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gerrit-public.fairphone.software / platform / external / vulkan-validation-layers / 998c2acfdbf319a8879fc5e3f8d38350fd5b9937 / . / tests / blit_tests.cpp
blob: 871ee49226250f9511caea1a7b1485618eed2887 [file] [log] [blame]
// XGL tests
//
// Copyright (C) 2014 LunarG, Inc.
//
// 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.
// Blit (copy, clear, and resolve) tests
#include <set>
#include <utility>
#include <vector>
#include "gtest/gtest.h"
#include "xgl.h"
#define ARRAY_SIZE(a) (sizeof(a) / sizeof(a[0]))
namespace xgl_testing {
class Buffer;
class CmdBuffer;
class Device;
class Image;
XGL_SIZE get_format_size(XGL_FORMAT format);
XGL_EXTENT3D get_mip_level_extent(const XGL_EXTENT3D &extent, XGL_UINT mip_level);
class Environment : public ::testing::Environment {
public:
Environment();
bool parse_args(int argc, char **argv);
virtual void SetUp();
virtual void TearDown();
const std::vector<Device *> &devices() { return devs_; }
Device &default_device() { return *(devs_[default_dev_]); }
private:
XGL_APPLICATION_INFO app_;
int default_dev_;
std::vector<Device *> devs_;
};
class Gpu {
public:
explicit Gpu(XGL_PHYSICAL_GPU gpu) : gpu_(gpu) {}
bool init();
XGL_PHYSICAL_GPU obj() const { return gpu_; }
const XGL_PHYSICAL_GPU_PROPERTIES &properties() const { return props_; };
const XGL_PHYSICAL_GPU_PERFORMANCE &performance() const { return perf_; };
const XGL_PHYSICAL_GPU_MEMORY_PROPERTIES &memory_properties() const { return mem_props_; };
const std::vector<XGL_PHYSICAL_GPU_QUEUE_PROPERTIES> &queue_properties() const { return queue_props_; }
const std::vector<const XGL_CHAR *> &extensions() const { return exts_; }
private:
void init_exts();
XGL_PHYSICAL_GPU gpu_;
XGL_PHYSICAL_GPU_PROPERTIES props_;
XGL_PHYSICAL_GPU_PERFORMANCE perf_;
XGL_PHYSICAL_GPU_MEMORY_PROPERTIES mem_props_;
std::vector<XGL_PHYSICAL_GPU_QUEUE_PROPERTIES> queue_props_;
std::vector<const XGL_CHAR *> exts_;
};
class Device {
public:
explicit Device(XGL_PHYSICAL_GPU gpu) : gpu_(gpu), dev_(XGL_NULL_HANDLE) {}
~Device();
bool init();
XGL_DEVICE obj() const { return dev_; }
XGL_PHYSICAL_GPU gpu() const { return gpu_.obj(); }
XGL_QUEUE queue(XGL_QUEUE_TYPE type, XGL_UINT idx) const;
const std::vector<XGL_MEMORY_HEAP_PROPERTIES> &heap_properties() const { return heap_props_; }
struct Format {
XGL_FORMAT format;
XGL_IMAGE_TILING tiling;
XGL_FLAGS features;
};
const std::vector<Format> &formats() const { return formats_; }
bool submit(XGL_QUEUE queue, const CmdBuffer &cmd, XGL_FENCE fence);
bool wait(XGL_QUEUE queue) { return (xglQueueWaitIdle(queue) == XGL_SUCCESS); }
bool wait() { return (xglDeviceWaitIdle(dev_) == XGL_SUCCESS); }
private:
Device(const Device &);
Device &operator=(const Device &);
void init_queues();
void init_heap_props();
void init_formats();
Gpu gpu_;
XGL_DEVICE dev_;
std::vector<XGL_QUEUE> graphics_queues_;
std::vector<XGL_QUEUE> compute_queues_;
std::vector<XGL_QUEUE> dma_queues_;
std::vector<XGL_MEMORY_HEAP_PROPERTIES> heap_props_;
std::vector<Format> formats_;
};
class Object {
public:
const XGL_MEMORY_REQUIREMENTS &memory_requirements() const { return mem_reqs_; }
bool bind_memory(XGL_GPU_MEMORY mem, XGL_GPU_SIZE offset);
XGL_GPU_MEMORY alloc_memory(const Device &dev);
XGL_GPU_MEMORY bound_memory() const { return bound_mem_; }
protected:
Object() : obj_(XGL_NULL_HANDLE), bound_mem_(XGL_NULL_HANDLE) {}
~Object();
bool init(XGL_OBJECT obj);
private:
Object(const Object &);
Object &operator=(const Object &);
XGL_OBJECT obj_;
XGL_MEMORY_REQUIREMENTS mem_reqs_;
protected:
// not private because of Buffer, which is not an XGL_OBJECT yet
XGL_GPU_MEMORY bound_mem_;
};
class CmdBuffer : public Object {
public:
CmdBuffer() : cmd_(XGL_NULL_HANDLE) {}
bool init(const Device &dev, const XGL_CMD_BUFFER_CREATE_INFO &info);
bool init(const Device &dev);
XGL_CMD_BUFFER obj() const { return cmd_; }
void add_memory_ref(const Object &obj, XGL_FLAGS flags);
void clear_memory_refs() { mem_refs_.clear(); }
std::vector<XGL_MEMORY_REF> memory_refs() const
{
return std::vector<XGL_MEMORY_REF>(mem_refs_.begin(), mem_refs_.end());
}
bool begin(XGL_FLAGS flags);
bool begin();
bool end();
private:
class mem_ref_compare {
public:
bool operator()(const XGL_MEMORY_REF &a, const XGL_MEMORY_REF &b) const
{
return (a.mem < b.mem);
}
};
XGL_CMD_BUFFER_CREATE_INFO info_;
XGL_CMD_BUFFER cmd_;
std::set<XGL_MEMORY_REF, mem_ref_compare> mem_refs_;
};
class Buffer : public Object {
public:
Buffer() : mem_(XGL_NULL_HANDLE) {}
~Buffer();
bool init(const Device &dev, const XGL_MEMORY_ALLOC_INFO &info);
bool init(const Device &dev, XGL_GPU_SIZE size);
XGL_GPU_MEMORY obj() const { return mem_; }
XGL_GPU_SIZE size() const { return info_.allocationSize; }
XGL_MEMORY_STATE_TRANSITION prepare(XGL_MEMORY_STATE old_state, XGL_MEMORY_STATE new_state,
XGL_GPU_SIZE offset, XGL_GPU_SIZE size)
