_size(pkt))))
#define cp_type4_base_index_one_reg_wr(pkt) (((pkt) >> 8) & 0x7FFFF)
#define type4_pkt_size(pkt) ((pkt) & 0x7F)
#define pkt_is_type7(pkt) \
((((pkt) & 0xF0000000) == CP_TYPE7_PKT) && \
(((pkt) & 0x0F000000) == 0) && \
((((pkt) >> 23) & 0x1) == \
pm4_calc_odd_parity_bit(cp_type7_opcode(pkt))) \
&& ((((pkt) >> 15) & 0x1) == \
pm4_calc_odd_parity_bit(type7_pkt_size(pkt))))
#define cp_type7_opcode(pkt) (((pkt) >> 16) & 0x7F)
#define type7_pkt_size(pkt) ((pkt) & 0x3FFF)
/* dword base address of the GFX decode space */
#define SUBBLOCK_OFFSET(reg) ((unsigned int)((reg) - (0x2000)))
/* gmem command buffer length */
#define CP_REG(reg) ((0x4 << 16) | (SUBBLOCK_OFFSET(reg)))
// add these
#define ADRENO_GPUREV(x) 530
#define lower_32_bits(n) ((uint32_t)(n))
#define upper_32_bits(n) ((uint32_t)(((n) >> 16) >> 16))
/* Return true if the hardware uses the legacy (A4XX and older) PM4 format */
#define ADRENO_LEGACY_PM4(_d) (ADRENO_GPUREV(_d) < 500)
/**
* cp_packet - Generic CP packet to support different opcodes on
* different GPU cores.
* @adreno_dev: The adreno device
* @opcode: Operation for cp packet
* @size: size for cp packet
*/
static inline uint cp_packet(struct adreno_device *adreno_dev,
int opcode, uint size)
{
if (ADRENO_LEGACY_PM4(adreno_dev))
return cp_type3_packet(opcode, size);
return cp_type7_packet(opcode, size);
}
/**
* cp_mem_packet - Generic CP memory packet to support different
* opcodes on different GPU cores.
* @adreno_dev: The adreno device
* @opcode: mem operation for cp packet
* @size: size for cp packet
* @num_mem: num of mem access
*/
static inline uint cp_mem_packet(struct adreno_device *adreno_dev,
int opcode, uint size, uint num_mem)
{
if (ADRENO_LEGACY_PM4(adreno_dev))
return cp_type3_packet(opcode, size);
return cp_type7_packet(opcode, size + num_mem);
}
/* Return 1 if the command is an indirect buffer of any kind */
static inline int adreno_cmd_is_ib(struct adreno_device *adreno_dev,
unsigned int cmd)
{
return cmd == cp_mem_packet(adreno_dev,
CP_INDIRECT_BUFFER_PFE, 2, 1) ||
cmd == cp_mem_packet(adreno_dev,
CP_INDIRECT_BUFFER_PFD, 2, 1) ||
cmd == cp_mem_packet(adreno_dev,
CP_COND_INDIRECT_BUFFER_PFE, 2, 1) ||
cmd == cp_mem_packet(adreno_dev,
CP_COND_INDIRECT_BUFFER_PFD, 2, 1);
}
/**
* cp_gpuaddr - Generic function to add 64bit and 32bit gpuaddr
* to pm4 commands
* @adreno_dev: The adreno device
* @cmds: command pointer to add gpuaddr
* @gpuaddr: gpuaddr to add
*/
static inline uint cp_gpuaddr(struct adreno_device *adreno_dev,
uint *cmds, uint64_t gpuaddr)
{
uint *start = cmds;
if (ADRENO_LEGACY_PM4(adreno_dev))
*cmds++ = (uint)gpuaddr;
else {
*cmds++ = lower_32_bits(gpuaddr);
*cmds++ = upper_32_bits(gpuaddr);
}
return cmds - start;
}
/**
* cp_register - Generic function for gpu register operation
* @adreno_dev: The adreno device
* @reg: GPU register
* @size: count for PM4 operation
*/
static inline uint cp_register(struct adreno_device *adreno_dev,
unsigned int reg, unsigned int size)
{
if (ADRENO_LEGACY_PM4(adreno_dev))
return cp_type0_packet(reg, size);
return cp_type4_packet(reg, size);
}
/**
* cp_wait_for_me - common function for WAIT_FOR_ME
* @adreno_dev: The adreno device
* @cmds: command pointer to add gpuaddr
*/
static inline uint cp_wait_for_me(struct adreno_device *adreno_dev,
uint *cmds)
{
uint *start = cmds;
if (ADRENO_LEGACY_PM4(adreno_dev)) {
*cmds++ = cp_type3_packet(CP_WAIT_FOR_ME, 1);
*cmds++ = 0;
} else
*cmds++ = cp_type7_packet(CP_WAIT_FOR_ME, 0);
return cmds - start;
}
/**
* cp_wait_for_idle - common function for WAIT_FOR_IDLE
* @adreno_dev: The adreno device
* @cmds: command pointer to add gpuaddr
*/
static inline uint cp_wait_for_idle(struct adreno_device *adreno_dev,
uint *cmds)
{
uint *start = cmds;
if (ADRENO_LEGACY_PM4(adreno_dev)) {
*cmds++ = cp_type3_packet(CP_WAIT_FOR_IDLE, 1);
*cmds++ = 0;
} else
*cmds++ = cp_type7_packet(CP_WAIT_FOR_IDLE, 0);
return cmds - start;
}
/**
* cp_invalidate_state - common function for invalidating cp
* state
* @adreno_dev: The adreno device
* @cmds: command pointer to add gpuaddr
*/
static inline uint cp_invalidate_state(struct adreno_device *adreno_dev,
uint *cmds)
{
uint *start = cmds;
if (ADRENO_GPUREV(adreno_dev) < 500) {
*cmds++ = cp_type3_packet(CP_INVALIDATE_STATE, 1);
*cmds++ = 0x7fff;
} else {
*cmds++ = cp_type7_packet(CP_SET_DRAW_STATE, 3);
*cmds++ = 0x40000;
*cmds++ = 0;
*cmds++ = 0;
}
return cmds - start;
}
#endif /* __ADRENO_PM4TYPES_H */

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#include <sys/types.h>
#include "include/msm_kgsl.h"
#include "common/clutil.h"
#include <stdio.h>
#include <stdlib.h>
#include <dlfcn.h>
#include <cassert>
#include <sys/mman.h>
int run_num = 0;
int ioctl_num = 0;
void hexdump(uint32_t *d, int len) {
assert((len%4) == 0);
printf(" dumping %p len 0x%x\n", d, len);
for (int i = 0; i < len/4; i++) {
if (i != 0 && (i%0x10) == 0) printf("\n");
printf("%8x ", d[i]);
}
printf("\n");
}
void hexdump8(uint8_t *d, int len) {
printf(" dumping %p len 0x%x\n", d, len);
for (int i = 0; i < len; i++) {
if (i != 0 && (i%0x10) == 0) printf("\n");
printf("%02x ", d[i]);
}
printf("\n");
}
#include <string>
#include <vector>
#include <map>
using namespace std;
#include "disasm/include/adreno_pm4types.h"
#define REG_A5XX_TPL1_CS_TEX_CONST_LO 0x0000e760
#define REG_A5XX_TPL1_CS_TEX_SAMP_LO 0x0000e75c
class CachedCommand {
public:
CachedCommand(struct kgsl_gpu_command *cmd, int lfd);
void exec(bool wait);
private:
string cmd_0, cmd_1;
int obj_len;
int fd;
struct kgsl_gpu_command cache;
struct kgsl_command_object cmds[2];
struct kgsl_command_object objs[1];
};
vector<CachedCommand *> queue_cmds;
void disassemble(uint32_t *src, int len) {
int i = 0;
while (i < len) {
int pktsize;
int pkttype = -1;
if (pkt_is_type0(src[i])) {
pkttype = 0;
pktsize = type0_pkt_size(src[i]);
} else if (pkt_is_type3(src[i])) {
pkttype = 3;
pktsize = type3_pkt_size(src[i]);
} else if (pkt_is_type4(src[i])) {
pkttype = 4;
pktsize = type4_pkt_size(src[i]);
} else if (pkt_is_type7(src[i])) {
pkttype = 7;
pktsize = type7_pkt_size(src[i]);
}
printf("%3d: type:%d size:%d ", i, pkttype, pktsize);
if (pkttype == 7) {
printf("op: %4x ", cp_type7_opcode(src[i]));
}
if (pkttype == 4) {
printf("reg: %4x ", cp_type4_base_index_one_reg_wr(src[i]));
}
for (int j = 0; j < pktsize+1; j++) {
printf("%8.8X ", src[i+j]);
}
printf("\n");
if (pkttype == 7 && cp_type7_opcode(src[i]) == CP_LOAD_STATE) {
// CP_LOAD_STATE4
int sz = (src[i+1] & 0xffc00000) >> 22;
uint64_t addr = (uint64_t)(src[i+2] & 0xfffffffc) | ((uint64_t)(src[i+3]) << 32);
hexdump((uint32_t *)addr, sz*4);
}
if (pkttype == 4 && cp_type4_base_index_one_reg_wr(src[i]) == REG_A5XX_TPL1_CS_TEX_CONST_LO) {
uint64_t addr = (uint64_t)(src[i+1] & 0xffffffff) | ((uint64_t)(src[i+2]) << 32);
hexdump((uint32_t *)addr, 0x40);
}
if (pkttype == 4 && cp_type4_base_index_one_reg_wr(src[i]) == REG_A5XX_TPL1_CS_TEX_SAMP_LO) {
uint64_t addr = (uint64_t)(src[i+1] & 0xffffffff) | ((uint64_t)(src[i+2]) << 32);
hexdump((uint32_t *)addr, 0x40);
}
if (pkttype == -1) break;
i += (1+pktsize);
}
assert(i == len);
}
int intercept = 1;
int prop_num = 0;
extern "C" {
/*void *gsl_memory_alloc_pure(long param_1, long param_2, long *param_3) {
void *(*my_gsl_memory_alloc_pure)(long param_1, long param_2, long *param_3);
my_gsl_memory_alloc_pure = reinterpret_cast<decltype(my_gsl_memory_alloc_pure)>(dlsym(RTLD_NEXT, "gsl_memory_alloc_pure"));
void *ret = my_gsl_memory_alloc_pure(param_1, param_2, param_3);
printf("gsl_memory_alloc_pure: 0x%lx 0x%lx %p = %p\n", param_1, param_2, param_3, ret);
return ret;
}*/
void *mmap64(void *addr, size_t len, int prot, int flags, int fildes, off64_t off) {
void *(*my_mmap64)(void *addr, size_t len, int prot, int flags, int fildes, off64_t off);
my_mmap64 = reinterpret_cast<decltype(my_mmap64)>(dlsym(RTLD_NEXT, "mmap64"));
void *ret = my_mmap64(addr, len, prot, flags, fildes, off);
if (fildes == 3) {
