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OpenCL-CTS/test_conformance/conversions/basic_test_conversions.cpp
Wenju He e15c6eb760 Fix 'fpclassify: ambiguous call' compile fail in MSVC 2022 (#2426) 
Similar to #2219, we see "'fpclassify': ambiguous call" error in
test_conformance\basic\test_fpmath.cpp
due to missing constexpr at
https://github.com/KhronosGroup/OpenCL-CTS/blob/9265cbb2c274/test_conformance/basic/test_fpmath.cpp#L104
This PR fixes the issue by moving utility function isnan_fp in
testHarness.h and use it.
Note this PR doesn't modify use of isnan in many tests where only
float/double values are checked.
2025-08-05 09:08:04 -07:00

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//
// Copyright (c) 2017-2024 The Khronos Group Inc.
//
// Licensed under the Apache License, Version 2.0 (the "License");
// you may not use this file except in compliance with the License.
// You may obtain a copy of the License at
//
// http://www.apache.org/licenses/LICENSE-2.0
//
// Unless required by applicable law or agreed to in writing, software
// distributed under the License is distributed on an "AS IS" BASIS,
// WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
// See the License for the specific language governing permissions and
// limitations under the License.
//
#include "harness/mathHelpers.h"
#include "harness/testHarness.h"
#include "harness/compat.h"
#include "harness/ThreadPool.h"
#if defined(__APPLE__)
#include <sys/sysctl.h>
#include <mach/mach_time.h>
#endif
#if defined(__linux__)
#include <unistd.h>
#include <sys/syscall.h>
#include <linux/sysctl.h>
#endif
#if defined(__linux__)
#include <sys/param.h>
#include <libgen.h>
#endif
#if defined(__MINGW32__)
#include <sys/param.h>
#endif
#include <sstream>
#include <stdarg.h>
#if !defined(_WIN32)
#include <libgen.h>
#include <sys/mman.h>
#endif
#include <time.h>
#include <algorithm>
#include <vector>
#include <type_traits>
#include <cmath>
#include "basic_test_conversions.h"
#if defined(_WIN32)
#include <mmintrin.h>
#include <emmintrin.h>
#else // !_WIN32
#if defined(__SSE__)
#include <xmmintrin.h>
#endif
#if defined(__SSE2__)
#include <emmintrin.h>
#endif
#endif // _WIN32
cl_context gContext = NULL;
cl_command_queue gQueue = NULL;
int gStartTestNumber = -1;
int gEndTestNumber = 0;
void *gIn = NULL;
void *gRef = NULL;
void *gAllowZ = NULL;
void *gOut[kCallStyleCount] = { NULL };
cl_mem gInBuffer;
cl_mem gOutBuffers[kCallStyleCount];
size_t gComputeDevices = 0;
uint32_t gDeviceFrequency = 0;
int gWimpyMode = 0;
int gWimpyReductionFactor = 128;
int gSkipTesting = 0;
int gForceFTZ = 0;
int gIsRTZ = 0;
int gForceHalfFTZ = 0;
int gIsHalfRTZ = 0;
uint32_t gSimdSize = 1;
int gHasDouble = 0;
int gTestDouble = 1;
int gHasHalfs = 0;
int gTestHalfs = 1;
const char *sizeNames[] = { "", "", "2", "3", "4", "8", "16" };
int vectorSizes[] = { 1, 1, 2, 3, 4, 8, 16 };
int gMinVectorSize = 0;
int gMaxVectorSize = sizeof(vectorSizes) / sizeof(vectorSizes[0]);
MTdata gMTdata;
const char **argList = NULL;
int argCount = 0;
cl_half_rounding_mode DataInitInfo::halfRoundingMode = CL_HALF_RTE;
cl_half_rounding_mode ConversionsTest::defaultHalfRoundingMode = CL_HALF_RTE;
// clang-format off
// for readability sake keep this section unformatted
std::vector<unsigned int> DataInitInfo::specialValuesUInt = {
uint32_t(INT_MIN), uint32_t(INT_MIN + 1), uint32_t(INT_MIN + 2),
uint32_t(-(1 << 30) - 3), uint32_t(-(1 << 30) - 2), uint32_t(-(1 << 30) - 1), uint32_t(-(1 << 30)),
uint32_t(-(1 << 30) + 1), uint32_t(-(1 << 30) + 2), uint32_t(-(1 << 30) + 3),
uint32_t(-(1 << 24) - 3), uint32_t(-(1 << 24) - 2),uint32_t(-(1 << 24) - 1),
uint32_t(-(1 << 24)), uint32_t(-(1 << 24) + 1), uint32_t(-(1 << 24) + 2), uint32_t(-(1 << 24) + 3),
uint32_t(-(1 << 23) - 3), uint32_t(-(1 << 23) - 2),uint32_t(-(1 << 23) - 1),
uint32_t(-(1 << 23)), uint32_t(-(1 << 23) + 1), uint32_t(-(1 << 23) + 2), uint32_t(-(1 << 23) + 3),
uint32_t(-(1 << 22) - 3), uint32_t(-(1 << 22) - 2),uint32_t(-(1 << 22) - 1),
uint32_t(-(1 << 22)), uint32_t(-(1 << 22) + 1), uint32_t(-(1 << 22) + 2), uint32_t(-(1 << 22) + 3),
uint32_t(-(1 << 21) - 3), uint32_t(-(1 << 21) - 2),uint32_t(-(1 << 21) - 1),
uint32_t(-(1 << 21)), uint32_t(-(1 << 21) + 1), uint32_t(-(1 << 21) + 2), uint32_t(-(1 << 21) + 3),
uint32_t(-(1 << 16) - 3), uint32_t(-(1 << 16) - 2),uint32_t(-(1 << 16) - 1),
uint32_t(-(1 << 16)), uint32_t(-(1 << 16) + 1), uint32_t(-(1 << 16) + 2), uint32_t(-(1 << 16) + 3),
uint32_t(-(1 << 15) - 3), uint32_t(-(1 << 15) - 2),uint32_t(-(1 << 15) - 1),
uint32_t(-(1 << 15)), uint32_t(-(1 << 15) + 1), uint32_t(-(1 << 15) + 2), uint32_t(-(1 << 15) + 3),
uint32_t(-(1 << 8) - 3), uint32_t(-(1 << 8) - 2),uint32_t(-(1 << 8) - 1),
uint32_t(-(1 << 8)), uint32_t(-(1 << 8) + 1), uint32_t(-(1 << 8) + 2), uint32_t(-(1 << 8) + 3),
uint32_t(-(1 << 7) - 3), uint32_t(-(1 << 7) - 2),uint32_t(-(1 << 7) - 1),
uint32_t(-(1 << 7)), uint32_t(-(1 << 7) + 1), uint32_t(-(1 << 7) + 2), uint32_t(-(1 << 7) + 3),