{
XGL_MEMORY_STATE_TRANSITION transition = {};
transition.sType = XGL_STRUCTURE_TYPE_MEMORY_STATE_TRANSITION;
transition.mem = mem_;
transition.oldState = old_state;
transition.newState = new_state;
transition.offset = offset;
transition.regionSize = size;
return transition;
}
void *map();
void unmap();
private:
XGL_MEMORY_ALLOC_INFO info_;
XGL_GPU_MEMORY mem_;
};
class Image : public Object {
public:
Image() : features_(0), img_(XGL_NULL_HANDLE), mem_(XGL_NULL_HANDLE) {}
~Image();
bool init(const Device &dev, const XGL_IMAGE_CREATE_INFO &info);
static XGL_IMAGE_CREATE_INFO create_info()
{
XGL_IMAGE_CREATE_INFO info = {};
info.sType = XGL_STRUCTURE_TYPE_IMAGE_CREATE_INFO;
info.extent.width = 1;
info.extent.height = 1;
info.extent.depth = 1;
info.mipLevels = 1;
info.arraySize = 1;
info.samples = 1;
return info;
}
static XGL_IMAGE_SUBRESOURCE subresource(XGL_IMAGE_ASPECT aspect, XGL_UINT mip_level, XGL_UINT array_slice)
{
XGL_IMAGE_SUBRESOURCE subres = {};
subres.aspect = aspect;
subres.mipLevel = mip_level;
subres.arraySlice = array_slice;
return subres;
}
static XGL_IMAGE_SUBRESOURCE subresource(const XGL_IMAGE_SUBRESOURCE_RANGE &range,
XGL_UINT mip_level, XGL_UINT array_slice)
{
return subresource(range.aspect, range.baseMipLevel + mip_level, range.baseArraySlice + array_slice);
}
static XGL_IMAGE_SUBRESOURCE_RANGE subresource_range(XGL_IMAGE_ASPECT aspect,
XGL_UINT base_mip_level, XGL_UINT mip_levels,
XGL_UINT base_array_slice, XGL_UINT array_size)
{
XGL_IMAGE_SUBRESOURCE_RANGE range = {};
range.aspect = aspect;
range.baseMipLevel = base_mip_level;
range.mipLevels = mip_levels;
range.baseArraySlice = base_array_slice;
range.arraySize = array_size;
return range;
}
static XGL_IMAGE_SUBRESOURCE_RANGE subresource_range(XGL_IMAGE_ASPECT aspect,
const XGL_IMAGE_CREATE_INFO &info)
{
return subresource_range(aspect, 0, info.mipLevels, 0, info.arraySize);
}
static XGL_IMAGE_SUBRESOURCE_RANGE subresource_range(const XGL_IMAGE_SUBRESOURCE &subres)
{
return subresource_range(subres.aspect, subres.mipLevel, 1, subres.arraySlice, 1);
}
XGL_IMAGE obj() const { return img_; }
bool copyable() const { return (features_ & XGL_FORMAT_IMAGE_COPY_BIT); }
bool transparent() const;
XGL_EXTENT3D extent(XGL_UINT mip_level) const { return get_mip_level_extent(info_.extent, mip_level); }
XGL_EXTENT3D extent() const { return info_.extent; }
XGL_IMAGE_SUBRESOURCE_RANGE subresource_range(XGL_IMAGE_ASPECT aspect) const
{
return subresource_range(aspect, info_);
}
XGL_SUBRESOURCE_LAYOUT subresource_layout(const XGL_IMAGE_SUBRESOURCE &subres) const;
XGL_IMAGE_STATE_TRANSITION prepare(XGL_IMAGE_STATE old_state, XGL_IMAGE_STATE new_state,
const XGL_IMAGE_SUBRESOURCE_RANGE &range) const
{
XGL_IMAGE_STATE_TRANSITION transition = {};
transition.image = img_;
transition.oldState = old_state;
transition.newState = new_state;
transition.subresourceRange = range;
return transition;
}
void *map() const;
void unmap() const;
private:
XGL_IMAGE_CREATE_INFO info_;
XGL_FLAGS features_;
XGL_IMAGE img_;
XGL_GPU_MEMORY mem_;
};
class ImageChecker {
public:
explicit ImageChecker(const XGL_IMAGE_CREATE_INFO &info, const std::vector<XGL_MEMORY_IMAGE_COPY> &regions)
: info_(info), regions_(regions), pattern_(HASH) {}
explicit ImageChecker(const XGL_IMAGE_CREATE_INFO &info, const std::vector<XGL_IMAGE_SUBRESOURCE_RANGE> &ranges);
explicit ImageChecker(const XGL_IMAGE_CREATE_INFO &info);
void set_solid_pattern(const std::vector<uint8_t> &solid);
XGL_GPU_SIZE buffer_size() const;
bool fill(Buffer &buf) const { return walk(FILL, buf); }
bool fill(Image &img) const { return walk(FILL, img); }
bool check(Buffer &buf) const { return walk(CHECK, buf); }
bool check(Image &img) const { return walk(CHECK, img); }
const std::vector<XGL_MEMORY_IMAGE_COPY> &regions() const { return regions_; }
static void hash_salt_generate() { hash_salt_++; }
private:
enum Action {
FILL,
CHECK,
};
enum Pattern {
HASH,
SOLID,
};
XGL_SIZE buffer_cpp() const;
XGL_SUBRESOURCE_LAYOUT buffer_layout(const XGL_MEMORY_IMAGE_COPY &region) const;
bool walk(Action action, Buffer &buf) const;
bool walk(Action action, Image &img) const;
bool walk_region(Action action, const XGL_MEMORY_IMAGE_COPY &region, const XGL_SUBRESOURCE_LAYOUT &layout, void *data) const;
std::vector<uint8_t> pattern_hash(const XGL_IMAGE_SUBRESOURCE &subres, const XGL_OFFSET3D &offset) const;
static uint32_t hash_salt_;
XGL_IMAGE_CREATE_INFO info_;
std::vector<XGL_MEMORY_IMAGE_COPY> regions_;
Pattern pattern_;
std::vector<uint8_t> pattern_solid_;
};
Environment::Environment() :
default_dev_(0)
{
app_.sType = XGL_STRUCTURE_TYPE_APPLICATION_INFO;
app_.pAppName = (const XGL_CHAR *) "xgl_testing";
app_.appVersion = 1;
app_.pEngineName = (const XGL_CHAR *) "xgl_testing";
app_.engineVersion = 1;
app_.apiVersion = XGL_MAKE_VERSION(0, 22, 0);
}
bool Environment::parse_args(int argc, char **argv)