printf("mmap64(addr=%p, len=0x%zx, prot=0x%x, flags=0x%x, fildes=%d, off=0x%lx) = %p\n", addr, len, prot, flags, fildes, off, ret);
}
return ret;
}
pid_t gettid(void);
#undef ioctl
int ioctl(int filedes, unsigned long request, void *argp) {
int (*my_ioctl)(int filedes, unsigned long request, void *argp);
my_ioctl = reinterpret_cast<decltype(my_ioctl)>(dlsym(RTLD_NEXT, "ioctl"));
int skip = 0;
if (intercept) {
int tid = gettid();
if (request == IOCTL_KGSL_GPU_COMMAND) {
struct kgsl_gpu_command *cmd = (struct kgsl_gpu_command *)argp;
printf("IOCTL_KGSL_GPU_COMMAND(%d): flags: 0x%lx numcmds: %u numobjs: %u numsyncs: %u context_id: %u timestamp: %u\n",
tid,
cmd->flags,
cmd->numcmds, cmd->numobjs, cmd->numsyncs,
cmd->context_id, cmd->timestamp);
assert(cmd->numcmds == 2);
assert(cmd->numobjs == 1);
assert(cmd->numsyncs == 0);
//struct kgsl_command_object *obj = (struct kgsl_command_object *)cmd->cmdlist;
//assert(obj[0].size == sizeof(queue_init));
//memcpy(queue_init, (void*)obj[0].gpuaddr, sizeof(queue_init));
//string qcmd((char*)obj[1].gpuaddr, obj[1].size);
if (run_num == 3) {
CachedCommand *ccmd = new CachedCommand(cmd, filedes);
queue_cmds.push_back(ccmd);
//ccmd->exec();
//skip = 0;
//printf("command 0x%lx\n", obj[1].gpuaddr);
//disassemble((uint32_t *)qcmd.data(), qcmd.size()/4);
//queue_cmds.push_back(qcmd);
}
#ifdef DUMP
char tmp[0x100];
snprintf(tmp, sizeof(tmp), "/tmp/thneed/run_%d_%d", run_num, ioctl_num++);
FILE *f = fopen(tmp, "wb");
#endif
// kgsl_cmdbatch_add_cmdlist
for (int i = 0; i < cmd->numcmds; i++) {
struct kgsl_command_object *obj = (struct kgsl_command_object *)cmd->cmdlist;
printf(" cmd: %lx %5lx %5lx flags:%3x %d\n",
obj[i].offset, obj[i].gpuaddr, obj[i].size, obj[i].flags, obj[i].id);
//hexdump((uint32_t *)obj[i].gpuaddr, obj[i].size);
#ifdef DUMP
fwrite(&obj[i].size, sizeof(obj[i].size), 1, f);
fwrite((void*)obj[i].gpuaddr, obj[i].size, 1, f);
#endif
}
// kgsl_cmdbatch_add_memlist
for (int i = 0; i < cmd->numobjs; i++) {
struct kgsl_command_object *obj = (struct kgsl_command_object *)cmd->objlist;
printf(" obj: %lx %5lx %5lx flags:%3x %d\n",
obj[i].offset, obj[i].gpuaddr, obj[i].size, obj[i].flags, obj[i].id);
//hexdump((uint32_t *)obj[i].gpuaddr, obj[i].size);
#ifdef DUMP
fwrite(&obj[i].size, sizeof(obj[i].size), 1, f);
fwrite((void*)obj[i].gpuaddr, obj[i].size, 1, f);
#endif
}
#ifdef DUMP
fclose(f);
#endif
} else if (request == IOCTL_KGSL_SETPROPERTY) {
struct kgsl_device_getproperty *prop = (struct kgsl_device_getproperty *)argp;
printf("IOCTL_KGSL_SETPROPERTY(%d): 0x%x\n", tid, prop->type);
hexdump8((uint8_t*)prop->value, prop->sizebytes);
if (prop_num == 1) { printf("SKIPPING\n"); skip = 1; }
if (run_num == 3) prop_num++;
//hexdump((unsigned char*)prop->value, prop->sizebytes);
} else if (request == IOCTL_KGSL_GPUOBJ_SYNC) {
struct kgsl_gpuobj_sync *cmd = (struct kgsl_gpuobj_sync *)argp;
struct kgsl_gpuobj_sync_obj *objs = (struct kgsl_gpuobj_sync_obj *)(cmd->objs);
printf("IOCTL_KGSL_GPUOBJ_SYNC(%d) count:%d ", tid, cmd->count);
for (int i = 0; i < cmd->count; i++) {
printf(" -- offset:0x%lx len:0x%lx id:%d op:%d ", objs[i].offset, objs[i].length, objs[i].id, objs[i].op);
}
printf("\n");
} else if (request == IOCTL_KGSL_DEVICE_WAITTIMESTAMP_CTXTID) {
struct kgsl_device_waittimestamp_ctxtid *cmd = (struct kgsl_device_waittimestamp_ctxtid *)argp;
printf("IOCTL_KGSL_DEVICE_WAITTIMESTAMP_CTXTID(%d): context_id: %d timestamp: %d timeout: %d\n",
tid, cmd->context_id, cmd->timestamp, cmd->timeout);
} else if (request == IOCTL_KGSL_GPUOBJ_ALLOC) {
struct kgsl_gpuobj_alloc *cmd = (struct kgsl_gpuobj_alloc *)argp;
printf("IOCTL_KGSL_GPUOBJ_ALLOC: size:0x%lx flags:0x%lx va_len:0x%lx ", cmd->size, cmd->flags, cmd->va_len);
} else if (request == IOCTL_KGSL_GPUOBJ_FREE) {
//printf("IOCTL_KGSL_GPUOBJ_FREE\n");
} else if (filedes == 3) {
printf("ioctl(%d) %lx\n", tid, request);
}
}
int ret;
if (skip) {
ret = 0;
} else {
ret = my_ioctl(filedes, request, argp);
}
if (request == IOCTL_KGSL_GPUOBJ_ALLOC) {
struct kgsl_gpuobj_alloc *cmd = (struct kgsl_gpuobj_alloc *)argp;
printf("mmapsize:0x%lx id:%d metadata_len:%x metadata:0x%lx = %d\n", cmd->mmapsize, cmd->id, cmd->metadata_len, cmd->metadata, ret);
}
return ret;
}
}
#include <CL/cl.h>
#include "../runners/snpemodel.h"
#include <sys/types.h>
#include <time.h>
static inline uint64_t nanos_since_boot() {
struct timespec t;
clock_gettime(CLOCK_BOOTTIME, &t);
return t.tv_sec * 1000000000ULL + t.tv_nsec;
}
int global_timestamp = -1;
CachedCommand::CachedCommand(struct kgsl_gpu_command *cmd, int lfd) {
fd = lfd;
assert(cmd->numcmds == 2);
assert(cmd->numobjs == 1);
assert(cmd->numsyncs == 0);
global_timestamp = cmd->timestamp;
printf("%p %p %p\n", cmd, (void*)cmd->cmdlist, (void*)cmd->objlist);
memcpy(cmds, (void *)cmd->cmdlist, sizeof(struct kgsl_command_object)*2);
memcpy(objs, (void *)cmd->objlist, sizeof(struct kgsl_command_object)*1);
cmd_0.assign((char*)cmds[0].gpuaddr, cmds[0].size);
cmd_1.assign((char*)cmds[1].gpuaddr, cmds[1].size);
memcpy(&cache, cmd, sizeof(cache));
}
// i think you get these with cl_a5x_ringbuffer_alloc
uint64_t base = 0;
void CachedCommand::exec(bool wait) {
printf("old addr 0x%lx ", cmds[1].gpuaddr);
cmds[1].gpuaddr = base;
printf("using addr 0x%lx with size 0x%4lx ", cmds[1].gpuaddr, cmd_1.size());
base += (cmd_1.size()+0xff) & (~0xFF);
memcpy((void*)cmds[1].gpuaddr, cmd_1.data(), cmd_1.size());
// set up other buffers
memcpy((void*)cmds[0].gpuaddr, cmd_0.data(), cmd_0.size());
memset((void*)objs[0].gpuaddr, 0, objs[0].size);
cache.timestamp = ++global_timestamp;
cache.cmdlist = (uint64_t)cmds;
cache.objlist = (uint64_t)objs;
// run
int ret = ioctl(fd, IOCTL_KGSL_GPU_COMMAND, &cache);
if (wait) {
struct kgsl_device_waittimestamp_ctxtid wait;
wait.context_id = cache.context_id;
wait.timestamp = cache.timestamp;
wait.timeout = -1;
uint64_t tb = nanos_since_boot();
int wret = ioctl(fd, IOCTL_KGSL_DEVICE_WAITTIMESTAMP_CTXTID, &wait);
uint64_t te = nanos_since_boot();
printf("exec %d wait %d after %lu us\n", ret, wret, (te-tb)/1000);
} else {
printf("CachedCommand::exec got %d\n", ret);
}
}
int do_print = 0;
#define TEMPORAL_SIZE 512
#define DESIRE_LEN 8
#define TRAFFIC_CONVENTION_LEN 2
FILE *f = NULL;
cl_program clCreateProgramWithSource(cl_context context, cl_uint count, const char **strings, const size_t *lengths, cl_int *errcode_ret) {
cl_program (*my_clCreateProgramWithSource)(cl_context context, cl_uint count, const char **strings, const size_t *lengths, cl_int *errcode_ret) = NULL;
my_clCreateProgramWithSource = reinterpret_cast<decltype(my_clCreateProgramWithSource)>(dlsym(RTLD_NEXT, "REAL_clCreateProgramWithSource"));
//printf("clCreateProgramWithSource: %d\n", count);
if (f == NULL) {
f = fopen("/tmp/kernels.cl", "w");
}
fprintf(f, "/* ************************ PROGRAM BREAK ****************************/\n");
for (int i = 0; i < count; i++) {
fprintf(f, "%s\n", strings[i]);
if (i != 0) fprintf(f, "/* ************************ SECTION BREAK ****************************/\n");
}
fflush(f);
return my_clCreateProgramWithSource(context, count, strings, lengths, errcode_ret);
}
map<cl_kernel, string> kernels;
map<cl_kernel, cl_mem> kernel_inputs;
map<cl_kernel, cl_mem> kernel_outputs;
cl_kernel clCreateKernel(cl_program program, const char *kernel_name, cl_int *errcode_ret) {
cl_kernel (*my_clCreateKernel)(cl_program program, const char *kernel_name, cl_int *errcode_ret) = NULL;
my_clCreateKernel = reinterpret_cast<decltype(my_clCreateKernel)>(dlsym(RTLD_NEXT, "REAL_clCreateKernel"));
cl_kernel ret = my_clCreateKernel(program, kernel_name, errcode_ret);
printf("clCreateKernel: %s -> %p\n", kernel_name, ret);
kernels.insert(make_pair(ret, kernel_name));
return ret;
}
typedef struct image {
size_t image_width;
size_t image_height;
size_t image_row_pitch;
cl_mem buffer;
} image;
map<cl_mem, size_t> buffers;
map<cl_mem, image> images;
cl_int clSetKernelArg(cl_kernel kernel, cl_uint arg_index, size_t arg_size, const void *arg_value) {