uint32_t(-4), uint32_t(-3), uint32_t(-2), uint32_t(-1), 0, 1, 2, 3, 4,
(1 << 7) - 3,(1 << 7) - 2,(1 << 7) - 1, (1 << 7), (1 << 7) + 1, (1 << 7) + 2, (1 << 7) + 3,
(1 << 8) - 3,(1 << 8) - 2,(1 << 8) - 1, (1 << 8), (1 << 8) + 1, (1 << 8) + 2, (1 << 8) + 3,
(1 << 15) - 3,(1 << 15) - 2,(1 << 15) - 1, (1 << 15), (1 << 15) + 1, (1 << 15) + 2, (1 << 15) + 3,
(1 << 16) - 3,(1 << 16) - 2,(1 << 16) - 1, (1 << 16), (1 << 16) + 1, (1 << 16) + 2, (1 << 16) + 3,
(1 << 21) - 3,(1 << 21) - 2,(1 << 21) - 1, (1 << 21), (1 << 21) + 1, (1 << 21) + 2, (1 << 21) + 3,
(1 << 22) - 3,(1 << 22) - 2,(1 << 22) - 1, (1 << 22), (1 << 22) + 1, (1 << 22) + 2, (1 << 22) + 3,
(1 << 23) - 3,(1 << 23) - 2,(1 << 23) - 1, (1 << 23), (1 << 23) + 1, (1 << 23) + 2, (1 << 23) + 3,
(1 << 24) - 3,(1 << 24) - 2,(1 << 24) - 1, (1 << 24), (1 << 24) + 1, (1 << 24) + 2, (1 << 24) + 3,
(1 << 30) - 3,(1 << 30) - 2,(1 << 30) - 1, (1 << 30), (1 << 30) + 1, (1 << 30) + 2, (1 << 30) + 3,
INT_MAX - 3, INT_MAX - 2, INT_MAX - 1, INT_MAX, // 0x80000000, 0x80000001 0x80000002 already covered above
UINT_MAX - 3, UINT_MAX - 2, UINT_MAX - 1, UINT_MAX
};
std::vector<float> DataInitInfo::specialValuesFloat = {
-NAN, -INFINITY, -FLT_MAX,
MAKE_HEX_FLOAT(-0x1.000002p64f, -0x1000002L, 40), MAKE_HEX_FLOAT(-0x1.0p64f, -0x1L, 64), MAKE_HEX_FLOAT(-0x1.fffffep63f, -0x1fffffeL, 39),
MAKE_HEX_FLOAT(-0x1.000002p63f, -0x1000002L, 39), MAKE_HEX_FLOAT(-0x1.0p63f, -0x1L, 63), MAKE_HEX_FLOAT(-0x1.fffffep62f, -0x1fffffeL, 38),
MAKE_HEX_FLOAT(-0x1.000002p32f, -0x1000002L, 8), MAKE_HEX_FLOAT(-0x1.0p32f, -0x1L, 32), MAKE_HEX_FLOAT(-0x1.fffffep31f, -0x1fffffeL, 7),
MAKE_HEX_FLOAT(-0x1.000002p31f, -0x1000002L, 7), MAKE_HEX_FLOAT(-0x1.0p31f, -0x1L, 31), MAKE_HEX_FLOAT(-0x1.fffffep30f, -0x1fffffeL, 6),
-1000.f, -100.f, -4.0f, -3.5f, -3.0f,
MAKE_HEX_FLOAT(-0x1.800002p1f, -0x1800002L, -23), -2.5f,
MAKE_HEX_FLOAT(-0x1.7ffffep1f, -0x17ffffeL, -23), -2.0f,
MAKE_HEX_FLOAT(-0x1.800002p0f, -0x1800002L, -24), -1.5f,
MAKE_HEX_FLOAT(-0x1.7ffffep0f, -0x17ffffeL, -24), MAKE_HEX_FLOAT(-0x1.000002p0f, -0x1000002L, -24), -1.0f,
MAKE_HEX_FLOAT(-0x1.fffffep-1f, -0x1fffffeL, -25), MAKE_HEX_FLOAT(-0x1.000002p-1f, -0x1000002L, -25), -0.5f,
MAKE_HEX_FLOAT(-0x1.fffffep-2f, -0x1fffffeL, -26), MAKE_HEX_FLOAT(-0x1.000002p-2f, -0x1000002L, -26), -0.25f,
MAKE_HEX_FLOAT(-0x1.fffffep-3f, -0x1fffffeL, -27), MAKE_HEX_FLOAT(-0x1.000002p-126f, -0x1000002L, -150), -FLT_MIN,
MAKE_HEX_FLOAT(-0x0.fffffep-126f, -0x0fffffeL, -150),
MAKE_HEX_FLOAT(-0x0.000ffep-126f, -0x0000ffeL, -150), MAKE_HEX_FLOAT(-0x0.0000fep-126f, -0x00000feL, -150),
MAKE_HEX_FLOAT(-0x0.00000ep-126f, -0x000000eL, -150), MAKE_HEX_FLOAT(-0x0.00000cp-126f, -0x000000cL, -150),
MAKE_HEX_FLOAT(-0x0.00000ap-126f, -0x000000aL, -150), MAKE_HEX_FLOAT(-0x0.000008p-126f, -0x0000008L, -150),
MAKE_HEX_FLOAT(-0x0.000006p-126f, -0x0000006L, -150), MAKE_HEX_FLOAT(-0x0.000004p-126f, -0x0000004L, -150),
MAKE_HEX_FLOAT(-0x0.000002p-126f, -0x0000002L, -150), -0.0f, +NAN, +INFINITY, +FLT_MAX,
MAKE_HEX_FLOAT(+0x1.000002p64f, +0x1000002L, 40), MAKE_HEX_FLOAT(+0x1.0p64f, +0x1L, 64), MAKE_HEX_FLOAT(+0x1.fffffep63f, +0x1fffffeL, 39),
MAKE_HEX_FLOAT(+0x1.000002p63f, +0x1000002L, 39), MAKE_HEX_FLOAT(+0x1.0p63f, +0x1L, 63), MAKE_HEX_FLOAT(+0x1.fffffep62f, +0x1fffffeL, 38),
MAKE_HEX_FLOAT(+0x1.000002p32f, +0x1000002L, 8), MAKE_HEX_FLOAT(+0x1.0p32f, +0x1L, 32), MAKE_HEX_FLOAT(+0x1.fffffep31f, +0x1fffffeL, 7),
MAKE_HEX_FLOAT(+0x1.000002p31f, +0x1000002L, 7), MAKE_HEX_FLOAT(+0x1.0p31f, +0x1L, 31), MAKE_HEX_FLOAT(+0x1.fffffep30f, +0x1fffffeL, 6),
+1000.f, +100.f, +4.0f, +3.5f, +3.0f,
MAKE_HEX_FLOAT(+0x1.800002p1f, +0x1800002L, -23), 2.5f, MAKE_HEX_FLOAT(+0x1.7ffffep1f, +0x17ffffeL, -23), +2.0f,
MAKE_HEX_FLOAT(+0x1.800002p0f, +0x1800002L, -24), 1.5f, MAKE_HEX_FLOAT(+0x1.7ffffep0f, +0x17ffffeL, -24),
MAKE_HEX_FLOAT(+0x1.000002p0f, +0x1000002L, -24), +1.0f, MAKE_HEX_FLOAT(+0x1.fffffep-1f, +0x1fffffeL, -25),
MAKE_HEX_FLOAT(+0x1.000002p-1f, +0x1000002L, -25), +0.5f, MAKE_HEX_FLOAT(+0x1.fffffep-2f, +0x1fffffeL, -26),
MAKE_HEX_FLOAT(+0x1.000002p-2f, +0x1000002L, -26), +0.25f, MAKE_HEX_FLOAT(+0x1.fffffep-3f, +0x1fffffeL, -27),
MAKE_HEX_FLOAT(0x1.000002p-126f, 0x1000002L, -150), +FLT_MIN, MAKE_HEX_FLOAT(+0x0.fffffep-126f, +0x0fffffeL, -150),
MAKE_HEX_FLOAT(+0x0.000ffep-126f, +0x0000ffeL, -150), MAKE_HEX_FLOAT(+0x0.0000fep-126f, +0x00000feL, -150),
MAKE_HEX_FLOAT(+0x0.00000ep-126f, +0x000000eL, -150), MAKE_HEX_FLOAT(+0x0.00000cp-126f, +0x000000cL, -150),
MAKE_HEX_FLOAT(+0x0.00000ap-126f, +0x000000aL, -150), MAKE_HEX_FLOAT(+0x0.000008p-126f, +0x0000008L, -150),
MAKE_HEX_FLOAT(+0x0.000006p-126f, +0x0000006L, -150), MAKE_HEX_FLOAT(+0x0.000004p-126f, +0x0000004L, -150),
MAKE_HEX_FLOAT(+0x0.000002p-126f, +0x0000002L, -150), +0.0f
};
// A table of more difficult cases to get right
std::vector<double> DataInitInfo::specialValuesDouble = {
-NAN, -INFINITY, -DBL_MAX,
MAKE_HEX_DOUBLE(-0x1.0000000000001p64, -0x10000000000001LL, 12), MAKE_HEX_DOUBLE(-0x1.0p64, -0x1LL, 64),