{
int i;
for (i = 1; i < argc; i++) {
#define ARG(name) (strcmp(argv[i], name) == 0)
#define ARG_P(name) (i < argc - 1 && ARG(name))
if (ARG_P("--gpu")) {
default_dev_ = atoi(argv[++i]);
} else {
break;
}
#undef ARG
#undef ARG_P
}
if (i < argc) {
std::cout <<
"invalid argument: " << argv[i] << "\n\n" <<
"Usage: " << argv[0] << " <options>\n\n" <<
"Options:\n"
" --gpu <n> Use GPU<n> as the default GPU\n";
return false;
}
return true;
}
void Environment::SetUp()
{
XGL_PHYSICAL_GPU gpus[XGL_MAX_PHYSICAL_GPUS];
XGL_UINT count;
XGL_RESULT err;
err = xglInitAndEnumerateGpus(&app_, NULL, ARRAY_SIZE(gpus), &count, gpus);
ASSERT_EQ(XGL_SUCCESS, err);
ASSERT_GT(count, default_dev_);
devs_.reserve(count);
for (XGL_UINT i = 0; i < count; i++) {
devs_.push_back(new Device(gpus[i]));
if (i == default_dev_) {
const bool created = devs_[i]->init();
ASSERT_EQ(true, created);
}
}
}
void Environment::TearDown()
{
// destroy devices first
for (std::vector<Device *>::iterator it = devs_.begin(); it != devs_.end(); it++)
delete *it;
devs_.clear();
XGL_UINT dummy_count;
xglInitAndEnumerateGpus(&app_, NULL, 0, &dummy_count, NULL);
}
bool Gpu::init()
{
XGL_SIZE size;
XGL_RESULT err;
size = sizeof(props_);
err = xglGetGpuInfo(gpu_, XGL_INFO_TYPE_PHYSICAL_GPU_PROPERTIES, &size, &props_);
if (err != XGL_SUCCESS || size != sizeof(props_))
return false;
size = sizeof(perf_);
err = xglGetGpuInfo(gpu_, XGL_INFO_TYPE_PHYSICAL_GPU_PERFORMANCE, &size, &perf_);
if (err != XGL_SUCCESS || size != sizeof(perf_))
return false;
size = sizeof(mem_props_);
err = xglGetGpuInfo(gpu_, XGL_INFO_TYPE_PHYSICAL_GPU_MEMORY_PROPERTIES, &size, &mem_props_);
if (err != XGL_SUCCESS || size != sizeof(mem_props_))
return false;
err = xglGetGpuInfo(gpu_, XGL_INFO_TYPE_PHYSICAL_GPU_QUEUE_PROPERTIES, &size, NULL);
if (err != XGL_SUCCESS || size % sizeof(queue_props_[0]))
return false;
queue_props_.resize(size / sizeof(queue_props_[0]));
err = xglGetGpuInfo(gpu_, XGL_INFO_TYPE_PHYSICAL_GPU_QUEUE_PROPERTIES, &size, &queue_props_[0]);
if (err != XGL_SUCCESS || size != queue_props_.size() * sizeof(queue_props_[0]))
return false;
init_exts();
return true;
}
void Gpu::init_exts()
{
static const XGL_CHAR *known_exts[] = {
(const XGL_CHAR *) "XGL_WSI_X11",
};
XGL_RESULT err;
for (int i; i < ARRAY_SIZE(known_exts); i++) {
err = xglGetExtensionSupport(gpu_, known_exts[i]);
if (err == XGL_SUCCESS)
exts_.push_back(known_exts[i]);
}
}
Device::~Device()
{
if (dev_ != XGL_NULL_HANDLE)
xglDestroyDevice(dev_);
}
bool Device::init()
{
XGL_RESULT err;
if (dev_ != XGL_NULL_HANDLE)
return true;
if (!gpu_.init())
return false;
// request all queues
std::vector<XGL_DEVICE_QUEUE_CREATE_INFO> queue_info;
queue_info.reserve(gpu_.queue_properties().size());
for (XGL_UINT i = 0; i < gpu_.queue_properties().size(); i++) {
XGL_DEVICE_QUEUE_CREATE_INFO qi = {};
qi.queueNodeIndex = i;
qi.queueCount = gpu_.queue_properties()[i].queueCount;
queue_info.push_back(qi);
}
XGL_DEVICE_CREATE_INFO dev_info = {};
dev_info.sType = XGL_STRUCTURE_TYPE_DEVICE_CREATE_INFO;
dev_info.queueRecordCount = queue_info.size();
dev_info.pRequestedQueues = &queue_info[0];
dev_info.extensionCount = gpu_.extensions().size();
dev_info.ppEnabledExtensionNames = &gpu_.extensions()[0];
dev_info.maxValidationLevel = XGL_VALIDATION_LEVEL_END_RANGE;
dev_info.flags = XGL_DEVICE_CREATE_VALIDATION_BIT;
err = xglCreateDevice(gpu_.obj(), &dev_info, &dev_);
if (err != XGL_SUCCESS)
return false;
init_queues();
init_heap_props();
init_formats();
if (graphics_queues_.empty() || heap_props_.empty() || formats_.empty()) {
xglDestroyDevice(dev_);
dev_ = XGL_NULL_HANDLE;
return false;
}
return true;
}
void Device::init_queues()
{
const struct {
XGL_QUEUE_TYPE type;
std::vector<XGL_QUEUE> &queues;
} known_queues[] = {
{ XGL_QUEUE_TYPE_GRAPHICS, graphics_queues_ },
{ XGL_QUEUE_TYPE_COMPUTE, compute_queues_ },
{ XGL_QUEUE_TYPE_DMA, dma_queues_ },
};
XGL_RESULT err;
for (int i = 0; i < ARRAY_SIZE(known_queues); i++) {
XGL_UINT idx = 0;
while (true) {
XGL_QUEUE queue;
err = xglGetDeviceQueue(dev_, known_queues[i].type, idx++, &queue);
if (err != XGL_SUCCESS)
break;
known_queues[i].queues.push_back(queue);
}
}
}
void Device::init_heap_props()
{
XGL_UINT count;
XGL_RESULT err;
err = xglGetMemoryHeapCount(dev_, &count);
if (err != XGL_SUCCESS || !count)
return;
heap_props_.reserve(count);
for (XGL_UINT i = 0; i < count; i++) {
XGL_MEMORY_HEAP_PROPERTIES props;
XGL_SIZE size = sizeof(props);
err = xglGetMemoryHeapInfo(dev_, i, XGL_INFO_TYPE_MEMORY_HEAP_PROPERTIES, &size, &props);
if (err == XGL_SUCCESS && size == sizeof(props))
heap_props_.push_back(props);
}
}
void Device::init_formats()
{
XGL_RESULT err;
for (int ch = XGL_CH_FMT_UNDEFINED; ch <= XGL_MAX_CH_FMT; ch++) {
for (int num = XGL_NUM_FMT_UNDEFINED; num <= XGL_MAX_NUM_FMT; num++) {
const XGL_FORMAT fmt = { static_cast<XGL_CHANNEL_FORMAT>(ch),