cl_int (*my_clSetKernelArg)(cl_kernel kernel, cl_uint arg_index, size_t arg_size, const void *arg_value) = NULL;
my_clSetKernelArg = reinterpret_cast<decltype(my_clSetKernelArg)>(dlsym(RTLD_NEXT, "REAL_clSetKernelArg"));
char arg_type[0x100];
char arg_name[0x100];
clGetKernelArgInfo(kernel, arg_index, CL_KERNEL_ARG_TYPE_NAME, sizeof(arg_type), arg_type, NULL);
clGetKernelArgInfo(kernel, arg_index, CL_KERNEL_ARG_NAME, sizeof(arg_name), arg_name, NULL);
printf(" %s %s", arg_type, arg_name);
if (arg_size == 1) {
printf(" = %d", *((char*)arg_value));
} else if (arg_size == 2) {
printf(" = %d", *((short*)arg_value));
} else if (arg_size == 4) {
if (strcmp(arg_type, "float") == 0) {
printf(" = %f", *((float*)arg_value));
} else {
printf(" = %d", *((int*)arg_value));
}
} else if (arg_size == 8) {
cl_mem val = (cl_mem)(*((uintptr_t*)arg_value));
printf(" = %p", val);
if (strcmp(arg_name, "input") == 0) kernel_inputs[kernel] = val;
if (strcmp(arg_name, "output") == 0) kernel_outputs[kernel] = val;
if (strcmp(arg_name, "accumulator") == 0) assert(kernel_inputs[kernel] = val);
if (buffers.find(val) != buffers.end()) {
printf(" buffer %zu", buffers[val]);
}
if (images.find(val) != images.end()) {
printf(" image %zu x %zu rp %zu @ %p", images[val].image_width, images[val].image_height, images[val].image_row_pitch, images[val].buffer);
}
} else {
printf(" %zu", arg_size);
}
printf("\n");
cl_int ret = my_clSetKernelArg(kernel, arg_index, arg_size, arg_value);
return ret;
}
uint64_t start_time = 0;
uint64_t tns = 0;
int cnt = 0;
cl_int clEnqueueNDRangeKernel(cl_command_queue command_queue,
cl_kernel kernel,
cl_uint work_dim,
const size_t *global_work_offset,
const size_t *global_work_size,
const size_t *local_work_size,
cl_uint num_events_in_wait_list,
const cl_event *event_wait_list,
cl_event *event) {
// SNPE doesn't use these
assert(num_events_in_wait_list == 0);
assert(global_work_offset == NULL);
cl_int (*my_clEnqueueNDRangeKernel)(cl_command_queue, cl_kernel, cl_uint, const size_t *, const size_t *, const size_t *, cl_uint, const cl_event *, cl_event *) = NULL;
my_clEnqueueNDRangeKernel = reinterpret_cast<decltype(my_clEnqueueNDRangeKernel)>(dlsym(RTLD_NEXT, "REAL_clEnqueueNDRangeKernel"));
uint64_t tb = nanos_since_boot();
cl_int ret = my_clEnqueueNDRangeKernel(command_queue, kernel, work_dim,
global_work_offset, global_work_size, local_work_size,
num_events_in_wait_list, event_wait_list, event);
uint64_t te = nanos_since_boot();
/*ret = clWaitForEvents(1, event);
assert(ret == CL_SUCCESS);
uint64_t tq = nanos_since_boot();*/
if (do_print) {
tns += te-tb;
}
printf("%10lu %10lu running(%3d) -- %p -- %56s -- %p -> %p %s ", (tb-start_time)/1000, (tns/1000), cnt++, kernel, kernels[kernel].c_str(), kernel_inputs[kernel], kernel_outputs[kernel],
(buffers[kernel_outputs[kernel]] != 0) ? "B" : "I");
printf("global -- ");
for (int i = 0; i < work_dim; i++) {
printf("%4zu ", global_work_size[i]);
}
printf("local -- ");
for (int i = 0; i < work_dim; i++) {
printf("%4zu ", local_work_size[i]);
}
printf("\n");
return ret;
}
cl_mem clCreateBuffer(cl_context context, cl_mem_flags flags, size_t size, void *host_ptr, cl_int *errcode_ret) {
cl_mem (*my_clCreateBuffer)(cl_context context, cl_mem_flags flags, size_t size, void *host_ptr, cl_int *errcode_ret) = NULL;
my_clCreateBuffer = reinterpret_cast<decltype(my_clCreateBuffer)>(dlsym(RTLD_NEXT, "REAL_clCreateBuffer"));
cl_mem ret = my_clCreateBuffer(context, flags, size, host_ptr, errcode_ret);
buffers[ret] = size;
printf("%p = clCreateBuffer %zu\n", ret, size);
return ret;
}
cl_mem clCreateImage(cl_context context, cl_mem_flags flags, const cl_image_format *image_format, const cl_image_desc *image_desc, void *host_ptr, cl_int *errcode_ret) {
cl_mem (*my_clCreateImage)(cl_context context, cl_mem_flags flags, const cl_image_format *image_format, const cl_image_desc *image_desc, void *host_ptr, cl_int *errcode_ret) = NULL;
my_clCreateImage = reinterpret_cast<decltype(my_clCreateImage)>(dlsym(RTLD_NEXT, "REAL_clCreateImage"));
// SNPE only uses this
assert(CL_MEM_OBJECT_IMAGE2D == image_desc->image_type);
// RGBA, HALF FLOAT
assert(CL_RGBA == image_format->image_channel_order);
assert(CL_HALF_FLOAT == image_format->image_channel_data_type);
map<cl_mem_object_type, string> lc = {
{CL_MEM_OBJECT_BUFFER, "CL_MEM_OBJECT_BUFFER"},
{CL_MEM_OBJECT_IMAGE2D, "CL_MEM_OBJECT_IMAGE2D"}, // all this one
{CL_MEM_OBJECT_IMAGE3D, "CL_MEM_OBJECT_IMAGE3D"},
{CL_MEM_OBJECT_IMAGE2D_ARRAY, "CL_MEM_OBJECT_IMAGE2D_ARRAY"},
{CL_MEM_OBJECT_IMAGE1D, "CL_MEM_OBJECT_IMAGE1D"},
{CL_MEM_OBJECT_IMAGE1D_ARRAY, "CL_MEM_OBJECT_IMAGE1D_ARRAY"},
{CL_MEM_OBJECT_IMAGE1D_BUFFER, "CL_MEM_OBJECT_IMAGE1D_BUFFER"}};
assert(image_desc->image_depth == 0);
assert(image_desc->image_array_size == 0);
assert(image_desc->image_slice_pitch == 0);
//assert(image_desc->image_width * image_desc->image_height * 2 == image_desc->image_row_pitch);
image img;
img.image_width = image_desc->image_width;
img.image_height = image_desc->image_height;
img.image_row_pitch = image_desc->image_row_pitch;
img.buffer = image_desc->buffer;
cl_mem ret = my_clCreateImage(context, flags, image_format, image_desc, host_ptr, errcode_ret);
printf("%p = clCreateImage %s -- %p -- %d %d -- %4zu x %4zu x %4zu -- %4zu %4zu %4zu\n", ret, lc[image_desc->image_type].c_str(),
image_desc->buffer,
image_format->image_channel_order, image_format->image_channel_data_type,
image_desc->image_width, image_desc->image_height, image_desc->image_depth,
image_desc->image_array_size, image_desc->image_row_pitch, image_desc->image_slice_pitch
);
images[ret] = img;
return ret;
}
cl_int clWaitForEvents(cl_uint num_events, const cl_event *event_list) {
cl_int (*my_clWaitForEvents)(cl_uint num_events, const cl_event *event_list);
my_clWaitForEvents = reinterpret_cast<decltype(my_clWaitForEvents)>(dlsym(RTLD_NEXT, "REAL_clWaitForEvents"));
printf("clWaitForEvents\n");
return my_clWaitForEvents(num_events, event_list);
}
cl_int clReleaseEvent(cl_event event) {
cl_int (*my_clReleaseEvent)(cl_event event);
my_clReleaseEvent = reinterpret_cast<decltype(my_clReleaseEvent)>(dlsym(RTLD_NEXT, "REAL_clReleaseEvent"));
printf("clReleaseEvent: %p\n", event);
return my_clReleaseEvent(event);
}
/*size_t total = 0;
void *calloc(size_t num, size_t size) {
void *(*my_calloc)(size_t num, size_t size);
my_calloc = reinterpret_cast<decltype(my_calloc)>(dlsym(RTLD_NEXT, "REAL_calloc"));
void *ret = my_calloc(num, size);
if (do_print) {
total += num*size;
printf("calloc %p -- total:0x%zx -- num:0x%zx size:0x%zx\n", ret, total, num, size);
}
return ret;
}
void free(void *ptr) {
void (*my_free)(void *ptr);
my_free = reinterpret_cast<decltype(my_free)>(dlsym(RTLD_NEXT, "REAL_free"));
if (do_print) {
//printf("free: %p\n", ptr);
} else {
my_free(ptr);
}
}*/
void *dlsym(void *handle, const char *symbol) {
void *(*my_dlsym)(void *handle, const char *symbol) = (void *(*)(void *handle, const char *symbol))((uintptr_t)dlopen-0x2d4);
if (memcmp("REAL_", symbol, 5) == 0) {
return my_dlsym(handle, symbol+5);
} else if (strcmp("clCreateProgramWithSource", symbol) == 0) {
return (void*)clCreateProgramWithSource;
} else if (strcmp("clCreateKernel", symbol) == 0) {
return (void*)clCreateKernel;
} else if (strcmp("clEnqueueNDRangeKernel", symbol) == 0) {
return (void*)clEnqueueNDRangeKernel;
} else if (strcmp("clSetKernelArg", symbol) == 0) {
return (void*)clSetKernelArg;
} else if (strcmp("clCreateBuffer", symbol) == 0) {
return (void*)clCreateBuffer;
} else if (strcmp("clCreateImage", symbol) == 0) {
return (void*)clCreateImage;
/*} else if (strcmp("clReleaseEvent", symbol) == 0) {
return (void*)clReleaseEvent;
} else if (strcmp("clWaitForEvents", symbol) == 0) {
return (void*)clWaitForEvents;*/
} else {
//printf("dlsym %s\n", symbol);
return my_dlsym(handle, symbol);
}
}
int main(int argc, char* argv[]) {
int err;
start_time = nanos_since_boot();
cl_device_id device_id = cl_get_device_id(CL_DEVICE_TYPE_DEFAULT);
cl_uint tmp;
// sweet this is 64!