MAKE_HEX_DOUBLE(-0x1.fffffffffffffp63, -0x1fffffffffffffLL, 11), MAKE_HEX_DOUBLE(-0x1.80000000000001p64, -0x180000000000001LL, 8),
MAKE_HEX_DOUBLE(-0x1.8p64, -0x18LL, 60), MAKE_HEX_DOUBLE(-0x1.7ffffffffffffp64, -0x17ffffffffffffLL, 12),
MAKE_HEX_DOUBLE(-0x1.80000000000001p63, -0x180000000000001LL, 7), MAKE_HEX_DOUBLE(-0x1.8p63, -0x18LL, 59),
MAKE_HEX_DOUBLE(-0x1.7ffffffffffffp63, -0x17ffffffffffffLL, 11), MAKE_HEX_DOUBLE(-0x1.0000000000001p63, -0x10000000000001LL, 11),
MAKE_HEX_DOUBLE(-0x1.0p63, -0x1LL, 63), MAKE_HEX_DOUBLE(-0x1.fffffffffffffp62, -0x1fffffffffffffLL, 10),
MAKE_HEX_DOUBLE(-0x1.80000000000001p32, -0x180000000000001LL, -24), MAKE_HEX_DOUBLE(-0x1.8p32, -0x18LL, 28),
MAKE_HEX_DOUBLE(-0x1.7ffffffffffffp32, -0x17ffffffffffffLL, -20), MAKE_HEX_DOUBLE(-0x1.000002p32, -0x1000002LL, 8),
MAKE_HEX_DOUBLE(-0x1.0p32, -0x1LL, 32), MAKE_HEX_DOUBLE(-0x1.fffffffffffffp31, -0x1fffffffffffffLL, -21),
MAKE_HEX_DOUBLE(-0x1.80000000000001p31, -0x180000000000001LL, -25), MAKE_HEX_DOUBLE(-0x1.8p31, -0x18LL, 27),
MAKE_HEX_DOUBLE(-0x1.7ffffffffffffp31, -0x17ffffffffffffLL, -21), MAKE_HEX_DOUBLE(-0x1.0000000000001p31, -0x10000000000001LL, -21),
MAKE_HEX_DOUBLE(-0x1.0p31, -0x1LL, 31), MAKE_HEX_DOUBLE(-0x1.fffffffffffffp30, -0x1fffffffffffffLL, -22),
-1000., -100., -4.0, -3.5, -3.0,
MAKE_HEX_DOUBLE(-0x1.8000000000001p1, -0x18000000000001LL, -51), -2.5,
MAKE_HEX_DOUBLE(-0x1.7ffffffffffffp1, -0x17ffffffffffffLL, -51), -2.0,
MAKE_HEX_DOUBLE(-0x1.8000000000001p0, -0x18000000000001LL, -52), -1.5,
MAKE_HEX_DOUBLE(-0x1.7ffffffffffffp0, -0x17ffffffffffffLL, -52), MAKE_HEX_DOUBLE(-0x1.0000000000001p0, -0x10000000000001LL, -52), -1.0,
MAKE_HEX_DOUBLE(-0x1.fffffffffffffp-1, -0x1fffffffffffffLL, -53), MAKE_HEX_DOUBLE(-0x1.0000000000001p-1, -0x10000000000001LL, -53), -0.5,
MAKE_HEX_DOUBLE(-0x1.fffffffffffffp-2, -0x1fffffffffffffLL, -54), MAKE_HEX_DOUBLE(-0x1.0000000000001p-2, -0x10000000000001LL, -54), -0.25,
MAKE_HEX_DOUBLE(-0x1.fffffffffffffp-3, -0x1fffffffffffffLL, -55), MAKE_HEX_DOUBLE(-0x1.0000000000001p-1022, -0x10000000000001LL, -1074),
-DBL_MIN,
MAKE_HEX_DOUBLE(-0x0.fffffffffffffp-1022, -0x0fffffffffffffLL, -1074), MAKE_HEX_DOUBLE(-0x0.0000000000fffp-1022, -0x00000000000fffLL, -1074),
MAKE_HEX_DOUBLE(-0x0.00000000000fep-1022, -0x000000000000feLL, -1074), MAKE_HEX_DOUBLE(-0x0.000000000000ep-1022, -0x0000000000000eLL, -1074),
MAKE_HEX_DOUBLE(-0x0.000000000000cp-1022, -0x0000000000000cLL, -1074), MAKE_HEX_DOUBLE(-0x0.000000000000ap-1022, -0x0000000000000aLL, -1074),
MAKE_HEX_DOUBLE(-0x0.0000000000008p-1022, -0x00000000000008LL, -1074), MAKE_HEX_DOUBLE(-0x0.0000000000007p-1022, -0x00000000000007LL, -1074),
MAKE_HEX_DOUBLE(-0x0.0000000000006p-1022, -0x00000000000006LL, -1074), MAKE_HEX_DOUBLE(-0x0.0000000000005p-1022, -0x00000000000005LL, -1074),
MAKE_HEX_DOUBLE(-0x0.0000000000004p-1022, -0x00000000000004LL, -1074), MAKE_HEX_DOUBLE(-0x0.0000000000003p-1022, -0x00000000000003LL, -1074),
MAKE_HEX_DOUBLE(-0x0.0000000000002p-1022, -0x00000000000002LL, -1074), MAKE_HEX_DOUBLE(-0x0.0000000000001p-1022, -0x00000000000001LL, -1074),
-0.0, MAKE_HEX_DOUBLE(+0x1.fffffffffffffp63, +0x1fffffffffffffLL, 11),
MAKE_HEX_DOUBLE(0x1.80000000000001p63, 0x180000000000001LL, 7), MAKE_HEX_DOUBLE(0x1.8p63, 0x18LL, 59),
MAKE_HEX_DOUBLE(0x1.7ffffffffffffp63, 0x17ffffffffffffLL, 11), MAKE_HEX_DOUBLE(+0x1.0000000000001p63, +0x10000000000001LL, 11),
MAKE_HEX_DOUBLE(+0x1.0p63, +0x1LL, 63), MAKE_HEX_DOUBLE(+0x1.fffffffffffffp62, +0x1fffffffffffffLL, 10),
MAKE_HEX_DOUBLE(+0x1.80000000000001p32, +0x180000000000001LL, -24), MAKE_HEX_DOUBLE(+0x1.8p32, +0x18LL, 28),
MAKE_HEX_DOUBLE(+0x1.7ffffffffffffp32, +0x17ffffffffffffLL, -20), MAKE_HEX_DOUBLE(+0x1.000002p32, +0x1000002LL, 8),
MAKE_HEX_DOUBLE(+0x1.0p32, +0x1LL, 32), MAKE_HEX_DOUBLE(+0x1.fffffffffffffp31, +0x1fffffffffffffLL, -21),
MAKE_HEX_DOUBLE(+0x1.80000000000001p31, +0x180000000000001LL, -25), MAKE_HEX_DOUBLE(+0x1.8p31, +0x18LL, 27),
MAKE_HEX_DOUBLE(+0x1.7ffffffffffffp31, +0x17ffffffffffffLL, -21), MAKE_HEX_DOUBLE(+0x1.0000000000001p31, +0x10000000000001LL, -21),
MAKE_HEX_DOUBLE(+0x1.0p31, +0x1LL, 31), MAKE_HEX_DOUBLE(+0x1.fffffffffffffp30, +0x1fffffffffffffLL, -22),
+1000., +100., +4.0, +3.5, +3.0, MAKE_HEX_DOUBLE(+0x1.8000000000001p1, +0x18000000000001LL, -51), +2.5,
MAKE_HEX_DOUBLE(+0x1.7ffffffffffffp1, +0x17ffffffffffffLL, -51), +2.0, MAKE_HEX_DOUBLE(+0x1.8000000000001p0, +0x18000000000001LL, -52),
+1.5, MAKE_HEX_DOUBLE(+0x1.7ffffffffffffp0, +0x17ffffffffffffLL, -52), MAKE_HEX_DOUBLE(-0x1.0000000000001p0, -0x10000000000001LL, -52),
+1.0, MAKE_HEX_DOUBLE(+0x1.fffffffffffffp-1, +0x1fffffffffffffLL, -53), MAKE_HEX_DOUBLE(+0x1.0000000000001p-1, +0x10000000000001LL, -53),
+0.5, MAKE_HEX_DOUBLE(+0x1.fffffffffffffp-2, +0x1fffffffffffffLL, -54), MAKE_HEX_DOUBLE(+0x1.0000000000001p-2, +0x10000000000001LL, -54),
+0.25, MAKE_HEX_DOUBLE(+0x1.fffffffffffffp-3, +0x1fffffffffffffLL, -55), MAKE_HEX_DOUBLE(+0x1.0000000000001p-1022, +0x10000000000001LL, -1074),
+DBL_MIN, MAKE_HEX_DOUBLE(+0x0.fffffffffffffp-1022, +0x0fffffffffffffLL, -1074),