static_cast<XGL_NUM_FORMAT>(num) };
XGL_FORMAT_PROPERTIES props;
XGL_SIZE size = sizeof(props);
err = xglGetFormatInfo(dev_, fmt, XGL_INFO_TYPE_FORMAT_PROPERTIES, &size, &props);
if (err != XGL_SUCCESS || size != sizeof(props))
continue;
if (props.linearTilingFeatures) {
const Format tmp = { fmt, XGL_LINEAR_TILING, props.linearTilingFeatures };
formats_.push_back(tmp);
}
if (props.optimalTilingFeatures) {
const Format tmp = { fmt, XGL_OPTIMAL_TILING, props.optimalTilingFeatures };
formats_.push_back(tmp);
}
}
}
}
XGL_QUEUE Device::queue(XGL_QUEUE_TYPE type, XGL_UINT idx) const
{
switch (type) {
case XGL_QUEUE_TYPE_GRAPHICS: return graphics_queues_[idx];
case XGL_QUEUE_TYPE_COMPUTE: return compute_queues_[idx];
case XGL_QUEUE_TYPE_DMA: return dma_queues_[idx];
default: return XGL_NULL_HANDLE;
}
}
bool Device::submit(XGL_QUEUE queue, const CmdBuffer &cmd, XGL_FENCE fence)
{
XGL_CMD_BUFFER obj = cmd.obj();
const std::vector<XGL_MEMORY_REF> refs = cmd.memory_refs();
return (xglQueueSubmit(queue, 1, &obj, refs.size(), &refs[0], fence) == XGL_SUCCESS);
}
Object::~Object()
{
if (obj_ != XGL_NULL_HANDLE) {
xglBindObjectMemory(obj_, XGL_NULL_HANDLE, 0);
xglDestroyObject(obj_);
}
}
bool Object::init(XGL_OBJECT obj)
{
XGL_RESULT err;
XGL_SIZE size = sizeof(mem_reqs_);
err = xglGetObjectInfo(obj, XGL_INFO_TYPE_MEMORY_REQUIREMENTS, &size, &mem_reqs_);
if (err != XGL_SUCCESS || size != sizeof(mem_reqs_))
return false;
obj_ = obj;
return true;
}
bool Object::bind_memory(XGL_GPU_MEMORY mem, XGL_GPU_SIZE offset)
{
if (xglBindObjectMemory(obj_, mem, offset) == XGL_SUCCESS) {
bound_mem_ = mem;
return true;
} else {
return false;
}
}
XGL_GPU_MEMORY Object::alloc_memory(const Device &dev)
{
if (!mem_reqs_.size)
return XGL_NULL_HANDLE;
XGL_MEMORY_ALLOC_INFO mem_alloc = {};
mem_alloc.sType = XGL_STRUCTURE_TYPE_MEMORY_ALLOC_INFO;
mem_alloc.allocationSize = mem_reqs_.size;
mem_alloc.alignment = mem_reqs_.alignment;
mem_alloc.heapCount = mem_reqs_.heapCount;
memcpy(mem_alloc.heaps, mem_reqs_.heaps,
sizeof(mem_reqs_.heaps[0]) * mem_reqs_.heapCount);
mem_alloc.memPriority = XGL_MEMORY_PRIORITY_NORMAL;
XGL_GPU_MEMORY mem;
XGL_RESULT err = xglAllocMemory(dev.obj(), &mem_alloc, &mem);
if (err != XGL_SUCCESS)
mem = XGL_NULL_HANDLE;
return mem;
}
bool CmdBuffer::init(const Device &dev, const XGL_CMD_BUFFER_CREATE_INFO &info)
{
info_ = info;
XGL_RESULT err = xglCreateCommandBuffer(dev.obj(), &info_, &cmd_);
if (err != XGL_SUCCESS)
return false;
return Object::init(cmd_);
}
bool CmdBuffer::init(const Device &dev)
{
XGL_CMD_BUFFER_CREATE_INFO info = {};
info.sType = XGL_STRUCTURE_TYPE_CMD_BUFFER_CREATE_INFO;
info.queueType = XGL_QUEUE_TYPE_GRAPHICS;
return init(dev, info);
}
void CmdBuffer::add_memory_ref(const Object &obj, XGL_FLAGS flags)
{
XGL_MEMORY_REF ref = {};
ref.mem = obj.bound_memory();
ref.flags = flags;
std::pair<std::set<XGL_MEMORY_REF>::iterator, bool> inserted = mem_refs_.insert(ref);
if (!inserted.second) {
const XGL_FLAGS prev_flags = (*inserted.first).flags;
if ((prev_flags & flags) != prev_flags) {
mem_refs_.erase(inserted.first);
mem_refs_.insert(ref);
}
}
}
bool CmdBuffer::begin(XGL_FLAGS flags)
{
return (xglBeginCommandBuffer(cmd_, flags) == XGL_SUCCESS);
}
bool CmdBuffer::begin()
{
return begin(XGL_CMD_BUFFER_OPTIMIZE_GPU_SMALL_BATCH_BIT |
XGL_CMD_BUFFER_OPTIMIZE_ONE_TIME_SUBMIT_BIT);
}
bool CmdBuffer::end()
{
return (xglEndCommandBuffer(cmd_) == XGL_SUCCESS);
}
Buffer::~Buffer()
{
if (mem_ != XGL_NULL_HANDLE)
xglFreeMemory(mem_);
}
bool Buffer::init(const Device &dev, const XGL_MEMORY_ALLOC_INFO &info)
{
info_ = info;
// cannot call Object::init()
if (xglAllocMemory(dev.obj(), &info_, &mem_) == XGL_SUCCESS) {
bound_mem_ = mem_;
return true;
} else {
return false;
}
}
bool Buffer::init(const Device &dev, XGL_GPU_SIZE size)
{
XGL_MEMORY_ALLOC_INFO info = {};
info.sType = XGL_STRUCTURE_TYPE_MEMORY_ALLOC_INFO;
info.allocationSize = size;
info.memPriority = XGL_MEMORY_PRIORITY_NORMAL;
// find a CPU visible heap
for (XGL_UINT id = 0; id < dev.heap_properties().size(); id++) {
const XGL_MEMORY_HEAP_PROPERTIES &heap = dev.heap_properties()[id];
if (heap.flags & XGL_MEMORY_HEAP_CPU_VISIBLE_BIT) {
info.heapCount = 1;
info.heaps[0] = id;
}
}
return (info.heapCount) ? init(dev, info) : false;
}
void *Buffer::map()
{
void *data;
return (xglMapMemory(mem_, 0, &data) == XGL_SUCCESS) ? data : NULL;
}
void Buffer::unmap()
{
xglUnmapMemory(mem_);
}
Image::~Image()
{
if (mem_ != XGL_NULL_HANDLE) {
xglBindObjectMemory(img_, XGL_NULL_HANDLE, 0);
xglFreeMemory(mem_);
}
}
bool Image::init(const Device &dev, const XGL_IMAGE_CREATE_INFO &info)
{
info_ = info;
for (std::vector<xgl_testing::Device::Format>::const_iterator it = dev.formats().begin();
it != dev.formats().end(); it++) {
if (!memcmp(&it->format, &info_.format, sizeof(info_.format)) && it->tiling == info_.tiling) {