err = clGetDeviceInfo(device_id, CL_DEVICE_MAX_WRITE_IMAGE_ARGS, sizeof(tmp), &tmp, NULL);
assert(err == 0);
printf("CL_DEVICE_MAX_WRITE_IMAGE_ARGS: %u\n", tmp);
err = clGetDeviceInfo(device_id, CL_DEVICE_MAX_READ_IMAGE_ARGS, sizeof(tmp), &tmp, NULL);
assert(err == 0);
printf("CL_DEVICE_MAX_READ_IMAGE_ARGS: %u\n", tmp);
float *output = (float*)calloc(0x10000, sizeof(float));
SNPEModel mdl(argv[1], output, 0, USE_GPU_RUNTIME);
float state[TEMPORAL_SIZE];
mdl.addRecurrent(state, TEMPORAL_SIZE);
float desire[DESIRE_LEN];
mdl.addDesire(desire, DESIRE_LEN);
float traffic_convention[TRAFFIC_CONVENTION_LEN];
mdl.addTrafficConvention(traffic_convention, TRAFFIC_CONVENTION_LEN);
float *input = (float*)calloc(0x1000000, sizeof(float));;
printf("************** execute 1 **************\n");
printf("%p %p %p %p -> %p\n", input, state, desire, traffic_convention, output);
run_num = 1; ioctl_num = 0;
do_print = 0;
start_time = nanos_since_boot();
mdl.execute(input, 0);
printf("************** execute 2 **************\n");
run_num = 2; ioctl_num = 0;
do_print = 0;
mdl.execute(input, 0);
printf("************** execute 3 **************\n");
run_num = 3; ioctl_num = 0;
do_print = 1;
start_time = nanos_since_boot();
mdl.execute(input, 0);
do_print = 0;
struct kgsl_gpuobj_alloc alloc;
memset(&alloc, 0, sizeof(alloc));
alloc.size = 0x40000;
alloc.flags = 0x10000a00;
int fd = 3;
int ret = ioctl(fd, IOCTL_KGSL_GPUOBJ_ALLOC, &alloc);
void *addr = mmap64(NULL, alloc.mmapsize, 0x3, 0x1, fd, alloc.id*0x1000);
assert(addr != MAP_FAILED);
intercept = 0;
while (1) {
printf("************** execute 4 **************\n");
run_num = 4;
base = (uint64_t)addr;
uint64_t tb = nanos_since_boot();
int i = 0;
for (auto it = queue_cmds.begin(); it != queue_cmds.end(); ++it) {
printf("run %2d: ", i++);
//(*it)->exec(i == queue_cmds.size());
(*it)->exec(true);
}
uint64_t te = nanos_since_boot();
printf("model exec in %lu us\n", (te-tb)/1000);
break;
}
/*FILE *f = fopen("/proc/self/maps", "rb");
char maps[0x100000];
int len = fread(maps, 1, sizeof(maps), f);
maps[len] = '\0';
fclose(f);
printf("%s\n", maps);*/
printf("buffers: %lu images: %lu\n", buffers.size(), images.size());
printf("queues: %lu\n", queue_cmds.size());
// IOCTL_KGSL_GPU_COMMAND: flags: 0x11 numcmds: 2 numobjs: 1 numsyncs: 0 context_id: 7 timestamp: 77
/*int ts = 100;
for (auto it = queue_cmds.begin(); it != queue_cmds.end(); ++it) {
auto qcmd = *it;
//disassemble((uint32_t *)qcmd.data(), qcmd.size()/4);
struct kgsl_command_object cmdlists[2];
struct kgsl_command_object objlists;
struct kgsl_gpu_command cmd;
uint8_t objs[0xc0];
memset(objs, 0, 0xc0);
memset(&cmd, 0, sizeof(cmd));
memset(&cmdlists, 0, sizeof(struct kgsl_command_object)*2);
memset(&objlists, 0, sizeof(objlists));
cmd.flags = 0x11;
cmd.cmdlist = (uint64_t)cmdlists;
cmd.numcmds = 2;
cmd.objlist = (uint64_t)objlists;
cmd.numobjs = 1;
cmd.numsyncs = 0;
cmd.context_id = 7;
cmd.timestamp = ts++;
cmdlists[0].gpuaddr = (uint64_t)queue_init;
cmdlists[0].size = 0xbc;
cmdlists[0].flags = 1;
cmdlists[1].gpuaddr = (uint64_t)qcmd.data();
cmdlists[1].size = qcmd.size();
cmdlists[1].flags = 1;
objlists.gpuaddr = (uint64_t)objs;
objlists.size = 0xc0;
objlists.flags = 0x18;
}*/
}

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selfdrive/modeld/thneed/debug/microbenchmark/gemm.cl
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// https://github.com/moskewcz/boda/issues/13
#define USE_FP16
#ifdef USE_FP16
#define up(x) x
#define down(x) x
#define xtype half8
#define skip 128
#else
#define up(x) convert_float8(x)
#define down(x) convert_half8(x)
#define xtype float8
#define skip 128
#endif
#pragma OPENCL EXTENSION cl_khr_fp16 : enable
__kernel void gemm(const int M, const int N, const int K,
global const half8* a, global const half8* b, global half8* c )
{
xtype c_r[8] = {0,0,0,0,0,0,0,0};
int const a_off_thr = get_global_id(0);
int const b_off_thr = get_global_id(1);
int a_off = a_off_thr;
int b_off = b_off_thr;
for( int k = 0; k < 1024; k += 1 ) {
xtype a_r = up(a[a_off]);
xtype b_r = up(b[b_off]);
c_r[0] += a_r.s0*b_r;
c_r[1] += a_r.s1*b_r;
c_r[2] += a_r.s2*b_r;
c_r[3] += a_r.s3*b_r;
c_r[4] += a_r.s4*b_r;
c_r[5] += a_r.s5*b_r;
c_r[6] += a_r.s6*b_r;
c_r[7] += a_r.s7*b_r;
a_off += skip;
b_off += skip;
}
int c_off = a_off_thr*1024 + b_off_thr;
for (int i = 0; i < 8; i++) {
c[c_off] = down(c_r[i]);
c_off += skip;
}
}

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selfdrive/modeld/thneed/debug/microbenchmark/gemm_image.cl
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// https://github.com/moskewcz/boda/issues/13
//#define USE_FP16
#ifdef USE_FP16
#define xtype half4
#define read_imagep read_imageh
#define write_imagep write_imageh
#else
#define xtype float4
#define read_imagep read_imagef
#define write_imagep write_imagef
#endif
#pragma OPENCL EXTENSION cl_khr_fp16 : enable
__kernel void gemm(const int M, const int N, const int K,
read_only image2d_t A,
read_only image2d_t B,
write_only image2d_t C)
{
const sampler_t smp = CLK_NORMALIZED_COORDS_FALSE |
CLK_ADDRESS_CLAMP |
CLK_FILTER_NEAREST;
xtype c_r[4] = {0,0,0,0};
xtype a_r[4], b_r[4];
int const a_off_thr = get_global_id(0);
int const b_off_thr = get_global_id(1);
int2 a_samp = {0, a_off_thr};
int2 b_samp = {0, b_off_thr};
for (short k = 0; k < K/4; k++) {
for (short i = 0; i < 4; ++i) {
a_r[i] = read_imagep(A, smp, a_samp);
b_r[i] = read_imagep(B, smp, b_samp);
++a_samp.x;
++b_samp.x;
}
for (short i = 0; i < 4; ++i) {
float4 ov = c_r[i];
ov.x += a_r[i].x * b_r[0].x;
ov.x += a_r[i].y * b_r[0].y;
ov.x += a_r[i].z * b_r[0].z;
ov.x += a_r[i].w * b_r[0].w;
ov.y += a_r[i].x * b_r[1].x;
ov.y += a_r[i].y * b_r[1].y;
ov.y += a_r[i].z * b_r[1].z;
ov.y += a_r[i].w * b_r[1].w;
ov.z += a_r[i].x * b_r[2].x;
ov.z += a_r[i].y * b_r[2].y;
ov.z += a_r[i].z * b_r[2].z;
ov.z += a_r[i].w * b_r[2].w;
ov.w += a_r[i].x * b_r[3].x;
ov.w += a_r[i].y * b_r[3].y;
ov.w += a_r[i].z * b_r[3].z;
ov.w += a_r[i].w * b_r[3].w;
c_r[i] = ov;
}
}
int2 c_samp = {a_off_thr, b_off_thr*4};
for (short i = 0; i < 4; i++) {
write_imagep(C, c_samp, c_r[i]);
++c_samp.y;
}
}

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selfdrive/modeld/thneed/debug/microbenchmark/go.c
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#include <stdio.h>
#include <stdlib.h>
#include <CL/cl.h>
#include <assert.h>
#include <time.h>
/*
block7b_project_conv (Conv2D) (None, 8, 16, 352) 743424 block7b_activation[0][0]
8448*8*4 = 8*16*2112 = 270336 = input = 128*2112
2112*88*4 = 743424 = weights = 2112*352
1408*8*4 = 8*16*352 = 45056 = output = 128*352
FLOPS = 128*2112*352 = 95158272 = 95 MFLOPS
RAM = 128*2112 + 2112*352 + 128*352 = 1058816 = 1 M accesses
# 22 groups
128*2112 + 2112*16 + 128*16 = 306176
306176*22 = 6735872 real accesses
This is a 128x2112 by 2112x352 matrix multiply
work_size = {88, 4, 8}
Each kernel run computes 16 outputs
0x7f7e8a6380 convolution_horizontal_reduced_reads_1x1 -- 88 4 8 -- 4 4 8
image2d_t input = 0x7f7f490b00 image 8448 x 8 rp 67840
short startPackedInputChannel = 0
short numPackedInputChannelsForGroup = 528
short totalNumPackedInputChannels = 528
short packedOuputChannelOffset = 0
short totalNumPackedOutputChannels = 88
image2d_t weights = 0x7f7f52fb80 image 2112 x 88 rp 16896
float* biases = 0x7f7f564d80 buffer 1408
short filterSizeX = 1
short filterSizeY = 1
image2d_t output = 0x7f7f490e80 image 1408 x 8 rp 11264
short paddingX = 0
short paddingY = 0
short strideX = 1
short strideY = 1
short neuron = 0
float a = 1.000000
float b = 1.000000
float min_clamp = 0.000000
float max_clamp = 0.000000
float* parameters = 0x0
float* batchNormBiases = 0x0
short numOutputColumns = 16
*/
#define GEMM
#define IMAGE
void dump_maps() {
FILE *f = fopen("/proc/self/maps", "rb");
char maps[0x100000];
int len = fread(maps, 1, sizeof(maps), f);
maps[len] = '\0';
maps[0x800] = '\0';
fclose(f);
printf("%s\n", maps);
}
static inline uint64_t nanos_since_boot() {
struct timespec t;
clock_gettime(CLOCK_BOOTTIME, &t);
return t.tv_sec * 1000000000ULL + t.tv_nsec;
}
int main(int argc, char *argv[]) {
cl_int err;
// cl init
cl_device_id device_id;
cl_context context;
cl_command_queue q;
{
cl_platform_id platform_id[2];
cl_uint num_devices;
cl_uint num_platforms;
err = clGetPlatformIDs(sizeof(platform_id)/sizeof(cl_platform_id), platform_id, &num_platforms);
assert(err == 0);
err = clGetDeviceIDs(platform_id[0], CL_DEVICE_TYPE_DEFAULT, 1, &device_id, &num_devices);
assert(err == 0);
context = clCreateContext(NULL, 1, &device_id, NULL, NULL, &err);
assert(err == 0);
q = clCreateCommandQueue(context, device_id, 0, &err);
assert(err == 0);
}
printf("cl ready\n");
char tmp[0x10000];
memset(tmp, 0, sizeof(tmp));
FILE *f = fopen(argv[1], "rb");
fread(tmp, 1, sizeof(tmp), f);
fclose(f);