MAKE_HEX_DOUBLE(+0x0.0000000000fffp-1022, +0x00000000000fffLL, -1074), MAKE_HEX_DOUBLE(+0x0.00000000000fep-1022, +0x000000000000feLL, -1074),
MAKE_HEX_DOUBLE(+0x0.000000000000ep-1022, +0x0000000000000eLL, -1074), MAKE_HEX_DOUBLE(+0x0.000000000000cp-1022, +0x0000000000000cLL, -1074),
MAKE_HEX_DOUBLE(+0x0.000000000000ap-1022, +0x0000000000000aLL, -1074), MAKE_HEX_DOUBLE(+0x0.0000000000008p-1022, +0x00000000000008LL, -1074),
MAKE_HEX_DOUBLE(+0x0.0000000000007p-1022, +0x00000000000007LL, -1074), MAKE_HEX_DOUBLE(+0x0.0000000000006p-1022, +0x00000000000006LL, -1074),
MAKE_HEX_DOUBLE(+0x0.0000000000005p-1022, +0x00000000000005LL, -1074), MAKE_HEX_DOUBLE(+0x0.0000000000004p-1022, +0x00000000000004LL, -1074),
MAKE_HEX_DOUBLE(+0x0.0000000000003p-1022, +0x00000000000003LL, -1074), MAKE_HEX_DOUBLE(+0x0.0000000000002p-1022, +0x00000000000002LL, -1074),
MAKE_HEX_DOUBLE(+0x0.0000000000001p-1022, +0x00000000000001LL, -1074), +0.0, MAKE_HEX_DOUBLE(-0x1.ffffffffffffep62, -0x1ffffffffffffeLL, 10),
MAKE_HEX_DOUBLE(-0x1.ffffffffffffcp62, -0x1ffffffffffffcLL, 10), MAKE_HEX_DOUBLE(-0x1.fffffffffffffp62, -0x1fffffffffffffLL, 10),
MAKE_HEX_DOUBLE(+0x1.ffffffffffffep62, +0x1ffffffffffffeLL, 10), MAKE_HEX_DOUBLE(+0x1.ffffffffffffcp62, +0x1ffffffffffffcLL, 10),
MAKE_HEX_DOUBLE(+0x1.fffffffffffffp62, +0x1fffffffffffffLL, 10), MAKE_HEX_DOUBLE(-0x1.ffffffffffffep51, -0x1ffffffffffffeLL, -1),
MAKE_HEX_DOUBLE(-0x1.ffffffffffffcp51, -0x1ffffffffffffcLL, -1), MAKE_HEX_DOUBLE(-0x1.fffffffffffffp51, -0x1fffffffffffffLL, -1),
MAKE_HEX_DOUBLE(+0x1.ffffffffffffep51, +0x1ffffffffffffeLL, -1), MAKE_HEX_DOUBLE(+0x1.ffffffffffffcp51, +0x1ffffffffffffcLL, -1),
MAKE_HEX_DOUBLE(+0x1.fffffffffffffp51, +0x1fffffffffffffLL, -1), MAKE_HEX_DOUBLE(-0x1.ffffffffffffep52, -0x1ffffffffffffeLL, 0),
MAKE_HEX_DOUBLE(-0x1.ffffffffffffcp52, -0x1ffffffffffffcLL, 0), MAKE_HEX_DOUBLE(-0x1.fffffffffffffp52, -0x1fffffffffffffLL, 0),
MAKE_HEX_DOUBLE(+0x1.ffffffffffffep52, +0x1ffffffffffffeLL, 0), MAKE_HEX_DOUBLE(+0x1.ffffffffffffcp52, +0x1ffffffffffffcLL, 0),
MAKE_HEX_DOUBLE(+0x1.fffffffffffffp52, +0x1fffffffffffffLL, 0), MAKE_HEX_DOUBLE(-0x1.ffffffffffffep53, -0x1ffffffffffffeLL, 1),
MAKE_HEX_DOUBLE(-0x1.ffffffffffffcp53, -0x1ffffffffffffcLL, 1), MAKE_HEX_DOUBLE(-0x1.fffffffffffffp53, -0x1fffffffffffffLL, 1),
MAKE_HEX_DOUBLE(+0x1.ffffffffffffep53, +0x1ffffffffffffeLL, 1), MAKE_HEX_DOUBLE(+0x1.ffffffffffffcp53, +0x1ffffffffffffcLL, 1),
MAKE_HEX_DOUBLE(+0x1.fffffffffffffp53, +0x1fffffffffffffLL, 1), MAKE_HEX_DOUBLE(-0x1.0000000000002p52, -0x10000000000002LL, 0),
MAKE_HEX_DOUBLE(-0x1.0000000000001p52, -0x10000000000001LL, 0), MAKE_HEX_DOUBLE(-0x1.0p52, -0x1LL, 52),
MAKE_HEX_DOUBLE(+0x1.0000000000002p52, +0x10000000000002LL, 0), MAKE_HEX_DOUBLE(+0x1.0000000000001p52, +0x10000000000001LL, 0),
MAKE_HEX_DOUBLE(+0x1.0p52, +0x1LL, 52), MAKE_HEX_DOUBLE(-0x1.0000000000002p53, -0x10000000000002LL, 1),
MAKE_HEX_DOUBLE(-0x1.0000000000001p53, -0x10000000000001LL, 1), MAKE_HEX_DOUBLE(-0x1.0p53, -0x1LL, 53),
MAKE_HEX_DOUBLE(+0x1.0000000000002p53, +0x10000000000002LL, 1), MAKE_HEX_DOUBLE(+0x1.0000000000001p53, +0x10000000000001LL, 1),
MAKE_HEX_DOUBLE(+0x1.0p53, +0x1LL, 53), MAKE_HEX_DOUBLE(-0x1.0000000000002p54, -0x10000000000002LL, 2),
MAKE_HEX_DOUBLE(-0x1.0000000000001p54, -0x10000000000001LL, 2), MAKE_HEX_DOUBLE(-0x1.0p54, -0x1LL, 54),
MAKE_HEX_DOUBLE(+0x1.0000000000002p54, +0x10000000000002LL, 2), MAKE_HEX_DOUBLE(+0x1.0000000000001p54, +0x10000000000001LL, 2),
MAKE_HEX_DOUBLE(+0x1.0p54, +0x1LL, 54), MAKE_HEX_DOUBLE(-0x1.fffffffefffffp62, -0x1fffffffefffffLL, 10),
MAKE_HEX_DOUBLE(-0x1.ffffffffp62, -0x1ffffffffLL, 30), MAKE_HEX_DOUBLE(-0x1.ffffffff00001p62, -0x1ffffffff00001LL, 10),
MAKE_HEX_DOUBLE(0x1.fffffffefffffp62, 0x1fffffffefffffLL, 10), MAKE_HEX_DOUBLE(0x1.ffffffffp62, 0x1ffffffffLL, 30),
MAKE_HEX_DOUBLE(0x1.ffffffff00001p62, 0x1ffffffff00001LL, 10),
};
// A table of more difficult cases to get right
std::vector<cl_half> DataInitInfo::specialValuesHalf = {
0xffff,
0x0000,
0x0001,
0x7c00, /*INFINITY*/
0xfc00, /*-INFINITY*/
0x8000, /*-0*/
0x7bff, /*HALF_MAX*/
0x0400, /*HALF_MIN*/
0x03ff, /* Largest denormal */
0x3c00, /* 1 */
0xbc00, /* -1 */
0x3555, /*nearest value to 1/3*/
0x3bff, /*largest number less than one*/
0xc000, /* -2 */
0xfbff, /* -HALF_MAX */
0x8400, /* -HALF_MIN */
0x4248, /* M_PI_H */
0xc248, /* -M_PI_H */
0xbbff, /* Largest negative fraction */
};
// clang-format on
// Windows (since long double got deprecated) sets the x87 to 53-bit precision
// (that's x87 default state). This causes problems with the tests that
// convert long and ulong to float and double or otherwise deal with values
// that need more precision than 53-bit. So, set the x87 to 64-bit precision.
static inline void Force64BitFPUPrecision(void)
{
#if __MINGW32__
// The usual method is to use _controlfp as follows:
// #include <float.h>
// _controlfp(_PC_64, _MCW_PC);
//
// _controlfp is available on MinGW32 but not on MinGW64. Instead of having
// divergent code just use inline assembly which works for both.