features_ = it->features;
break;
}
}
XGL_RESULT err = xglCreateImage(dev.obj(), &info_, &img_);
if (err != XGL_SUCCESS)
return false;
if (!Object::init(img_))
return false;
mem_ = alloc_memory(dev);
if (mem_ == XGL_NULL_HANDLE || !bind_memory(mem_, 0))
return false;
return true;
}
bool Image::transparent() const
{
return (info_.tiling == XGL_LINEAR_TILING &&
info_.samples == 1 &&
!(info_.usage & (XGL_IMAGE_USAGE_COLOR_ATTACHMENT_BIT |
XGL_IMAGE_USAGE_DEPTH_STENCIL_BIT)));
}
XGL_SUBRESOURCE_LAYOUT Image::subresource_layout(const XGL_IMAGE_SUBRESOURCE &subres) const
{
XGL_SUBRESOURCE_LAYOUT layout;
XGL_SIZE size = sizeof(layout);
XGL_RESULT err = xglGetImageSubresourceInfo(img_, &subres,
XGL_INFO_TYPE_SUBRESOURCE_LAYOUT, &size, &layout);
if (err != XGL_SUCCESS || size != sizeof(layout))
memset(&layout, 0, sizeof(layout));
return layout;
}
void *Image::map() const
{
void *data;
return (transparent() && xglMapMemory(mem_, 0, &data) == XGL_SUCCESS) ? data : NULL;
}
void Image::unmap() const
{
xglUnmapMemory(mem_);
}
uint32_t ImageChecker::hash_salt_;
ImageChecker::ImageChecker(const XGL_IMAGE_CREATE_INFO &info)
: info_(info), regions_(), pattern_(HASH)
{
// create a region for every mip level in array slice 0
XGL_GPU_SIZE offset = 0;
for (XGL_UINT lv = 0; lv < info_.mipLevels; lv++) {
XGL_MEMORY_IMAGE_COPY region = {};
region.memOffset = offset;
region.imageSubresource.mipLevel = lv;
region.imageSubresource.arraySlice = 0;
region.imageExtent = get_mip_level_extent(info_.extent, lv);
if (info_.usage & XGL_IMAGE_USAGE_DEPTH_STENCIL_BIT) {
if (info_.format.channelFormat != XGL_CH_FMT_R8) {
region.imageSubresource.aspect = XGL_IMAGE_ASPECT_DEPTH;
regions_.push_back(region);
}
if (info_.format.channelFormat == XGL_CH_FMT_R16G8 ||
info_.format.channelFormat == XGL_CH_FMT_R32G8 ||
info_.format.channelFormat == XGL_CH_FMT_R8) {
region.imageSubresource.aspect = XGL_IMAGE_ASPECT_STENCIL;
regions_.push_back(region);
}
} else {
region.imageSubresource.aspect = XGL_IMAGE_ASPECT_COLOR;
regions_.push_back(region);
}
offset += buffer_layout(region).size;
}
// arraySize should be limited in our tests. If this proves to be an
// issue, we can store only the regions for array slice 0 and be smart.
if (info_.arraySize > 1) {
const XGL_GPU_SIZE slice_pitch = offset;
const XGL_UINT slice_region_count = regions_.size();
regions_.reserve(slice_region_count * info_.arraySize);
for (XGL_UINT slice = 1; slice < info_.arraySize; slice++) {
for (XGL_UINT i = 0; i < slice_region_count; i++) {
XGL_MEMORY_IMAGE_COPY region = regions_[i];
region.memOffset += slice_pitch * slice;
region.imageSubresource.arraySlice = slice;
regions_.push_back(region);
}
}
}
}
ImageChecker::ImageChecker(const XGL_IMAGE_CREATE_INFO &info, const std::vector<XGL_IMAGE_SUBRESOURCE_RANGE> &ranges)
: info_(info), regions_(), pattern_(HASH)
{
XGL_GPU_SIZE offset = 0;
for (std::vector<XGL_IMAGE_SUBRESOURCE_RANGE>::const_iterator it = ranges.begin();
it != ranges.end(); it++) {
for (XGL_UINT lv = 0; lv < it->mipLevels; lv++) {
for (XGL_UINT slice = 0; slice < it->arraySize; slice++) {
XGL_MEMORY_IMAGE_COPY region = {};
region.memOffset = offset;
region.imageSubresource = Image::subresource(*it, lv, slice);
region.imageExtent = get_mip_level_extent(info_.extent, lv);
regions_.push_back(region);
offset += buffer_layout(region).size;
}
}
}
}
void ImageChecker::set_solid_pattern(const std::vector<uint8_t> &solid)
{
pattern_ = SOLID;
pattern_solid_ = solid;
pattern_solid_.resize(buffer_cpp());
}
XGL_SIZE ImageChecker::buffer_cpp() const
{
return get_format_size(info_.format);
}
XGL_SUBRESOURCE_LAYOUT ImageChecker::buffer_layout(const XGL_MEMORY_IMAGE_COPY &region) const
{
XGL_SUBRESOURCE_LAYOUT layout = {};
layout.offset = region.memOffset;
layout.rowPitch = buffer_cpp() * region.imageExtent.width;
layout.depthPitch = layout.rowPitch * region.imageExtent.height;
layout.size = layout.depthPitch * region.imageExtent.depth;
return layout;
}
XGL_GPU_SIZE ImageChecker::buffer_size() const
{
XGL_GPU_SIZE size = 0;
for (std::vector<XGL_MEMORY_IMAGE_COPY>::const_iterator it = regions_.begin();
it != regions_.end(); it++) {
const XGL_SUBRESOURCE_LAYOUT layout = buffer_layout(*it);
if (size < layout.offset + layout.size)
size = layout.offset + layout.size;
}
return size;
}
bool ImageChecker::walk_region(Action action, const XGL_MEMORY_IMAGE_COPY &region,
const XGL_SUBRESOURCE_LAYOUT &layout, void *data) const
{
for (XGL_INT z = 0; z < region.imageExtent.depth; z++) {
for (XGL_INT y = 0; y < region.imageExtent.height; y++) {
for (XGL_INT x = 0; x < region.imageExtent.width; x++) {
uint8_t *dst = static_cast<uint8_t *>(data);
dst += layout.offset + layout.depthPitch * z +
layout.rowPitch * y + buffer_cpp() * x;
XGL_OFFSET3D offset = region.imageOffset;
offset.x += x;
offset.y += y;
offset.z += z;
const std::vector<uint8_t> &val = (pattern_ == HASH) ?