const char *strings[1];
size_t lengths[1];
strings[0] = tmp;
lengths[0] = strlen(tmp);
cl_program prog = clCreateProgramWithSource(context, 1, strings, lengths, &err);
assert(err == 0);
printf("creating program\n");
err = clBuildProgram(prog, 1, &device_id, "-D AVANTE_IS_GPU_A530_64", NULL, NULL);
if (err != 0) {
printf("got err %d\n", err);
size_t length;
char buffer[2048];
clGetProgramBuildInfo(prog, device_id, CL_PROGRAM_BUILD_LOG, sizeof(buffer), buffer, &length);
buffer[length] = '\0';
printf("%s\n", buffer);
}
assert(err == 0);
printf("built program\n");
#ifdef GEMM
// 128x2112 by 2112x352
int M,N,K;
M = N = K = 1024;
//M = 128; K = 2112; N = 352;
cl_kernel kern = clCreateKernel(prog, "gemm", &err);
assert(err == 0);
printf("creating kernel %p\n", kern);
cl_mem A,B,C;
A = clCreateBuffer(context, CL_MEM_READ_WRITE, M*K*2, NULL, &err);
assert(err == 0);
B = clCreateBuffer(context, CL_MEM_READ_WRITE, K*N*2, NULL, &err);
assert(err == 0);
C = clCreateBuffer(context, CL_MEM_READ_WRITE, M*N*2, NULL, &err);
assert(err == 0);
printf("created buffers\n");
#ifdef IMAGE
cl_image_format fmt;
fmt.image_channel_order = CL_RGBA;
fmt.image_channel_data_type = CL_HALF_FLOAT;
cl_image_desc desc;
desc.image_type = CL_MEM_OBJECT_IMAGE2D;
desc.image_depth = 0; desc.image_slice_pitch = 0; desc.num_mip_levels = 0; desc.num_samples = 0;
desc.image_width = K; desc.image_height = M/4;
desc.buffer = A;
desc.image_row_pitch = desc.image_width*8;
A = clCreateImage(context, CL_MEM_READ_WRITE, &fmt, &desc, NULL, &err);
assert(err == 0);
desc.image_width = K; desc.image_height = N/4;
desc.buffer = B; desc.image_row_pitch = desc.image_width*8;
B = clCreateImage(context, CL_MEM_READ_WRITE, &fmt, &desc, NULL, &err);
assert(err == 0);
desc.image_width = M/4; desc.image_height = N;
desc.buffer = C; desc.image_row_pitch = desc.image_width*8;
C = clCreateImage(context, CL_MEM_READ_WRITE, &fmt, &desc, NULL, &err);
assert(err == 0);
printf("created images\n");
#endif
clSetKernelArg(kern, 0, sizeof(int), &M);
clSetKernelArg(kern, 1, sizeof(int), &N);
clSetKernelArg(kern, 2, sizeof(int), &K);
clSetKernelArg(kern, 3, sizeof(cl_mem), &A);
clSetKernelArg(kern, 4, sizeof(cl_mem), &B);
clSetKernelArg(kern, 5, sizeof(cl_mem), &C);
printf("set args\n");
#ifdef IMAGE
size_t global_work_size[3] = {M/4, N/4, 1};
size_t local_work_size[3] = {4, 64, 1};
#else
size_t global_work_size[3] = {128, 128, 1};
size_t local_work_size[3] = {2, 128, 1};
#endif
#else
cl_kernel kern = clCreateKernel(prog, "convolution_horizontal_reduced_reads_1x1", &err);
assert(err == 0);
printf("creating kernel\n");
cl_mem input;
cl_mem weights;
cl_mem weights_buffer;
cl_mem biases;
cl_mem outputs;
cl_image_format fmt;
fmt.image_channel_order = CL_RGBA;
fmt.image_channel_data_type = CL_HALF_FLOAT;
cl_image_desc desc;
desc.image_type = CL_MEM_OBJECT_IMAGE2D;
desc.image_depth = 0; desc.image_slice_pitch = 0; desc.num_mip_levels = 0; desc.num_samples = 0;
desc.buffer = NULL;
biases = clCreateBuffer(context, CL_MEM_READ_WRITE, 1408, NULL, &err);
assert(err == 0);
desc.image_width = 8448; desc.image_height = 8; desc.image_row_pitch = 67840;
desc.buffer = clCreateBuffer(context, CL_MEM_READ_WRITE, desc.image_height * desc.image_row_pitch, NULL, &err);
assert(err == 0);
input = clCreateImage(context, CL_MEM_READ_WRITE, &fmt, &desc, NULL, &err);
assert(err == 0);
desc.image_width = 2112; desc.image_height = 88; desc.image_row_pitch = 16896;
weights_buffer = desc.buffer = clCreateBuffer(context, CL_MEM_READ_WRITE, desc.image_height * desc.image_row_pitch, NULL, &err);
assert(err == 0);
weights = clCreateImage(context, CL_MEM_READ_WRITE, &fmt, &desc, NULL, &err);
assert(err == 0);
desc.image_width = 1408; desc.image_height = 8; desc.image_row_pitch = 11264;
desc.buffer = clCreateBuffer(context, CL_MEM_READ_WRITE, desc.image_height * desc.image_row_pitch, NULL, &err);
assert(err == 0);
outputs = clCreateImage(context, CL_MEM_READ_WRITE, &fmt, &desc, NULL, &err);
assert(err == 0);
void *n = NULL;
uint16_t v;
float fl;
clSetKernelArg(kern, 0, sizeof(cl_mem), &input);
v = 0; clSetKernelArg(kern, 1, sizeof(v), &v);
v = 528; clSetKernelArg(kern, 2, sizeof(v), &v);
v = 528; clSetKernelArg(kern, 3, sizeof(v), &v);
v = 0; clSetKernelArg(kern, 4, sizeof(v), &v);
v = 88; clSetKernelArg(kern, 5, sizeof(v), &v);
clSetKernelArg(kern, 6, sizeof(cl_mem), &weights);
//clSetKernelArg(kern, 6, sizeof(cl_mem), &weights_buffer);
clSetKernelArg(kern, 7, sizeof(cl_mem), &biases);
v = 1; clSetKernelArg(kern, 8, sizeof(v), &v);
v = 1; clSetKernelArg(kern, 9, sizeof(v), &v);
clSetKernelArg(kern, 10, sizeof(cl_mem), &outputs);
v = 0; clSetKernelArg(kern, 11, sizeof(v), &v);
v = 0; clSetKernelArg(kern, 12, sizeof(v), &v);
v = 1; clSetKernelArg(kern, 13, sizeof(v), &v);
v = 1; clSetKernelArg(kern, 14, sizeof(v), &v);
v = 0; clSetKernelArg(kern, 15, sizeof(v), &v);
fl = 1.0; clSetKernelArg(kern, 16, sizeof(fl), &fl);
fl = 0.0; clSetKernelArg(kern, 17, sizeof(fl), &fl);
fl = 0.0; clSetKernelArg(kern, 18, sizeof(fl), &fl);
fl = 0.0; clSetKernelArg(kern, 19, sizeof(fl), &fl);
clSetKernelArg(kern, 20, sizeof(n), &n);
clSetKernelArg(kern, 21, sizeof(n), &n);
v = 16; clSetKernelArg(kern, 22, sizeof(v), &v);
size_t global_work_size[3] = {88, 4, 8};
size_t local_work_size[3] = {4, 4, 8};
#endif
printf("ready to enqueue\n");
for (int i = 0; i < 20; i++) {
cl_event event;
err = clEnqueueNDRangeKernel(q, kern, 3, NULL, global_work_size, local_work_size, 0, NULL, &event);
assert(err == 0);
uint64_t tb = nanos_since_boot();
err = clWaitForEvents(1, &event);
assert(err == 0);
uint64_t te = nanos_since_boot();
uint64_t us = (te-tb)/1000;
float s = 1000000.0/us;
#ifdef GEMM
float flops = M*N*K*s;
float rams = (M*N + N*K + M*K)*s;
#else
float flops = 95158272.0*s;
float rams = 1058816.0*s;
//float rams = 6735872.0*s;
#endif
printf("%2d: wait %lu us -- %.2f GFLOPS -- %.2f GB/s\n", i, us, flops/1e9, rams*2/1e9);
}
size_t binary_size = 0;
err = clGetProgramInfo(prog, CL_PROGRAM_BINARY_SIZES, sizeof(binary_size), &binary_size, NULL);
assert(err == 0);
assert(binary_size > 0);
uint8_t *binary_buf = (uint8_t *)malloc(binary_size);
assert(binary_buf);
uint8_t* bufs[1] = { binary_buf, };
err = clGetProgramInfo(prog, CL_PROGRAM_BINARIES, sizeof(bufs), &bufs, NULL);
assert(err == 0);
FILE *g = fopen("/tmp/bin.bin", "wb");
fwrite(binary_buf, 1, binary_size, g);
fclose(g);
/*dump_maps();
for (uint64_t i = 0x7ffbd2000; i < 0x800000000; i += 0x1000) {
uint64_t cmd = *((uint64_t*)i);
printf("%llx: %llx\n", i, cmd);
}*/
return 0;
}

2
selfdrive/modeld/thneed/debug/microbenchmark/run.sh
Unescape View File

@ -1,2 +0,0 @@
#!/usr/bin/env bash
gcc -I/data/openpilot/phonelibs/opencl/include -L/system/vendor/lib64 -lOpenCL -lCB -lgsl go.c

99
selfdrive/modeld/thneed/debug/test.cc
Unescape View File

@ -1,99 +0,0 @@
#include "../thneed.h"
#include "../../runners/snpemodel.h"
#define TEMPORAL_SIZE 512
#define DESIRE_LEN 8
#define TRAFFIC_CONVENTION_LEN 2
void hexdump(uint32_t *d, int len);
int main(int argc, char* argv[]) {
#define OUTPUT_SIZE 0x10000
float *output = (float*)calloc(OUTPUT_SIZE, sizeof(float));
float *golden = (float*)calloc(OUTPUT_SIZE, sizeof(float));
SNPEModel mdl(argv[1], output, 0, USE_GPU_RUNTIME);
// cmd line test
if (argc > 2) {
for (int i = 2; i < argc; i++) {
float *buf[5];
FILE *f = fopen(argv[i], "rb");
size_t sz;
for (int j = 0; j < 5; j++) {
fread(&sz, 1, sizeof(sz), f);
printf("reading %zu\n", sz);
buf[j] = (float*)malloc(sz);
fread(buf[j], 1, sz, f);
}
if (sz != 9532) continue;
mdl.addRecurrent(buf[0], TEMPORAL_SIZE);
mdl.addTrafficConvention(buf[1], TRAFFIC_CONVENTION_LEN);
mdl.addDesire(buf[2], DESIRE_LEN);
mdl.execute(buf[3], 0);
hexdump((uint32_t*)buf[4], 0x100);
hexdump((uint32_t*)output, 0x100);
for (int j = 0; j < sz/4; j++) {
if (buf[4][j] != output[j]) {
printf("MISMATCH %d real:%f comp:%f\n", j, buf[4][j], output[j]);
}
}
}
return 0;
}
float state[TEMPORAL_SIZE];
mdl.addRecurrent(state, TEMPORAL_SIZE);
float desire[DESIRE_LEN];
mdl.addDesire(desire, DESIRE_LEN);
float traffic_convention[TRAFFIC_CONVENTION_LEN];
mdl.addTrafficConvention(traffic_convention, TRAFFIC_CONVENTION_LEN);
float *input = (float*)calloc(0x1000000, sizeof(float));;
// first run
printf("************** execute 1 **************\n");
memset(output, 0, OUTPUT_SIZE * sizeof(float));
mdl.execute(input, 0);
hexdump((uint32_t *)output, 0x100);
memcpy(golden, output, OUTPUT_SIZE * sizeof(float));
// second run
printf("************** execute 2 **************\n");
memset(output, 0, OUTPUT_SIZE * sizeof(float));
Thneed *t = new Thneed();
t->record = 7; // debug print with record
mdl.execute(input, 0);
t->stop();
hexdump((uint32_t *)output, 0x100);
if (memcmp(golden, output, OUTPUT_SIZE * sizeof(float)) != 0) { printf("FAILURE\n"); return -1; }