unsigned short int orig_cw = 0;
unsigned short int new_cw = 0;
__asm__ __volatile__("fstcw %0" : "=m"(orig_cw));
new_cw = orig_cw | 0x0300; // set precision to 64-bit
__asm__ __volatile__("fldcw %0" ::"m"(new_cw));
#else
/* Implement for other platforms if needed */
#endif
}
template <typename InType, typename OutType, bool InFP, bool OutFP>
int CalcRefValsPat<InType, OutType, InFP, OutFP>::check_result(void *test,
uint32_t count,
int vectorSize)
{
const cl_uchar *a = (const cl_uchar *)gAllowZ;
if constexpr (is_half<OutType, OutFP>())
{
const cl_half *t = (const cl_half *)test;
const cl_half *c = (const cl_half *)gRef;
for (uint32_t i = 0; i < count; i++)
if (t[i] != c[i] &&
// Allow nan's to be binary different
!((t[i] & 0x7fff) > 0x7C00 && (c[i] & 0x7fff) > 0x7C00)
&& !(a[i] != (cl_uchar)0 && t[i] == (c[i] & 0x8000)))
{
vlog(
"\nError for vector size %d found at 0x%8.8x: *%a vs %a\n",
vectorSize, i, HTF(c[i]), HTF(t[i]));
return i + 1;
}
}
else if constexpr (std::is_integral<OutType>::value)
{ // char/uchar/short/ushort/half/int/uint/long/ulong
const OutType *t = (const OutType *)test;
const OutType *c = (const OutType *)gRef;
for (uint32_t i = 0; i < count; i++)
if (t[i] != c[i] && !(a[i] != (cl_uchar)0 && t[i] == (OutType)0))
{
size_t s = sizeof(OutType) * 2;
std::stringstream sstr;
sstr << "\nError for vector size %d found at 0x%8.8x: *0x%"
<< s << "." << s << "x vs 0x%" << s << "." << s << "x\n";
vlog(sstr.str().c_str(), vectorSize, i, c[i], t[i]);
return i + 1;
}
}
else if constexpr (std::is_same<OutType, cl_float>::value)
{
// cast to integral - from original test
const cl_uint *t = (const cl_uint *)test;
const cl_uint *c = (const cl_uint *)gRef;
for (uint32_t i = 0; i < count; i++)
if (t[i] != c[i] &&
// Allow nan's to be binary different
!((t[i] & 0x7fffffffU) > 0x7f800000U
&& (c[i] & 0x7fffffffU) > 0x7f800000U)
&& !(a[i] != (cl_uchar)0 && t[i] == (c[i] & 0x80000000U)))
{
vlog(
"\nError for vector size %d found at 0x%8.8x: *%a vs %a\n",
vectorSize, i, ((OutType *)gRef)[i], ((OutType *)test)[i]);
return i + 1;
}
}
else
{
const cl_ulong *t = (const cl_ulong *)test;
const cl_ulong *c = (const cl_ulong *)gRef;
for (uint32_t i = 0; i < count; i++)
if (t[i] != c[i] &&
// Allow nan's to be binary different
!((t[i] & 0x7fffffffffffffffULL) > 0x7ff0000000000000ULL
&& (c[i] & 0x7fffffffffffffffULL) > 0x7f80000000000000ULL)
&& !(a[i] != (cl_uchar)0
&& t[i] == (c[i] & 0x8000000000000000ULL)))
{
vlog(
"\nError for vector size %d found at 0x%8.8x: *%a vs %a\n",
vectorSize, i, ((OutType *)gRef)[i], ((OutType *)test)[i]);
return i + 1;
}
}
return 0;
}
cl_uint RoundUpToNextPowerOfTwo(cl_uint x)
{
if (0 == (x & (x - 1))) return x;
while (x & (x - 1)) x &= x - 1;
return x + x;
}
cl_int CustomConversionsTest::Run()
{
int startMinVectorSize = gMinVectorSize;
Type inType, outType;
RoundingMode round;
SaturationMode sat;
for (int i = 0; i < argCount; i++)
{
if (conv_test::GetTestCase(argList[i], &outType, &inType, &sat, &round))
{
vlog_error("\n\t\t**** ERROR: Unable to parse function name "
"%s. Skipping.... *****\n\n",
argList[i]);
continue;
}
// skip double if we don't have it
if (!gTestDouble && (inType == kdouble || outType == kdouble))
{
if (gHasDouble)
{
vlog_error("\t *** convert_%sn%s%s( %sn ) FAILED ** \n",
gTypeNames[outType], gSaturationNames[sat],
gRoundingModeNames[round], gTypeNames[inType]);
vlog("\t\tcl_khr_fp64 enabled, but double testing turned "
"off.\n");
}
continue;
}
// skip half if we don't have it
if (!gTestHalfs && (inType == khalf || outType == khalf))
{
if (gHasHalfs)
{
vlog_error("\t *** convert_%sn%s%s( %sn ) FAILED ** \n",
gTypeNames[outType], gSaturationNames[sat],
gRoundingModeNames[round], gTypeNames[inType]);
vlog("\t\tcl_khr_fp16 enabled, but half testing turned "
"off.\n");
}
continue;
}
// skip longs on embedded
if (!gHasLong
&& (inType == klong || outType == klong || inType == kulong
|| outType == kulong))
{
continue;
}
// Skip the implicit converts if the rounding mode is not default or
// test is saturated
if (0 == startMinVectorSize)
{
if (sat || round != kDefaultRoundingMode)
gMinVectorSize = 1;
else
gMinVectorSize = 0;
}
IterOverSelectedTypes iter(typeIterator, *this, inType, outType, round,
sat);
iter.Run();
if (gFailCount)
{
vlog_error("\t *** convert_%sn%s%s( %sn ) FAILED ** \n",
gTypeNames[outType], gSaturationNames[sat],
gRoundingModeNames[round], gTypeNames[inType]);
}
}
return gFailCount;
}
ConversionsTest::ConversionsTest(cl_device_id device, cl_context context,
cl_command_queue queue)
: context(context), device(device), queue(queue), num_elements(0),
typeIterator({ cl_uchar(0), cl_char(0), cl_ushort(0), cl_short(0),
cl_uint(0), cl_int(0), cl_half(0), cl_float(0),
cl_double(0), cl_ulong(0), cl_long(0) })
{}
cl_int ConversionsTest::Run()
{
IterOverTypes iter(typeIterator, *this);
iter.Run();
return gFailCount;
}
cl_int ConversionsTest::SetUp(int elements)
{
num_elements = elements;
if (is_extension_available(device, "cl_khr_fp16"))
{
const cl_device_fp_config fpConfigHalf =
get_default_rounding_mode(device, CL_DEVICE_HALF_FP_CONFIG);
if ((fpConfigHalf & CL_FP_ROUND_TO_NEAREST) != 0)
{
DataInitInfo::halfRoundingMode = CL_HALF_RTE;
ConversionsTest::defaultHalfRoundingMode = CL_HALF_RTE;
}
else if ((fpConfigHalf & CL_FP_ROUND_TO_ZERO) != 0)
{
DataInitInfo::halfRoundingMode = CL_HALF_RTZ;
ConversionsTest::defaultHalfRoundingMode = CL_HALF_RTZ;
}
else
{
log_error("Error while acquiring half rounding mode");
return TEST_FAIL;
}
}
return CL_SUCCESS;
}
template <typename InType, typename OutType, bool InFP, bool OutFP>
void ConversionsTest::TestTypesConversion(const Type &inType,
const Type &outType, int &testNumber,
int startMinVectorSize)
{
SaturationMode sat;
RoundingMode round;
int error;
// skip longs on embedded
if (!gHasLong
&& (inType == klong || outType == klong || inType == kulong
|| outType == kulong))
{
return;
}
for (sat = (SaturationMode)0; sat < kSaturationModeCount;
sat = (SaturationMode)(sat + 1))
{
// skip illegal saturated conversions to float type
if (kSaturated == sat
&& (outType == kfloat || outType == kdouble || outType == khalf))
{
continue;
}
for (round = (RoundingMode)0; round < kRoundingModeCount;
round = (RoundingMode)(round + 1))
{
if (++testNumber < gStartTestNumber)
{
continue;
}
else
{
if (gEndTestNumber > 0 && testNumber >= gEndTestNumber) return;
}
vlog("%d) Testing convert_%sn%s%s( %sn ):\n", testNumber,
gTypeNames[outType], gSaturationNames[sat],
gRoundingModeNames[round], gTypeNames[inType]);
// skip double if we don't have it
if (!gTestDouble && (inType == kdouble || outType == kdouble))
{
if (gHasDouble)
{
vlog_error("\t *** %d) convert_%sn%s%s( %sn ) "
"FAILED ** \n",
testNumber, gTypeNames[outType],
gSaturationNames[sat], gRoundingModeNames[round],
gTypeNames[inType]);
vlog("\t\tcl_khr_fp64 enabled, but double "
"testing turned off.\n");
}
continue;
}
// skip half if we don't have it
if (!gTestHalfs && (inType == khalf || outType == khalf))
{
if (gHasHalfs)
{
vlog_error("\t *** convert_%sn%s%s( %sn ) FAILED ** \n",
gTypeNames[outType], gSaturationNames[sat],
gRoundingModeNames[round], gTypeNames[inType]);
vlog("\t\tcl_khr_fp16 enabled, but half testing turned "
"off.\n");
}
continue;
}
// Skip the implicit converts if the rounding mode is
// not default or test is saturated
if (0 == startMinVectorSize)
{
if (sat || round != kDefaultRoundingMode)
gMinVectorSize = 1;
else
gMinVectorSize = 0;
}
if ((error = DoTest<InType, OutType, InFP, OutFP>(outType, inType,
sat, round)))
{
vlog_error("\t *** %d) convert_%sn%s%s( %sn ) "
"FAILED ** \n",
testNumber, gTypeNames[outType],
gSaturationNames[sat], gRoundingModeNames[round],
gTypeNames[inType]);
}
}
}
}
template <typename InType, typename OutType, bool InFP, bool OutFP>
int ConversionsTest::DoTest(Type outType, Type inType, SaturationMode sat,
RoundingMode round)
{
#ifdef __APPLE__
cl_ulong wall_start = mach_absolute_time();
#endif
cl_uint threads = GetThreadCount();
DataInitInfo info = { 0, 0, outType, inType, sat, round, threads };
DataInfoSpec<InType, OutType, InFP, OutFP> init_info(info);
WriteInputBufferInfo writeInputBufferInfo;
int vectorSize;
int error = 0;
uint64_t i;
gTestCount++;
size_t blockCount =
BUFFER_SIZE / std::max(gTypeSizes[inType], gTypeSizes[outType]);
size_t step = blockCount;
for (i = 0; i < threads; i++)
{
init_info.mdv.emplace_back(MTdataHolder(gRandomSeed));
}
writeInputBufferInfo.outType = outType;
writeInputBufferInfo.inType = inType;
writeInputBufferInfo.calcInfo.resize(gMaxVectorSize);
for (vectorSize = gMinVectorSize; vectorSize < gMaxVectorSize; vectorSize++)
{
writeInputBufferInfo.calcInfo[vectorSize].reset(
new CalcRefValsPat<InType, OutType, InFP, OutFP>());
writeInputBufferInfo.calcInfo[vectorSize]->program =
conv_test::MakeProgram(
outType, inType, sat, round, vectorSize,
&writeInputBufferInfo.calcInfo[vectorSize]->kernel);
if (NULL == writeInputBufferInfo.calcInfo[vectorSize]->program)
{
gFailCount++;
return -1;
}
if (NULL == writeInputBufferInfo.calcInfo[vectorSize]->kernel)
{
gFailCount++;
vlog_error("\t\tFAILED -- Failed to create kernel.\n");
return -2;
}
writeInputBufferInfo.calcInfo[vectorSize]->parent =
&writeInputBufferInfo;
writeInputBufferInfo.calcInfo[vectorSize]->vectorSize = vectorSize;
writeInputBufferInfo.calcInfo[vectorSize]->result = -1;
}
if (gSkipTesting) return error;
// Patch up rounding mode if default is RTZ
// We leave the part above in default rounding mode so that the right kernel
// is compiled.