pattern_hash(region.imageSubresource, offset) :
pattern_solid_;
assert(val.size() == buffer_cpp());
if (action == FILL) {
memcpy(dst, &val[0], val.size());
} else {
for (int i = 0; i < val.size(); i++) {
EXPECT_EQ(val[i], dst[i]) <<
"Offset is: (" << x << ", " << y << ", " << z << ")";
if (val[i] != dst[i])
return false;
}
}
}
}
}
return true;
}
bool ImageChecker::walk(Action action, Buffer &buf) const
{
void *data = buf.map();
if (!data)
return false;
std::vector<XGL_MEMORY_IMAGE_COPY>::const_iterator it;
for (it = regions_.begin(); it != regions_.end(); it++) {
if (!walk_region(action, *it, buffer_layout(*it), data))
break;
}
buf.unmap();
return (it == regions_.end());
}
bool ImageChecker::walk(Action action, Image &img) const
{
void *data = img.map();
if (!data)
return false;
std::vector<XGL_MEMORY_IMAGE_COPY>::const_iterator it;
for (it = regions_.begin(); it != regions_.end(); it++) {
if (!walk_region(action, *it, img.subresource_layout(it->imageSubresource), data))
break;
}
img.unmap();
return (it == regions_.end());
}
std::vector<uint8_t> ImageChecker::pattern_hash(const XGL_IMAGE_SUBRESOURCE &subres, const XGL_OFFSET3D &offset) const
{
#define HASH_BYTE(val, b) static_cast<uint8_t>((static_cast<uint32_t>(val) >> (b * 8)) & 0xff)
#define HASH_BYTES(val) HASH_BYTE(val, 0), HASH_BYTE(val, 1), HASH_BYTE(val, 2), HASH_BYTE(val, 3)
const unsigned char input[] = {
HASH_BYTES(hash_salt_),
HASH_BYTES(subres.mipLevel),
HASH_BYTES(subres.arraySlice),
HASH_BYTES(offset.x),
HASH_BYTES(offset.y),
HASH_BYTES(offset.z),
};
unsigned long hash = 5381;
for (XGL_INT i = 0; i < ARRAY_SIZE(input); i++)
hash = ((hash << 5) + hash) + input[i];
const uint8_t output[4] = { HASH_BYTES(hash) };
#undef HASH_BYTES
#undef HASH_BYTE
std::vector<uint8_t> val(output, output + ARRAY_SIZE(output));
val.resize(buffer_cpp());
return val;
}
XGL_SIZE get_format_size(XGL_FORMAT format)
{
static const struct format_info {
XGL_SIZE size;
XGL_UINT channel_count;
} format_table[XGL_MAX_CH_FMT + 1] = {
[XGL_CH_FMT_UNDEFINED] = { 0, 0 },
[XGL_CH_FMT_R4G4] = { 1, 2 },
[XGL_CH_FMT_R4G4B4A4] = { 2, 4 },
[XGL_CH_FMT_R5G6B5] = { 2, 3 },
[XGL_CH_FMT_B5G6R5] = { 2, 3 },
[XGL_CH_FMT_R5G5B5A1] = { 2, 4 },
[XGL_CH_FMT_R8] = { 1, 1 },
[XGL_CH_FMT_R8G8] = { 2, 2 },
[XGL_CH_FMT_R8G8B8A8] = { 4, 4 },
[XGL_CH_FMT_B8G8R8A8] = { 4, 4 },
[XGL_CH_FMT_R10G11B11] = { 4, 3 },
[XGL_CH_FMT_R11G11B10] = { 4, 3 },
[XGL_CH_FMT_R10G10B10A2] = { 4, 4 },
[XGL_CH_FMT_R16] = { 2, 1 },
[XGL_CH_FMT_R16G16] = { 4, 2 },
[XGL_CH_FMT_R16G16B16A16] = { 8, 4 },
[XGL_CH_FMT_R32] = { 4, 1 },
[XGL_CH_FMT_R32G32] = { 8, 2 },
[XGL_CH_FMT_R32G32B32] = { 12, 3 },
[XGL_CH_FMT_R32G32B32A32] = { 16, 4 },
[XGL_CH_FMT_R16G8] = { 3, 2 },
[XGL_CH_FMT_R32G8] = { 5, 2 },
[XGL_CH_FMT_R9G9B9E5] = { 4, 3 },
[XGL_CH_FMT_BC1] = { 8, 4 },
[XGL_CH_FMT_BC2] = { 16, 4 },
[XGL_CH_FMT_BC3] = { 16, 4 },
[XGL_CH_FMT_BC4] = { 8, 4 },
[XGL_CH_FMT_BC5] = { 16, 4 },
[XGL_CH_FMT_BC6U] = { 16, 4 },
[XGL_CH_FMT_BC6S] = { 16, 4 },
[XGL_CH_FMT_BC7] = { 16, 4 },
};
return format_table[format.channelFormat].size;
}
XGL_EXTENT3D get_mip_level_extent(const XGL_EXTENT3D &extent, XGL_UINT mip_level)
{
const XGL_EXTENT3D ext = {
(extent.width >> mip_level) ? extent.width >> mip_level : 1,
(extent.height >> mip_level) ? extent.height >> mip_level : 1,
(extent.depth >> mip_level) ? extent.depth >> mip_level : 1,
};
return ext;
}
}; // namespace xgl_testing
namespace {
#define DO(action) ASSERT_EQ(true, action);
xgl_testing::Environment *environment;
class XglCmdBlitTest : public ::testing::Test {
protected:
XglCmdBlitTest() :
dev_(environment->default_device()),
queue_(dev_.queue(XGL_QUEUE_TYPE_GRAPHICS, 0)),
cmd_()
{
// make sure every test uses a different pattern
xgl_testing::ImageChecker::hash_salt_generate();
}
virtual void SetUp()
{
DO(cmd_.init(dev_));
}
virtual void TearDown()
{
}
bool submit_and_done()
{
const bool ret = (dev_.submit(queue_, cmd_, XGL_NULL_HANDLE) && dev_.wait(queue_));
cmd_.clear_memory_refs();
return ret;
}
xgl_testing::Device &dev_;
XGL_QUEUE queue_;
xgl_testing::CmdBuffer cmd_;
};
typedef XglCmdBlitTest XglCmdFillMemoryTest;