// third run
printf("************** execute 3 **************\n");
memset(output, 0, OUTPUT_SIZE * sizeof(float));
t->record = 2; // debug print w/o record
float *inputs[4] = {state, traffic_convention, desire, input};
t->execute(inputs, output, true);
hexdump((uint32_t *)output, 0x100);
if (memcmp(golden, output, OUTPUT_SIZE * sizeof(float)) != 0) { printf("FAILURE\n"); return -1; }
printf("************** execute 4 **************\n");
while (1) {
memset(output, 0, OUTPUT_SIZE * sizeof(float));
//t->record = 2; // debug print w/o record
t->execute(inputs, output);
hexdump((uint32_t *)output, 0x100);
if (memcmp(golden, output, OUTPUT_SIZE * sizeof(float)) != 0) { printf("FAILURE\n"); return -1; }
break;
}
printf("************** execute done **************\n");
}

4
selfdrive/modeld/thneed/debug/thneed
Unescape View File

@ -1,4 +0,0 @@
#!/bin/sh
export LD_LIBRARY_PATH="/data/openpilot/phonelibs/snpe/aarch64/:$HOME/openpilot/phonelibs/snpe/larch64:$HOME/openpilot/phonelibs/snpe/x86_64-linux-clang:$LD_LIBRARY_PATH"
exec ./_thneed $@

463
selfdrive/modeld/thneed/thneed.cc
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@ -7,9 +7,16 @@
#include <errno.h>
#include "thneed.h"
//#define SAVE_KERNELS
//#define RUN_DISASSEMBLER
//#define RUN_OPTIMIZER
Thneed *g_thneed = NULL;
int g_fd = -1;
map<pair<cl_kernel, int>, string> g_args;
map<pair<cl_kernel, int>, int> g_args_size;
map<cl_program, string> g_program_source;
static inline uint64_t nanos_since_boot() {
struct timespec t;
@ -27,6 +34,8 @@ void hexdump(uint32_t *d, int len) {
printf("\n");
}
// *********** ioctl interceptor ***********
extern "C" {
int (*my_ioctl)(int filedes, unsigned long request, void *argp) = NULL;
@ -39,32 +48,33 @@ int ioctl(int filedes, unsigned long request, void *argp) {
// save the fd
if (request == IOCTL_KGSL_GPUOBJ_ALLOC) g_fd = filedes;
// note that this runs always, even without a thneed object
if (request == IOCTL_KGSL_DRAWCTXT_CREATE) {
struct kgsl_drawctxt_create *create = (struct kgsl_drawctxt_create *)argp;
create->flags &= ~KGSL_CONTEXT_PRIORITY_MASK;
create->flags |= 1 << KGSL_CONTEXT_PRIORITY_SHIFT; // priority from 1-15, 1 is max priority
printf("creating context with flags 0x%x\n", create->flags);
printf("IOCTL_KGSL_DRAWCTXT_CREATE: creating context with flags 0x%x\n", create->flags);
}
if (thneed != NULL) {
if (request == IOCTL_KGSL_GPU_COMMAND) {
struct kgsl_gpu_command *cmd = (struct kgsl_gpu_command *)argp;
if (thneed->record & 1) {
if (thneed->record & THNEED_RECORD) {
thneed->timestamp = cmd->timestamp;
thneed->context_id = cmd->context_id;
thneed->cmds.push_back(unique_ptr<CachedCommand>(new CachedCommand(thneed, cmd)));
}
if (thneed->record & 2) {
printf("IOCTL_KGSL_GPU_COMMAND(%2zu): flags: 0x%lx context_id: %u timestamp: %u\n",
if (thneed->record & THNEED_DEBUG) {
printf("IOCTL_KGSL_GPU_COMMAND(%2zu): flags: 0x%lx context_id: %u timestamp: %u numcmds: %d numobjs: %d\n",
thneed->cmds.size(),
cmd->flags,
cmd->context_id, cmd->timestamp);
cmd->context_id, cmd->timestamp, cmd->numcmds, cmd->numobjs);
}
} else if (request == IOCTL_KGSL_GPUOBJ_SYNC) {
struct kgsl_gpuobj_sync *cmd = (struct kgsl_gpuobj_sync *)argp;
struct kgsl_gpuobj_sync_obj *objs = (struct kgsl_gpuobj_sync_obj *)(cmd->objs);
if (thneed->record & 2) {
if (thneed->record & THNEED_DEBUG) {
printf("IOCTL_KGSL_GPUOBJ_SYNC count:%d ", cmd->count);
for (int i = 0; i < cmd->count; i++) {
printf(" -- offset:0x%lx len:0x%lx id:%d op:%d ", objs[i].offset, objs[i].length, objs[i].id, objs[i].op);
@ -72,20 +82,20 @@ int ioctl(int filedes, unsigned long request, void *argp) {
printf("\n");
}
if (thneed->record & 1) {
if (thneed->record & THNEED_RECORD) {
thneed->syncobjs.push_back(string((char *)objs, sizeof(struct kgsl_gpuobj_sync_obj)*cmd->count));
}
} else if (request == IOCTL_KGSL_DEVICE_WAITTIMESTAMP_CTXTID) {
struct kgsl_device_waittimestamp_ctxtid *cmd = (struct kgsl_device_waittimestamp_ctxtid *)argp;
if (thneed->record & 2) {
if (thneed->record & THNEED_DEBUG) {
printf("IOCTL_KGSL_DEVICE_WAITTIMESTAMP_CTXTID: context_id: %d timestamp: %d timeout: %d\n",
cmd->context_id, cmd->timestamp, cmd->timeout);
}
} else if (request == IOCTL_KGSL_SETPROPERTY) {
if (thneed->record & 2) {
if (thneed->record & THNEED_DEBUG) {
struct kgsl_device_getproperty *prop = (struct kgsl_device_getproperty *)argp;
printf("IOCTL_KGSL_SETPROPERTY: 0x%x sizebytes:%zu\n", prop->type, prop->sizebytes);
if (thneed->record & 4) {
if (thneed->record & THNEED_VERBOSE_DEBUG) {
hexdump((uint32_t *)prop->value, prop->sizebytes);
if (prop->type == KGSL_PROP_PWR_CONSTRAINT) {
struct kgsl_device_constraint *constraint = (struct kgsl_device_constraint *)prop->value;
@ -103,6 +113,8 @@ int ioctl(int filedes, unsigned long request, void *argp) {
}
// *********** GPUMalloc ***********
GPUMalloc::GPUMalloc(int size, int fd) {
struct kgsl_gpuobj_alloc alloc;
memset(&alloc, 0, sizeof(alloc));
@ -128,30 +140,38 @@ void *GPUMalloc::alloc(int size) {
return ret;
}
// *********** CachedCommand, at the ioctl layer ***********
CachedCommand::CachedCommand(Thneed *lthneed, struct kgsl_gpu_command *cmd) {
thneed = lthneed;
assert(cmd->numcmds == 2);
assert(cmd->numobjs == 1);
assert(cmd->numsyncs == 0);
memcpy(cmds, (void *)cmd->cmdlist, sizeof(struct kgsl_command_object)*2);
memcpy(objs, (void *)cmd->objlist, sizeof(struct kgsl_command_object)*1);
memcpy(&cache, cmd, sizeof(cache));
cache.cmdlist = (uint64_t)cmds;
cache.objlist = (uint64_t)objs;
for (int i = 0; i < cmd->numcmds; i++) {
void *nn = thneed->ram->alloc(cmds[i].size);
memcpy(nn, (void*)cmds[i].gpuaddr, cmds[i].size);
cmds[i].gpuaddr = (uint64_t)nn;
if (cmd->numcmds > 0) {
cmds = make_unique<struct kgsl_command_object[]>(cmd->numcmds);
memcpy(cmds.get(), (void *)cmd->cmdlist, sizeof(struct kgsl_command_object)*cmd->numcmds);
cache.cmdlist = (uint64_t)cmds.get();
for (int i = 0; i < cmd->numcmds; i++) {
void *nn = thneed->ram->alloc(cmds[i].size);
memcpy(nn, (void*)cmds[i].gpuaddr, cmds[i].size);
cmds[i].gpuaddr = (uint64_t)nn;
}
}
for (int i = 0; i < cmd->numobjs; i++) {
void *nn = thneed->ram->alloc(objs[i].size);
memset(nn, 0, objs[i].size);
objs[i].gpuaddr = (uint64_t)nn;
if (cmd->numobjs > 0) {
objs = make_unique<struct kgsl_command_object[]>(cmd->numobjs);
memcpy(objs.get(), (void *)cmd->objlist, sizeof(struct kgsl_command_object)*cmd->numobjs);
cache.objlist = (uint64_t)objs.get();
for (int i = 0; i < cmd->numobjs; i++) {
void *nn = thneed->ram->alloc(objs[i].size);
memset(nn, 0, objs[i].size);
objs[i].gpuaddr = (uint64_t)nn;
}
}
kq = thneed->ckq;
thneed->ckq.clear();
}
void CachedCommand::exec(bool wait) {
@ -168,19 +188,33 @@ void CachedCommand::exec(bool wait) {
int wret = ioctl(thneed->fd, IOCTL_KGSL_DEVICE_WAITTIMESTAMP_CTXTID, &wait);
uint64_t te = nanos_since_boot();
if (thneed->record & 2) printf("exec %d wait %d after %lu us\n", ret, wret, (te-tb)/1000);
if (thneed->record & THNEED_DEBUG) printf("exec %d wait %d after %lu us\n", ret, wret, (te-tb)/1000);
} else {
if (thneed->record & 2) printf("CachedCommand::exec got %d\n", ret);
if (thneed->record & THNEED_DEBUG) printf("CachedCommand::exec got %d\n", ret);
}
if (thneed->record & THNEED_VERBOSE_DEBUG) {
for (auto &it : kq) {
it->debug_print(false);
}
#ifdef RUN_DISASSEMBLER
// assuming 2 commands
disassemble(0);
disassemble(1);
#endif
}
assert(ret == 0);
}
Thneed::Thneed() {
// *********** Thneed ***********
Thneed::Thneed(bool do_clinit) {
if (do_clinit) clinit();
assert(g_fd != -1);
fd = g_fd;
ram = make_unique<GPUMalloc>(0x40000, fd);
record = 1;
record = THNEED_RECORD;
timestamp = -1;
g_thneed = this;
}
@ -189,29 +223,18 @@ void Thneed::stop() {
record = 0;
}
//#define SAVE_LOG
void Thneed::execute(float **finputs, float *foutput, bool slow) {
int ret;
uint64_t tb, te;
if (record & 2) tb = nanos_since_boot();
#ifdef SAVE_LOG
char fn[0x100];
snprintf(fn, sizeof(fn), "/tmp/thneed_log_%d", timestamp);
FILE *f = fopen(fn, "wb");
#endif
if (record & THNEED_DEBUG) tb = nanos_since_boot();
// ****** copy inputs
for (int idx = 0; idx < inputs.size(); ++idx) {
size_t sz;
clGetMemObjectInfo(inputs[idx], CL_MEM_SIZE, sizeof(sz), &sz, NULL);
#ifdef SAVE_LOG
fwrite(&sz, 1, sizeof(sz), f);
fwrite(finputs[idx], 1, sz, f);
#endif
if (record & 2) printf("copying %lu -- %p -> %p\n", sz, finputs[idx], inputs[idx]);
if (record & THNEED_DEBUG) printf("copying %lu -- %p -> %p\n", sz, finputs[idx], inputs[idx]);
// TODO: This shouldn't have to block
clEnqueueWriteBuffer(command_queue, inputs[idx], CL_TRUE, 0, sz, finputs[idx], 0, NULL, NULL);
}
@ -229,40 +252,38 @@ void Thneed::execute(float **finputs, float *foutput, bool slow) {
prop.type = KGSL_PROP_PWR_CONSTRAINT;
prop.value = (void*)&constraint;
prop.sizebytes = sizeof(constraint);