if (std::is_same<OutType, cl_float>::value)
{
if (round == kDefaultRoundingMode && gIsRTZ)
init_info.round = round = kRoundTowardZero;
}
else if (std::is_same<OutType, cl_half>::value && OutFP)
{
if (round == kDefaultRoundingMode && gIsHalfRTZ)
init_info.round = round = kRoundTowardZero;
}
// Figure out how many elements are in a work block
// we handle 64-bit types a bit differently.
uint64_t lastCase = (8 * gTypeSizes[inType] > 32)
? 0x100000000ULL
: 1ULL << (8 * gTypeSizes[inType]);
if (!gWimpyMode && gIsEmbedded)
step = blockCount * EMBEDDED_REDUCTION_FACTOR;
if (gWimpyMode) step = (size_t)blockCount * (size_t)gWimpyReductionFactor;
vlog("Testing... ");
fflush(stdout);
for (i = 0; i < (uint64_t)lastCase; i += step)
{
if (0 == (i & ((lastCase >> 3) - 1)))
{
vlog(".");
fflush(stdout);
}
cl_uint count = (uint32_t)std::min((uint64_t)blockCount, lastCase - i);
writeInputBufferInfo.count = count;
// Crate a user event to represent the status of the reference value
// computation completion
writeInputBufferInfo.calcReferenceValues =
clCreateUserEvent(gContext, &error);
if (error || NULL == writeInputBufferInfo.calcReferenceValues)
{
vlog_error("ERROR: Unable to create user event. (%d)\n", error);
gFailCount++;
return error;
}
// retain for consumption by MapOutputBufferComplete
for (vectorSize = gMinVectorSize; vectorSize < gMaxVectorSize;
vectorSize++)
{
if ((error =
clRetainEvent(writeInputBufferInfo.calcReferenceValues)))
{
vlog_error("ERROR: Unable to retain user event. (%d)\n", error);
gFailCount++;
return error;
}
}
// Crate a user event to represent when the callbacks are done verifying
// correctness
writeInputBufferInfo.doneBarrier = clCreateUserEvent(gContext, &error);
if (error || NULL == writeInputBufferInfo.doneBarrier)
{
vlog_error("ERROR: Unable to create user event for barrier. (%d)\n",
error);
gFailCount++;
return error;
}
// retain for use by the callback that calls this
if ((error = clRetainEvent(writeInputBufferInfo.doneBarrier)))
{
vlog_error("ERROR: Unable to retain user event doneBarrier. (%d)\n",
error);
gFailCount++;
return error;
}
// Call this in a multithreaded manner
cl_uint chunks = RoundUpToNextPowerOfTwo(threads) * 2;
init_info.start = i;
init_info.size = count / chunks;
if (init_info.size < 16384)
{
chunks = RoundUpToNextPowerOfTwo(threads);
init_info.size = count / chunks;
if (init_info.size < 16384)
{
init_info.size = count;
chunks = 1;
}
}
ThreadPool_Do(conv_test::InitData, chunks, &init_info);
// Copy the results to the device
if ((error = clEnqueueWriteBuffer(gQueue, gInBuffer, CL_TRUE, 0,
count * gTypeSizes[inType], gIn, 0,
NULL, NULL)))
{
vlog_error("ERROR: clEnqueueWriteBuffer failed. (%d)\n", error);
gFailCount++;
return error;
}
// Call completion callback for the write, which will enqueue the rest
// of the work.
conv_test::WriteInputBufferComplete((void *)&writeInputBufferInfo);
// Make sure the work is actually running, so we don't deadlock
if ((error = clFlush(gQueue)))
{
vlog_error("clFlush failed with error %d\n", error);
gFailCount++;
return error;
}
ThreadPool_Do(conv_test::PrepareReference, chunks, &init_info);
// signal we are done calculating the reference results
if ((error = clSetUserEventStatus(
writeInputBufferInfo.calcReferenceValues, CL_COMPLETE)))
{
vlog_error(
"Error: Failed to set user event status to CL_COMPLETE: %d\n",
error);
gFailCount++;
return error;
}
// Wait for the event callbacks to finish verifying correctness.
if ((error = clWaitForEvents(
1, (cl_event *)&writeInputBufferInfo.doneBarrier)))
{
vlog_error("Error: Failed to wait for barrier: %d\n", error);
gFailCount++;
return error;
}
if ((error = clReleaseEvent(writeInputBufferInfo.calcReferenceValues)))
{
vlog_error("Error: Failed to release calcReferenceValues: %d\n",
error);
gFailCount++;
return error;
}
if ((error = clReleaseEvent(writeInputBufferInfo.doneBarrier)))
{
vlog_error("Error: Failed to release done barrier: %d\n", error);
gFailCount++;
return error;
}
for (vectorSize = gMinVectorSize; vectorSize < gMaxVectorSize;
vectorSize++)
{
if ((error = writeInputBufferInfo.calcInfo[vectorSize]->result))
{
switch (inType)
{
case kuchar:
case kchar:
vlog("Input value: 0x%2.2x ",
((unsigned char *)gIn)[error - 1]);
break;
case kushort:
case kshort:
vlog("Input value: 0x%4.4x ",
((unsigned short *)gIn)[error - 1]);
break;
case kuint:
case kint:
vlog("Input value: 0x%8.8x ",
((unsigned int *)gIn)[error - 1]);
break;
case khalf:
vlog("Input value: %a ",
HTF(((cl_half *)gIn)[error - 1]));
break;
case kfloat:
vlog("Input value: %a ", ((float *)gIn)[error - 1]);
break;
case kulong:
case klong:
vlog("Input value: 0x%16.16llx ",
((unsigned long long *)gIn)[error - 1]);
break;
case kdouble:
vlog("Input value: %a ", ((double *)gIn)[error - 1]);
break;
default:
vlog_error("Internal error at %s: %d\n", __FILE__,
__LINE__);
abort();
break;
}
// tell the user which conversion it was.
if (0 == vectorSize)
vlog(" (implicit scalar conversion from %s to %s)\n",
gTypeNames[inType], gTypeNames[outType]);
else
vlog(" (convert_%s%s%s%s( %s%s ))\n", gTypeNames[outType],
sizeNames[vectorSize], gSaturationNames[sat],
gRoundingModeNames[round], gTypeNames[inType],
sizeNames[vectorSize]);
gFailCount++;
return error;
}
}
}
log_info("done.\n");
if (gWimpyMode)
vlog("\tWimp pass");
else
vlog("\tpassed");
#ifdef __APPLE__
// record the run time
vlog("\t(%f s)", 1e-9 * (mach_absolute_time() - wall_start));
#endif
vlog("\n\n");
fflush(stdout);
return error;
}
#if !defined(__APPLE__)
void memset_pattern4(void *dest, const void *src_pattern, size_t bytes);
#endif
void MapResultValuesComplete(const std::unique_ptr<CalcRefValsBase> &ptr);
void CL_CALLBACK CalcReferenceValuesComplete(cl_event e, cl_int status,
void *data);
// Note: May be called reentrantly
void MapResultValuesComplete(const std::unique_ptr<CalcRefValsBase> &info)
{
cl_int status;
// CalcRefValsBase *info = (CalcRefValsBase *)data;
cl_event calcReferenceValues = info->parent->calcReferenceValues;
// we know that the map is done, wait for the main thread to finish
// calculating the reference values
if ((status =
clSetEventCallback(calcReferenceValues, CL_COMPLETE,
CalcReferenceValuesComplete, (void *)&info)))
{
vlog_error("ERROR: clSetEventCallback failed in "
"MapResultValuesComplete with status: %d\n",
status);
gFailCount++; // not thread safe -- being lazy here
}
// this thread no longer needs its reference to info->calcReferenceValues,
// so release it
if ((status = clReleaseEvent(calcReferenceValues)))
{
vlog_error("ERROR: clReleaseEvent(info->calcReferenceValues) failed "
"with status: %d\n",
status);
gFailCount++; // not thread safe -- being lazy here
}
// no need to flush since we didn't enqueue anything
// e was already released by WriteInputBufferComplete. It should be
// destroyed automatically soon after we exit.