TEST_F(XglCmdFillMemoryTest, Basic)
{
xgl_testing::Buffer buf;
buf.init(dev_, 20);
cmd_.add_memory_ref(buf, 0);
cmd_.begin();
xglCmdFillMemory(cmd_.obj(), buf.obj(), 0, 4, 0x11111111);
xglCmdFillMemory(cmd_.obj(), buf.obj(), 4, 16, 0x22222222);
cmd_.end();
submit_and_done();
const uint32_t *data = static_cast<const uint32_t *>(buf.map());
EXPECT_EQ(0x11111111, data[0]);
EXPECT_EQ(0x22222222, data[1]);
EXPECT_EQ(0x22222222, data[2]);
EXPECT_EQ(0x22222222, data[3]);
EXPECT_EQ(0x22222222, data[4]);
buf.unmap();
}
TEST_F(XglCmdFillMemoryTest, Large)
{
const XGL_GPU_SIZE size = 32 * 1024 * 1024;
xgl_testing::Buffer buf;
buf.init(dev_, size);
cmd_.add_memory_ref(buf, 0);
cmd_.begin();
xglCmdFillMemory(cmd_.obj(), buf.obj(), 0, size / 2, 0x11111111);
xglCmdFillMemory(cmd_.obj(), buf.obj(), size / 2, size / 2, 0x22222222);
cmd_.end();
submit_and_done();
const uint32_t *data = static_cast<const uint32_t *>(buf.map());
XGL_GPU_SIZE offset;
for (offset = 0; offset < size / 2; offset += 4)
EXPECT_EQ(0x11111111, data[offset / 4]) << "Offset is: " << offset;
for (; offset < size; offset += 4)
EXPECT_EQ(0x22222222, data[offset / 4]) << "Offset is: " << offset;
buf.unmap();
}
TEST_F(XglCmdFillMemoryTest, Overlap)
{
xgl_testing::Buffer buf;
buf.init(dev_, 64);
cmd_.add_memory_ref(buf, 0);
cmd_.begin();
xglCmdFillMemory(cmd_.obj(), buf.obj(), 0, 48, 0x11111111);
xglCmdFillMemory(cmd_.obj(), buf.obj(), 32, 32, 0x22222222);
cmd_.end();
submit_and_done();
const uint32_t *data = static_cast<const uint32_t *>(buf.map());
XGL_GPU_SIZE offset;
for (offset = 0; offset < 32; offset += 4)
EXPECT_EQ(0x11111111, data[offset / 4]) << "Offset is: " << offset;
for (; offset < 64; offset += 4)
EXPECT_EQ(0x22222222, data[offset / 4]) << "Offset is: " << offset;
buf.unmap();
}
TEST_F(XglCmdFillMemoryTest, MultiAlignments)
{
xgl_testing::Buffer bufs[9];
XGL_GPU_SIZE size = 4;
cmd_.begin();
for (int i = 0; i < ARRAY_SIZE(bufs); i++) {
bufs[i].init(dev_, size);
cmd_.add_memory_ref(bufs[i], 0);
xglCmdFillMemory(cmd_.obj(), bufs[i].obj(), 0, size, 0x11111111);
size <<= 1;
}
cmd_.end();
submit_and_done();
size = 4;
for (int i = 0; i < ARRAY_SIZE(bufs); i++) {
const uint32_t *data = static_cast<const uint32_t *>(bufs[i].map());
XGL_GPU_SIZE offset;
for (offset = 0; offset < size; offset += 4)
EXPECT_EQ(0x11111111, data[offset / 4]) << "Buffser is: " << i << "\n" <<
"Offset is: " << offset;
bufs[i].unmap();
size <<= 1;
}
}
typedef XglCmdBlitTest XglCmdCopyMemoryTest;
TEST_F(XglCmdCopyMemoryTest, Basic)
{
xgl_testing::Buffer src, dst;
src.init(dev_, 4);
uint32_t *data = static_cast<uint32_t *>(src.map());
data[0] = 0x11111111;
src.unmap();
cmd_.add_memory_ref(src, XGL_MEMORY_REF_READ_ONLY_BIT);
dst.init(dev_, 4);
cmd_.add_memory_ref(dst, 0);
cmd_.begin();
XGL_MEMORY_COPY region = {};
region.copySize = 4;
xglCmdCopyMemory(cmd_.obj(), src.obj(), dst.obj(), 1, &region);
cmd_.end();
submit_and_done();
data = static_cast<uint32_t *>(dst.map());
EXPECT_EQ(0x11111111, data[0]);
dst.unmap();
}
TEST_F(XglCmdCopyMemoryTest, Large)
{
const XGL_GPU_SIZE size = 32 * 1024 * 1024;
xgl_testing::Buffer src, dst;
src.init(dev_, size);
uint32_t *data = static_cast<uint32_t *>(src.map());
XGL_GPU_SIZE offset;
for (offset = 0; offset < size; offset += 4)
data[offset / 4] = offset;
src.unmap();
cmd_.add_memory_ref(src, XGL_MEMORY_REF_READ_ONLY_BIT);
dst.init(dev_, size);
cmd_.add_memory_ref(dst, 0);
cmd_.begin();
XGL_MEMORY_COPY region = {};
region.copySize = size;
xglCmdCopyMemory(cmd_.obj(), src.obj(), dst.obj(), 1, &region);
cmd_.end();
submit_and_done();
data = static_cast<uint32_t *>(dst.map());
for (offset = 0; offset < size; offset += 4)
EXPECT_EQ(offset, data[offset / 4]);
dst.unmap();
}
TEST_F(XglCmdCopyMemoryTest, MultiAlignments)
{
const XGL_MEMORY_COPY regions[] = {
/* well aligned */
{ 0, 0, 256 },
{ 0, 256, 128 },
{ 0, 384, 64 },
{ 0, 448, 32 },
{ 0, 480, 16 },
{ 0, 496, 8 },
/* ill aligned */
{ 7, 510, 16 },
{ 16, 530, 13 },
{ 32, 551, 16 },
{ 45, 570, 15 },
{ 50, 590, 1 },
};
xgl_testing::Buffer src, dst;
src.init(dev_, 256);
uint8_t *data = static_cast<uint8_t *>(src.map());