int ret = ioctl(fd, IOCTL_KGSL_SETPROPERTY, &prop);
ret = ioctl(fd, IOCTL_KGSL_SETPROPERTY, &prop);
assert(ret == 0);
// ****** run commands
int i = 0;
for (auto it = cmds.begin(); it != cmds.end(); ++it) {
for (auto &it : cmds) {
++i;
if (record & 2) printf("run %2d: ", i);
(*it)->exec((i == cmds.size()) || slow);
if (record & THNEED_DEBUG) printf("run %2d @ %7lu us: ", i, (nanos_since_boot()-tb)/1000);
it->exec((i == cmds.size()) || slow);
}
// ****** sync objects
for (auto it = syncobjs.begin(); it != syncobjs.end(); ++it) {
for (auto &it : syncobjs) {
struct kgsl_gpuobj_sync cmd;
cmd.objs = (uint64_t)it->data();
cmd.obj_len = it->length();
cmd.count = it->length() / sizeof(struct kgsl_gpuobj_sync_obj);
cmd.objs = (uint64_t)it.data();
cmd.obj_len = it.length();
cmd.count = it.length() / sizeof(struct kgsl_gpuobj_sync_obj);
ret = ioctl(fd, IOCTL_KGSL_GPUOBJ_SYNC, &cmd);
assert(ret == 0);
}
// ****** copy outputs
size_t sz;
clGetMemObjectInfo(output, CL_MEM_SIZE, sizeof(sz), &sz, NULL);
if (record & 2) printf("copying %lu for output %p -> %p\n", sz, output, foutput);
clEnqueueReadBuffer(command_queue, output, CL_TRUE, 0, sz, foutput, 0, NULL, NULL);
#ifdef SAVE_LOG
fwrite(&sz, 1, sizeof(sz), f);
fwrite(foutput, 1, sz, f);
fclose(f);
#endif
if (output != NULL) {
size_t sz;
clGetMemObjectInfo(output, CL_MEM_SIZE, sizeof(sz), &sz, NULL);
if (record & THNEED_DEBUG) printf("copying %lu for output %p -> %p\n", sz, output, foutput);
clEnqueueReadBuffer(command_queue, output, CL_TRUE, 0, sz, foutput, 0, NULL, NULL);
} else {
printf("CAUTION: model output is NULL, does it have no outputs?\n");
}
// ****** unset power constraint
constraint.type = KGSL_CONSTRAINT_NONE;
@ -272,25 +293,59 @@ void Thneed::execute(float **finputs, float *foutput, bool slow) {
ret = ioctl(fd, IOCTL_KGSL_SETPROPERTY, &prop);
assert(ret == 0);
if (record & 2) {
if (record & THNEED_DEBUG) {
te = nanos_since_boot();
printf("model exec in %lu us\n", (te-tb)/1000);
}
}
// TODO: with a different way of getting the input and output buffers, we don't have to intercept CL at all
void Thneed::clinit() {
cl_int err;
cl_platform_id platform_id[2];
cl_uint num_devices;
cl_uint num_platforms;
err = clGetPlatformIDs(sizeof(platform_id)/sizeof(cl_platform_id), platform_id, &num_platforms);
assert(err == 0);
err = clGetDeviceIDs(platform_id[0], CL_DEVICE_TYPE_DEFAULT, 1, &device_id, &num_devices);
assert(err == 0);
context = clCreateContext(NULL, 1, &device_id, NULL, NULL, &err);
assert(err == 0);
//cl_command_queue_properties props[3] = {CL_QUEUE_PROPERTIES, CL_QUEUE_PROFILING_ENABLE, 0};
cl_command_queue_properties props[3] = {CL_QUEUE_PROPERTIES, 0, 0};
command_queue = clCreateCommandQueueWithProperties(context, device_id, props, &err);
assert(err == 0);
printf("Thneed::clinit done\n");
}
cl_int Thneed::clexec() {
printf("Thneed::clexec: running %lu queued kernels\n", kq.size());
for (auto &k : kq) {
if (record & THNEED_RECORD) ckq.push_back(k);
cl_int ret = k->exec();
assert(ret == CL_SUCCESS);
}
return clFinish(command_queue);
}
// *********** OpenCL interceptor ***********
cl_int (*my_clSetKernelArg)(cl_kernel kernel, cl_uint arg_index, size_t arg_size, const void *arg_value) = NULL;
cl_int thneed_clSetKernelArg(cl_kernel kernel, cl_uint arg_index, size_t arg_size, const void *arg_value) {
if (my_clSetKernelArg == NULL) my_clSetKernelArg = reinterpret_cast<decltype(my_clSetKernelArg)>(dlsym(RTLD_NEXT, "REAL_clSetKernelArg"));
g_args_size[make_pair(kernel, arg_index)] = arg_size;
if (arg_value != NULL) {
g_args[make_pair(kernel, arg_index)] = string((char*)arg_value, arg_size);
} else {
g_args[make_pair(kernel, arg_index)] = string("");
}
cl_int ret = my_clSetKernelArg(kernel, arg_index, arg_size, arg_value);
cl_int ret = clSetKernelArg(kernel, arg_index, arg_size, arg_value);
return ret;
}
cl_int (*my_clEnqueueNDRangeKernel)(cl_command_queue, cl_kernel, cl_uint, const size_t *, const size_t *, const size_t *, cl_uint, const cl_event *, cl_event *) = NULL;
cl_int thneed_clEnqueueNDRangeKernel(cl_command_queue command_queue,
cl_kernel kernel,
cl_uint work_dim,
@ -301,62 +356,183 @@ cl_int thneed_clEnqueueNDRangeKernel(cl_command_queue command_queue,
const cl_event *event_wait_list,
cl_event *event) {
if (my_clEnqueueNDRangeKernel == NULL) my_clEnqueueNDRangeKernel = reinterpret_cast<decltype(my_clEnqueueNDRangeKernel)>(dlsym(RTLD_NEXT, "REAL_clEnqueueNDRangeKernel"));
Thneed *thneed = g_thneed;
// SNPE doesn't use these
assert(num_events_in_wait_list == 0);
assert(global_work_offset == NULL);
assert(event_wait_list == NULL);
cl_int ret = 0;
if (thneed != NULL && thneed->record & THNEED_RECORD) {
if (thneed->context == NULL) {
thneed->command_queue = command_queue;
clGetKernelInfo(kernel, CL_KERNEL_CONTEXT, sizeof(thneed->context), &thneed->context, NULL);
clGetContextInfo(thneed->context, CL_CONTEXT_DEVICES, sizeof(thneed->device_id), &thneed->device_id, NULL);
}
// if we are recording, we don't actually enqueue the kernel
thneed->kq.push_back(unique_ptr<CLQueuedKernel>(new CLQueuedKernel(thneed, kernel, work_dim, global_work_size, local_work_size)));
*event = NULL;
} else {
ret = clEnqueueNDRangeKernel(command_queue, kernel, work_dim,
global_work_offset, global_work_size, local_work_size,
num_events_in_wait_list, event_wait_list, event);
}
return ret;
}
cl_int thneed_clFinish(cl_command_queue command_queue) {
Thneed *thneed = g_thneed;
if (thneed != NULL && thneed->record & THNEED_RECORD) {
#ifdef RUN_OPTIMIZER
thneed->optimize();
#endif
return thneed->clexec();
} else {
return clFinish(command_queue);
}
}
cl_program thneed_clCreateProgramWithSource(cl_context context, cl_uint count, const char **strings, const size_t *lengths, cl_int *errcode_ret) {
assert(count == 1);
cl_program ret = clCreateProgramWithSource(context, count, strings, lengths, errcode_ret);
g_program_source[ret] = strings[0];
return ret;
}
void *dlsym(void *handle, const char *symbol) {
// TODO: Find dlsym in a better way. Currently this is hand looked up in libdl.so
#if defined QCOM
void *(*my_dlsym)(void *handle, const char *symbol) = (void *(*)(void *handle, const char *symbol))((uintptr_t)dlopen-0x2d4);
#elif defined QCOM2
void *(*my_dlsym)(void *handle, const char *symbol) = (void *(*)(void *handle, const char *symbol))((uintptr_t)dlopen+0x138);
#else
#error "Unsupported platform for thneed"
#endif
if (memcmp("REAL_", symbol, 5) == 0) {
return my_dlsym(handle, symbol+5);
} else if (strcmp("clFinish", symbol) == 0) {
return (void*)thneed_clFinish;
} else if (strcmp("clEnqueueNDRangeKernel", symbol) == 0) {
return (void*)thneed_clEnqueueNDRangeKernel;
} else if (strcmp("clSetKernelArg", symbol) == 0) {
return (void*)thneed_clSetKernelArg;
} else if (strcmp("clCreateProgramWithSource", symbol) == 0) {
return (void*)thneed_clCreateProgramWithSource;
} else {
return my_dlsym(handle, symbol);
}
}
// *********** CLQueuedKernel ***********
char name[0x100];
clGetKernelInfo(kernel, CL_KERNEL_FUNCTION_NAME, sizeof(name), name, NULL);
CLQueuedKernel::CLQueuedKernel(Thneed *lthneed,
cl_kernel _kernel,
cl_uint _work_dim,
const size_t *_global_work_size,
const size_t *_local_work_size) {
thneed = lthneed;
kernel = _kernel;
work_dim = _work_dim;
assert(work_dim <= 3);
for (int i = 0; i < work_dim; i++) {
global_work_size[i] = _global_work_size[i];
local_work_size[i] = _local_work_size[i];
}
cl_uint num_args;
char _name[0x100];
clGetKernelInfo(kernel, CL_KERNEL_FUNCTION_NAME, sizeof(_name), _name, NULL);
name = string(_name);
clGetKernelInfo(kernel, CL_KERNEL_NUM_ARGS, sizeof(num_args), &num_args, NULL);
if (thneed != NULL && thneed->record & 1) {
thneed->command_queue = command_queue;
for (int i = 0; i < num_args; i++) {
// get args
for (int i = 0; i < num_args; i++) {
char arg_name[0x100];
clGetKernelArgInfo(kernel, i, CL_KERNEL_ARG_NAME, sizeof(arg_name), arg_name, NULL);
arg_names.push_back(string(arg_name));
args.push_back(g_args[make_pair(kernel, i)]);
args_size.push_back(g_args_size[make_pair(kernel, i)]);
}
// get program
clGetKernelInfo(kernel, CL_KERNEL_PROGRAM, sizeof(program), &program, NULL);
}
int CLQueuedKernel::get_arg_num(const char *search_arg_name) {
for (int i = 0; i < num_args; i++) {
if (arg_names[i] == search_arg_name) return i;
}
printf("failed to find %s in %s\n", search_arg_name, name.c_str());
assert(false);
}
cl_int CLQueuedKernel::exec() {
if (kernel == NULL) {
kernel = clCreateKernel(program, name.c_str(), NULL);
arg_names.clear();
for (int j = 0; j < num_args; j++) {
char arg_name[0x100];
clGetKernelArgInfo(kernel, i, CL_KERNEL_ARG_NAME, sizeof(arg_name), arg_name, NULL);
string arg = g_args[make_pair(kernel, i)];
clGetKernelArgInfo(kernel, j, CL_KERNEL_ARG_NAME, sizeof(arg_name), arg_name, NULL);