}
template <typename InType>
void ZeroNanToIntCases(cl_uint count, void *mapped, Type outType, void *input)
{
InType *inp = (InType *)input;
for (auto j = 0; j < count; j++)
{
if (isnan_fp<InType>(inp[j]))
memset((char *)mapped + j * gTypeSizes[outType], 0,
gTypeSizes[outType]);
}
}
template <typename InType, typename OutType>
void FixNanToFltConversions(InType *inp, OutType *outp, cl_uint count)
{
if (std::is_same<OutType, cl_half>::value)
{
for (auto j = 0; j < count; j++)
if (isnan_fp(inp[j]) && isnan_fp(outp[j]))
outp[j] = 0x7e00; // HALF_NAN
}
else
{
for (auto j = 0; j < count; j++)
if (isnan_fp(inp[j]) && isnan_fp(outp[j])) outp[j] = NAN;
}
}
void FixNanConversions(Type outType, Type inType, void *d, cl_uint count,
void *inp)
{
if (outType != kfloat && outType != kdouble && outType != khalf)
{
if (inType == kfloat)
ZeroNanToIntCases<float>(count, d, outType, inp);
else if (inType == kdouble)
ZeroNanToIntCases<double>(count, d, outType, inp);
else if (inType == khalf)
ZeroNanToIntCases<cl_half>(count, d, outType, inp);
}
else if (inType == kfloat || inType == kdouble || inType == khalf)
{
// outtype and intype is float or double or half. NaN conversions for
// float/double/half could be any NaN
if (inType == kfloat)
{
float *inp = (float *)gIn;
if (outType == kdouble)
{
double *outp = (double *)d;
FixNanToFltConversions(inp, outp, count);
}
else if (outType == khalf)
{
cl_half *outp = (cl_half *)d;
FixNanToFltConversions(inp, outp, count);
}
}
else if (inType == kdouble)
{
double *inp = (double *)gIn;
if (outType == kfloat)
{
float *outp = (float *)d;
FixNanToFltConversions(inp, outp, count);
}
else if (outType == khalf)
{
cl_half *outp = (cl_half *)d;
FixNanToFltConversions(inp, outp, count);
}
}
else if (inType == khalf)
{
cl_half *inp = (cl_half *)gIn;
if (outType == kfloat)
{
float *outp = (float *)d;
FixNanToFltConversions(inp, outp, count);
}
else if (outType == kdouble)
{
double *outp = (double *)d;
FixNanToFltConversions(inp, outp, count);
}
}
}
}
void CL_CALLBACK CalcReferenceValuesComplete(cl_event e, cl_int status,
void *data)
{
std::unique_ptr<CalcRefValsBase> &info =
*(std::unique_ptr<CalcRefValsBase> *)data;
cl_uint vectorSize = info->vectorSize;
cl_uint count = info->parent->count;
Type outType =
info->parent->outType; // the data type of the conversion result
Type inType = info->parent->inType; // the data type of the conversion input
cl_int error;
cl_event doneBarrier = info->parent->doneBarrier;
// report spurious error condition
if (CL_SUCCESS != status)
{
vlog_error("ERROR: CalcReferenceValuesComplete did not succeed! (%d)\n",
status);
gFailCount++; // lazy about thread safety here
return;
}
// Now we know that both results have been mapped back from the device, and
// the main thread is done calculating the reference results. It is now time
// to check the results.
// verify results
void *mapped = info->p;
// Patch up NaNs conversions to integer to zero -- these can be converted to
// any integer
FixNanConversions(outType, inType, mapped, count, gIn);
if (memcmp(mapped, gRef, count * gTypeSizes[outType]))
info->result =
info->check_result(mapped, count, vectorSizes[vectorSize]);
else
info->result = 0;
// Fill the output buffer with junk and release it
{
cl_uint pattern = 0xffffdead;
memset_pattern4(mapped, &pattern, count * gTypeSizes[outType]);
if ((error = clEnqueueUnmapMemObject(gQueue, gOutBuffers[vectorSize],
mapped, 0, NULL, NULL)))
{
vlog_error("ERROR: clEnqueueUnmapMemObject failed in "
"CalcReferenceValuesComplete (%d)\n",
error);
gFailCount++;
}
}
if (1 == ThreadPool_AtomicAdd(&info->parent->barrierCount, -1))
{
if ((status = clSetUserEventStatus(doneBarrier, CL_COMPLETE)))
{
vlog_error("ERROR: clSetUserEventStatus failed in "
"CalcReferenceValuesComplete (err: %d). We're probably "
"going to deadlock.\n",
status);
gFailCount++;
return;
}
if ((status = clReleaseEvent(doneBarrier)))
{
vlog_error("ERROR: clReleaseEvent failed in "
"CalcReferenceValuesComplete (err: %d).\n",
status);
gFailCount++;
return;
}
}
// e was already released by WriteInputBufferComplete. It should be
// destroyed automatically soon after all the calls to
// CalcReferenceValuesComplete exit.
}
namespace conv_test {
cl_int InitData(cl_uint job_id, cl_uint thread_id, void *p)
{
DataInitBase *info = (DataInitBase *)p;
info->init(job_id, thread_id);
return CL_SUCCESS;
}
cl_int PrepareReference(cl_uint job_id, cl_uint thread_id, void *p)
{
DataInitBase *info = (DataInitBase *)p;
cl_uint count = info->size;
Type inType = info->inType;
Type outType = info->outType;
RoundingMode round = info->round;
Force64BitFPUPrecision();
void *s = (cl_uchar *)gIn + job_id * count * gTypeSizes[info->inType];
void *a = (cl_uchar *)gAllowZ + job_id * count;
void *d = (cl_uchar *)gRef + job_id * count * gTypeSizes[info->outType];
if (outType != inType)
{
// create the reference while we wait
#if (defined(__arm__) || defined(__aarch64__)) && defined(__GNUC__)
/* ARM VFP doesn't have hardware instruction for converting from 64-bit
* integer to float types, hence GCC ARM uses the floating-point
* emulation code despite which -mfloat-abi setting it is. But the
* emulation code in libgcc.a has only one rounding mode (round to
* nearest even in this case) and ignores the user rounding mode setting
* in hardware. As a result setting rounding modes in hardware won't
* give correct rounding results for type covert from 64-bit integer to
* float using GCC for ARM compiler so for testing different rounding
* modes, we need to use alternative reference function. ARM64 does have
* an instruction, however we cannot guarantee the compiler will use it.
* On all ARM architechures use emulation to calculate reference.*/
switch (round)
{
/* conversions to floating-point type use the current rounding mode.
* The only default floating-point rounding mode supported is round
* to nearest even i.e the current rounding mode will be _rte for
* floating-point types. */
case kDefaultRoundingMode: qcom_rm = qcomRTE; break;
case kRoundToNearestEven: qcom_rm = qcomRTE; break;
case kRoundUp: qcom_rm = qcomRTP; break;
case kRoundDown: qcom_rm = qcomRTN; break;
case kRoundTowardZero: qcom_rm = qcomRTZ; break;
default:
vlog_error("ERROR: undefined rounding mode %d\n", round);
break;
}
qcom_sat = info->sat;
#endif
RoundingMode oldRound;
if (outType == khalf)
{
oldRound = set_round(kRoundToNearestEven, kfloat);
switch (round)
{
default:
case kDefaultRoundingMode:
DataInitInfo::halfRoundingMode =
ConversionsTest::defaultHalfRoundingMode;
break;
case kRoundToNearestEven:
DataInitInfo::halfRoundingMode = CL_HALF_RTE;
break;
case kRoundUp:
DataInitInfo::halfRoundingMode = CL_HALF_RTP;
break;
case kRoundDown:
DataInitInfo::halfRoundingMode = CL_HALF_RTN;
break;
case kRoundTowardZero:
DataInitInfo::halfRoundingMode = CL_HALF_RTZ;
break;
}
}
else
oldRound = set_round(round, outType);
if (info->sat)
info->conv_array_sat(d, s, count);
else
info->conv_array(d, s, count);
set_round(oldRound, outType);
// Decide if we allow a zero result in addition to the correctly rounded
// one
memset(a, 0, count);
if (gForceFTZ && (inType == kfloat || outType == kfloat))
{
info->set_allow_zero_array((uint8_t *)a, d, s, count);
}
if (gForceHalfFTZ && (inType == khalf || outType == khalf))
{
info->set_allow_zero_array((uint8_t *)a, d, s, count);
}
}
else
{
// Copy the input to the reference
memcpy(d, s, info->size * gTypeSizes[inType]);
}
// Patch up NaNs conversions to integer to zero -- these can be converted to
// any integer
FixNanConversions(outType, inType, d, count, s);
return CL_SUCCESS;
}
// Note: not called reentrantly
void WriteInputBufferComplete(void *data)
{
cl_int status;
WriteInputBufferInfo *info = (WriteInputBufferInfo *)data;
cl_uint count = info->count;
int vectorSize;
info->barrierCount = gMaxVectorSize - gMinVectorSize;
// now that we know that the write buffer is complete, enqueue callbacks to
// wait for the main thread to finish calculating the reference results.