arg_names.push_back(string(arg_name));
cl_int ret;
if (args[j].size() != 0) {
assert(args[j].size() == args_size[j]);
ret = thneed_clSetKernelArg(kernel, j, args[j].size(), args[j].data());
} else {
ret = thneed_clSetKernelArg(kernel, j, args_size[j], NULL);
}
assert(ret == CL_SUCCESS);
}
}
if (strcmp(arg_name, "input") == 0 && strcmp(name, "zero_pad_image_float") == 0) {
cl_mem mem;
memcpy(&mem, (void*)arg.data(), sizeof(mem));
thneed->inputs.push_back(mem);
// save the global inputs/outputs
if (thneed->record & THNEED_RECORD) {
for (int i = 0; i < num_args; i++) {
if (name == "zero_pad_image_float" && arg_names[i] == "input") {
thneed->inputs.push_back(*(cl_mem*)(args[i].data()));
}
if (strcmp(arg_name, "output") == 0 && strcmp(name, "image2d_to_buffer_float") == 0) {
cl_mem mem;
memcpy(&mem, (void*)arg.data(), sizeof(mem));
thneed->output = mem;
if (name == "image2d_to_buffer_float" && arg_names[i] == "output") {
thneed->output = *(cl_mem*)(args[i].data());
}
}
}
if (thneed != NULL && thneed->record & 2) {
printf("%p %56s -- ", kernel, name);
for (int i = 0; i < work_dim; i++) {
printf("%4zu ", global_work_size[i]);
}
printf(" -- ");
for (int i = 0; i < work_dim; i++) {
printf("%4zu ", local_work_size[i]);
}
printf("\n");
if (thneed->record & THNEED_DEBUG) {
debug_print(thneed->record & THNEED_VERBOSE_DEBUG);
}
return clEnqueueNDRangeKernel(thneed->command_queue,
kernel, work_dim, NULL, global_work_size, local_work_size, 0, NULL, NULL);
}
void CLQueuedKernel::debug_print(bool verbose) {
printf("%p %56s -- ", kernel, name.c_str());
for (int i = 0; i < work_dim; i++) {
printf("%4zu ", global_work_size[i]);
}
printf(" -- ");
for (int i = 0; i < work_dim; i++) {
printf("%4zu ", local_work_size[i]);
}
if (thneed != NULL && thneed->record & 4) {
// extreme debug
printf("\n");
if (verbose) {
for (int i = 0; i < num_args; i++) {
char arg_type[0x100];
char arg_name[0x100];
clGetKernelArgInfo(kernel, i, CL_KERNEL_ARG_TYPE_NAME, sizeof(arg_type), arg_type, NULL);
clGetKernelArgInfo(kernel, i, CL_KERNEL_ARG_NAME, sizeof(arg_name), arg_name, NULL);
string arg = g_args[make_pair(kernel, i)];
printf(" %s %s", arg_type, arg_name);
string arg = args[i];
printf(" %s %s", arg_type, arg_names[i].c_str());
void *arg_value = (void*)arg.data();
int arg_size = arg.size();
if (arg_size == 1) {
if (arg_size == 0) {
printf(" (size) %d", args_size[i]);
} else if (arg_size == 1) {
printf(" = %d", *((char*)arg_value));
} else if (arg_size == 2) {
printf(" = %d", *((short*)arg_value));
@ -373,19 +549,24 @@ cl_int thneed_clEnqueueNDRangeKernel(cl_command_queue command_queue,
if (strcmp("image2d_t", arg_type) == 0 || strcmp("image1d_t", arg_type) == 0) {
cl_image_format format;
size_t width, height, depth, array_size, row_pitch, slice_pitch;
cl_mem buf;
clGetImageInfo(val, CL_IMAGE_FORMAT, sizeof(format), &format, NULL);
assert(format.image_channel_order == CL_RGBA);
assert(format.image_channel_data_type == CL_HALF_FLOAT);
clGetImageInfo(val, CL_IMAGE_WIDTH, sizeof(width), &width, NULL);
clGetImageInfo(val, CL_IMAGE_HEIGHT, sizeof(height), &height, NULL);
clGetImageInfo(val, CL_IMAGE_ROW_PITCH, sizeof(row_pitch), &row_pitch, NULL);
clGetImageInfo(val, CL_IMAGE_DEPTH, sizeof(depth), &depth, NULL);
clGetImageInfo(val, CL_IMAGE_ARRAY_SIZE, sizeof(array_size), &array_size, NULL);
clGetImageInfo(val, CL_IMAGE_ROW_PITCH, sizeof(row_pitch), &row_pitch, NULL);
clGetImageInfo(val, CL_IMAGE_SLICE_PITCH, sizeof(slice_pitch), &slice_pitch, NULL);
assert(depth == 0);
assert(array_size == 0);
assert(slice_pitch == 0);
printf(" image %zu x %zu rp %zu", width, height, row_pitch);
clGetImageInfo(val, CL_IMAGE_BUFFER, sizeof(buf), &buf, NULL);
size_t sz;
clGetMemObjectInfo(buf, CL_MEM_SIZE, sizeof(sz), &sz, NULL);
printf(" image %zu x %zu rp %zu @ %p buffer %zu", width, height, row_pitch, buf, sz);
} else {
size_t sz;
clGetMemObjectInfo(val, CL_MEM_SIZE, sizeof(sz), &sz, NULL);
@ -396,79 +577,5 @@ cl_int thneed_clEnqueueNDRangeKernel(cl_command_queue command_queue,
printf("\n");
}
}
cl_int ret = my_clEnqueueNDRangeKernel(command_queue, kernel, work_dim,
global_work_offset, global_work_size, local_work_size,
num_events_in_wait_list, event_wait_list, event);
/*uint64_t tb = nanos_since_boot();
clWaitForEvents(1, event);
uint64_t te = nanos_since_boot();
if (thneed != NULL && thneed->record & 2) {
printf(" wait %lu us\n", (te-tb)/1000);
}*/
return ret;
}
//#define SAVE_KERNELS
#ifdef SAVE_KERNELS
map<cl_program, string> program_source;
cl_program (*my_clCreateProgramWithSource)(cl_context context, cl_uint count, const char **strings, const size_t *lengths, cl_int *errcode_ret) = NULL;
cl_program thneed_clCreateProgramWithSource(cl_context context, cl_uint count, const char **strings, const size_t *lengths, cl_int *errcode_ret) {
if (my_clCreateProgramWithSource == NULL) my_clCreateProgramWithSource = reinterpret_cast<decltype(my_clCreateProgramWithSource)>(dlsym(RTLD_NEXT, "REAL_clCreateProgramWithSource"));
assert(count == 1);
size_t my_lengths[1];
my_lengths[0] = lengths[0];
char fn[0x100];
snprintf(fn, sizeof(fn), "/tmp/program_%zu.cl", strlen(strings[0]));
FILE *f = fopen(fn, "wb");
fprintf(f, "%s", strings[0]);
fclose(f);
char tmp[0x10000];
memset(tmp, 0, sizeof(tmp));
snprintf(fn, sizeof(fn), "/tmp/patched_%zu.cl", strlen(strings[0]));
FILE *g = fopen(fn, "rb");
if (g != NULL) {
printf("LOADING PATCHED PROGRAM %s\n", fn);
fread(tmp, 1, sizeof(tmp), g);
fclose(g);
strings[0] = tmp;
my_lengths[0] = strlen(tmp);
}
program_source[ret] = strings[0];
cl_program ret = my_clCreateProgramWithSource(context, count, strings, my_lengths, errcode_ret);
return ret;
}
#endif
void *dlsym(void *handle, const char *symbol) {
// TODO: Find dlsym in a better way. Currently this is hand looked up in libdl.so
#if defined QCOM
void *(*my_dlsym)(void *handle, const char *symbol) = (void *(*)(void *handle, const char *symbol))((uintptr_t)dlopen-0x2d4);
#elif defined QCOM2
void *(*my_dlsym)(void *handle, const char *symbol) = (void *(*)(void *handle, const char *symbol))((uintptr_t)dlopen+0x138);
#else
#error "Unsupported platform for thneed"
#endif
if (memcmp("REAL_", symbol, 5) == 0) {
return my_dlsym(handle, symbol+5);
} else if (strcmp("clEnqueueNDRangeKernel", symbol) == 0) {
return (void*)thneed_clEnqueueNDRangeKernel;
} else if (strcmp("clSetKernelArg", symbol) == 0) {
return (void*)thneed_clSetKernelArg;
#ifdef SAVE_KERNELS
} else if (strcmp("clCreateProgramWithSource", symbol) == 0) {
return (void*)thneed_clCreateProgramWithSource;
#endif
} else {
return my_dlsym(handle, symbol);
}
}

63
selfdrive/modeld/thneed/thneed.h
Unescape View File

@ -9,10 +9,18 @@
#include "include/msm_kgsl.h"
#include <vector>
#include <memory>
#include <string>
#include <CL/cl.h>
#define THNEED_RECORD 1
#define THNEED_DEBUG 2
#define THNEED_VERBOSE_DEBUG 4
using namespace std;
namespace json11 {
class Json;
}
class Thneed;
class GPUMalloc {
@ -25,28 +33,59 @@ class GPUMalloc {
int remaining;
};
class CLQueuedKernel {
public:
CLQueuedKernel(Thneed *lthneed) { thneed = lthneed; }
CLQueuedKernel(Thneed *lthneed,
cl_kernel _kernel,
cl_uint _work_dim,
const size_t *_global_work_size,
const size_t *_local_work_size);
cl_int exec();
void debug_print(bool verbose);
int get_arg_num(const char *search_arg_name);
cl_program program;
string name;
cl_uint num_args;
vector<string> arg_names;
vector<string> args;
vector<int> args_size;
cl_kernel kernel = NULL;
json11::Json to_json() const;
cl_uint work_dim;
size_t global_work_size[3] = {0};
size_t local_work_size[3] = {0};
private:
Thneed *thneed;
};
class CachedCommand {
public:
CachedCommand(Thneed *lthneed, struct kgsl_gpu_command *cmd);
void exec(bool wait);
void disassemble();
void disassemble(int cmd_index);
private:
struct kgsl_gpu_command cache;
struct kgsl_command_object cmds[2];
struct kgsl_command_object objs[1];
unique_ptr<kgsl_command_object[]> cmds;
unique_ptr<kgsl_command_object[]> objs;
Thneed *thneed;
vector<shared_ptr<CLQueuedKernel> > kq;
};
class Thneed {
public:
Thneed();
Thneed(bool do_clinit=false);
void stop();
void execute(float **finputs, float *foutput, bool slow=false);
int optimize();
vector<cl_mem> inputs;
cl_mem output;
cl_mem output = NULL;
cl_context context = NULL;
cl_command_queue command_queue;
cl_device_id device_id;
int context_id;
// protected?
@ -56,5 +95,19 @@ class Thneed {
vector<unique_ptr<CachedCommand> > cmds;
vector<string> syncobjs;
int fd;
// all CL kernels
cl_int clexec();
vector<shared_ptr<CLQueuedKernel> > kq;
// pending CL kernels
vector<shared_ptr<CLQueuedKernel> > ckq;
// loading and saving
void load(const char *filename);
void save(const char *filename);
private:
void clinit();
json11::Json to_json();
};

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