for (vectorSize = gMinVectorSize; vectorSize < gMaxVectorSize; vectorSize++)
{
size_t workItemCount =
(count + vectorSizes[vectorSize] - 1) / (vectorSizes[vectorSize]);
if ((status = conv_test::RunKernel(info->calcInfo[vectorSize]->kernel,
gInBuffer, gOutBuffers[vectorSize],
workItemCount)))
{
gFailCount++;
return;
}
info->calcInfo[vectorSize]->p = clEnqueueMapBuffer(
gQueue, gOutBuffers[vectorSize], CL_TRUE,
CL_MAP_READ | CL_MAP_WRITE, 0, count * gTypeSizes[info->outType], 0,
NULL, NULL, &status);
{
if (status)
{
vlog_error("ERROR: WriteInputBufferComplete calback failed "
"with status: %d\n",
status);
gFailCount++;
return;
}
}
}
for (vectorSize = gMinVectorSize; vectorSize < gMaxVectorSize; vectorSize++)
{
MapResultValuesComplete(info->calcInfo[vectorSize]);
}
// Make sure the work starts moving -- otherwise we may deadlock
if ((status = clFlush(gQueue)))
{
vlog_error(
"ERROR: WriteInputBufferComplete calback failed with status: %d\n",
status);
gFailCount++;
return;
}
// e was already released by the main thread. It should be destroyed
// automatically soon after we exit.
}
cl_program MakeProgram(Type outType, Type inType, SaturationMode sat,
RoundingMode round, int vectorSize, cl_kernel *outKernel)
{
cl_program program;
char testName[256];
int error = 0;
std::ostringstream source;
if (outType == kdouble || inType == kdouble)
source << "#pragma OPENCL EXTENSION cl_khr_fp64 : enable\n";
if (outType == khalf || inType == khalf)
source << "#pragma OPENCL EXTENSION cl_khr_fp16 : enable\n";
// Create the program. This is a bit complicated because we are trying to
// avoid byte and short stores.
if (0 == vectorSize)
{
// Create the type names.
char inName[32];
char outName[32];
strncpy(inName, gTypeNames[inType], sizeof(inName));
inName[sizeof(inName) - 1] = '\0';
strncpy(outName, gTypeNames[outType], sizeof(outName));
outName[sizeof(outName) - 1] = '\0';
sprintf(testName, "test_implicit_%s_%s", outName, inName);
source << "__kernel void " << testName << "( __global " << inName
<< " *src, __global " << outName << " *dest )\n";
source << "{\n";
source << " size_t i = get_global_id(0);\n";
source << " dest[i] = src[i];\n";
source << "}\n";
vlog("Building implicit %s -> %s conversion test\n", gTypeNames[inType],
gTypeNames[outType]);
fflush(stdout);
}
else
{
int vectorSizetmp = vectorSizes[vectorSize];
// Create the type names.
char convertString[128];
char inName[32];
char outName[32];
switch (vectorSizetmp)
{
case 1:
strncpy(inName, gTypeNames[inType], sizeof(inName) - 1);
inName[sizeof(inName) - 1] = '\0';
strncpy(outName, gTypeNames[outType], sizeof(outName) - 1);
outName[sizeof(outName) - 1] = '\0';
snprintf(convertString, sizeof(convertString), "convert_%s%s%s",
outName, gSaturationNames[sat],
gRoundingModeNames[round]);
snprintf(testName, 256, "test_%s_%s", convertString, inName);
vlog("Building %s( %s ) test\n", convertString, inName);
break;
case 3:
strncpy(inName, gTypeNames[inType], sizeof(inName) - 1);
inName[sizeof(inName) - 1] = '\0';
strncpy(outName, gTypeNames[outType], sizeof(outName) - 1);
outName[sizeof(outName) - 1] = '\0';
snprintf(convertString, sizeof(convertString),
"convert_%s3%s%s", outName, gSaturationNames[sat],
gRoundingModeNames[round]);
snprintf(testName, 256, "test_%s_%s3", convertString, inName);
vlog("Building %s( %s3 ) test\n", convertString, inName);
break;
default:
snprintf(inName, sizeof(inName), "%s%d", gTypeNames[inType],
vectorSizetmp);
snprintf(outName, sizeof(outName), "%s%d", gTypeNames[outType],
vectorSizetmp);
snprintf(convertString, sizeof(convertString), "convert_%s%s%s",
outName, gSaturationNames[sat],
gRoundingModeNames[round]);
snprintf(testName, 256, "test_%s_%s", convertString, inName);
vlog("Building %s( %s ) test\n", convertString, inName);
break;
}
fflush(stdout);
if (vectorSizetmp == 3)
{
source << "__kernel void " << testName << "( __global " << inName
<< " *src, __global " << outName << " *dest )\n";
source << "{\n";
source << " size_t i = get_global_id(0);\n";
source << " if( i + 1 < get_global_size(0))\n";
source << " vstore3( " << convertString
<< "( vload3( i, src)), i, dest );\n";
source << " else\n";
source << " {\n";
source << " " << inName << "3 in;\n";
source << " " << outName << "3 out;\n";
source << " if( 0 == (i & 1) )\n";
source << " in.y = src[3*i+1];\n";
source << " in.x = src[3*i];\n";
source << " out = " << convertString << "( in ); \n";
source << " dest[3*i] = out.x;\n";
source << " if( 0 == (i & 1) )\n";
source << " dest[3*i+1] = out.y;\n";
source << " }\n";
source << "}\n";
}
else
{
source << "__kernel void " << testName << "( __global " << inName
<< " *src, __global " << outName << " *dest )\n";
source << "{\n";
source << " size_t i = get_global_id(0);\n";
source << " dest[i] = " << convertString << "( src[i] );\n";
source << "}\n";
}
}
*outKernel = NULL;
const char *flags = NULL;
if ((gForceFTZ && (inType == kfloat || outType == kfloat))
|| (gForceHalfFTZ && (inType == khalf || outType == khalf)))
{
flags = "-cl-denorms-are-zero";
}
// build it
std::string sourceString = source.str();
const char *programSource = sourceString.c_str();
error = create_single_kernel_helper(gContext, &program, outKernel, 1,
&programSource, testName, flags);
if (error)
{
vlog_error("Failed to build kernel/program (err = %d).\n", error);
return NULL;
}
return program;
}
//
int RunKernel(cl_kernel kernel, void *inBuf, void *outBuf, size_t blockCount)
{
// The global dimensions are just the blockCount to execute since we haven't
// set up multiple queues for multiple devices.
int error;
error = clSetKernelArg(kernel, 0, sizeof(inBuf), &inBuf);
error |= clSetKernelArg(kernel, 1, sizeof(outBuf), &outBuf);
if (error)
{
vlog_error("FAILED -- could not set kernel args (%d)\n", error);
return error;
}
if ((error = clEnqueueNDRangeKernel(gQueue, kernel, 1, NULL, &blockCount,
NULL, 0, NULL, NULL)))
{
vlog_error("FAILED -- could not execute kernel (%d)\n", error);
return error;
}
return 0;
}
int GetTestCase(const char *name, Type *outType, Type *inType,
SaturationMode *sat, RoundingMode *round)
{
int i;
// Find the return type
for (i = 0; i < kTypeCount; i++)
if (name == strstr(name, gTypeNames[i]))
{
*outType = (Type)i;
name += strlen(gTypeNames[i]);
break;
}
if (i == kTypeCount) return -1;
// Check to see if _sat appears next
*sat = (SaturationMode)0;
for (i = 1; i < kSaturationModeCount; i++)
if (name == strstr(name, gSaturationNames[i]))
{
*sat = (SaturationMode)i;
name += strlen(gSaturationNames[i]);
break;
}
*round = (RoundingMode)0;
for (i = 1; i < kRoundingModeCount; i++)
if (name == strstr(name, gRoundingModeNames[i]))
{
*round = (RoundingMode)i;
name += strlen(gRoundingModeNames[i]);
break;
}
if (*name != '_') return -2;
name++;
for (i = 0; i < kTypeCount; i++)
if (name == strstr(name, gTypeNames[i]))
{
*inType = (Type)i;
name += strlen(gTypeNames[i]);
break;
}
if (i == kTypeCount) return -3;
if (*name != '\0') return -4;
return 0;
}
} // namespace conv_test
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