for (int i = 0; i < 256; i++)
data[i] = i;
src.unmap();
cmd_.add_memory_ref(src, XGL_MEMORY_REF_READ_ONLY_BIT);
dst.init(dev_, 1024);
cmd_.add_memory_ref(dst, 0);
cmd_.begin();
xglCmdCopyMemory(cmd_.obj(), src.obj(), dst.obj(), ARRAY_SIZE(regions), regions);
cmd_.end();
submit_and_done();
data = static_cast<uint8_t *>(dst.map());
for (int i = 0; i < ARRAY_SIZE(regions); i++) {
const XGL_MEMORY_COPY &r = regions[i];
for (int j = 0; j < r.copySize; j++) {
EXPECT_EQ(r.srcOffset + j, data[r.destOffset + j]) <<
"Region is: " << i << "\n" <<
"Offset is: " << r.destOffset + j;
}
}
dst.unmap();
}
TEST_F(XglCmdCopyMemoryTest, RAWHazard)
{
xgl_testing::Buffer bufs[3];
for (int i = 0; i < ARRAY_SIZE(bufs); i++) {
bufs[i].init(dev_, 4);
cmd_.add_memory_ref(bufs[i], 0);
uint32_t *data = static_cast<uint32_t *>(bufs[i].map());
data[0] = 0x22222222 * (i + 1);
bufs[i].unmap();
}
cmd_.begin();
xglCmdFillMemory(cmd_.obj(), bufs[0].obj(), 0, 4, 0x11111111);
// is this necessary?
XGL_MEMORY_STATE_TRANSITION transition = bufs[0].prepare(
XGL_MEMORY_STATE_DATA_TRANSFER, XGL_MEMORY_STATE_DATA_TRANSFER, 0, 4);
xglCmdPrepareMemoryRegions(cmd_.obj(), 1, &transition);
XGL_MEMORY_COPY region = {};
region.copySize = 4;
xglCmdCopyMemory(cmd_.obj(), bufs[0].obj(), bufs[1].obj(), 1, &region);
// is this necessary?
transition = bufs[1].prepare(
XGL_MEMORY_STATE_DATA_TRANSFER, XGL_MEMORY_STATE_DATA_TRANSFER, 0, 4);
xglCmdPrepareMemoryRegions(cmd_.obj(), 1, &transition);
xglCmdCopyMemory(cmd_.obj(), bufs[1].obj(), bufs[2].obj(), 1, &region);
cmd_.end();
submit_and_done();
const uint32_t *data = static_cast<const uint32_t *>(bufs[2].map());
EXPECT_EQ(0x11111111, data[0]);
bufs[2].unmap();
}
class XglCmdBlitImageTest : public XglCmdBlitTest {
protected:
void init_test_formats(XGL_FLAGS features)
{
first_linear_format_.channelFormat = XGL_CH_FMT_UNDEFINED;
first_linear_format_.numericFormat = XGL_NUM_FMT_UNDEFINED;
first_optimal_format_.channelFormat = XGL_CH_FMT_UNDEFINED;
first_optimal_format_.numericFormat = XGL_NUM_FMT_UNDEFINED;
for (std::vector<xgl_testing::Device::Format>::const_iterator it = dev_.formats().begin();
it != dev_.formats().end(); it++) {
if (it->features & features) {
test_formats_.push_back(*it);
if (it->tiling == XGL_LINEAR_TILING &&
first_linear_format_.channelFormat == XGL_CH_FMT_UNDEFINED)
first_linear_format_ = it->format;
if (it->tiling == XGL_OPTIMAL_TILING &&
first_optimal_format_.channelFormat == XGL_CH_FMT_UNDEFINED)
first_optimal_format_ = it->format;
}
}
}
void fill_src(xgl_testing::Image &img, const xgl_testing::ImageChecker &checker)
{
if (img.transparent()) {
checker.fill(img);
return;
}
ASSERT_EQ(true, img.copyable());
xgl_testing::Buffer in_buf;
in_buf.init(dev_, checker.buffer_size());
checker.fill(in_buf);
cmd_.add_memory_ref(in_buf, XGL_MEMORY_REF_READ_ONLY_BIT);
cmd_.add_memory_ref(img, 0);
// copy in and tile
cmd_.begin();
xglCmdCopyMemoryToImage(cmd_.obj(), in_buf.obj(), img.obj(),
checker.regions().size(), &checker.regions()[0]);
cmd_.end();
submit_and_done();
}
void check_dst(xgl_testing::Image &img, const xgl_testing::ImageChecker &checker)
{
if (img.transparent()) {
DO(checker.check(img));
return;
}
ASSERT_EQ(true, img.copyable());
xgl_testing::Buffer out_buf;
out_buf.init(dev_, checker.buffer_size());
cmd_.add_memory_ref(img, XGL_MEMORY_REF_READ_ONLY_BIT);
cmd_.add_memory_ref(out_buf, 0);
// copy out and linearize
cmd_.begin();
xglCmdCopyImageToMemory(cmd_.obj(), img.obj(), out_buf.obj(),
checker.regions().size(), &checker.regions()[0]);
cmd_.end();
submit_and_done();
DO(checker.check(out_buf));
}
std::vector<xgl_testing::Device::Format> test_formats_;
XGL_FORMAT first_linear_format_;
XGL_FORMAT first_optimal_format_;
};
class XglCmdCopyMemoryToImageTest : public XglCmdBlitImageTest {
protected:
virtual void SetUp()
{
XglCmdBlitTest::SetUp();
init_test_formats(XGL_FORMAT_IMAGE_COPY_BIT);
ASSERT_NE(true, test_formats_.empty());
}
void test_copy_memory_to_image(const XGL_IMAGE_CREATE_INFO &img_info, const xgl_testing::ImageChecker &checker)
{
xgl_testing::Buffer buf;
xgl_testing::Image img;
buf.init(dev_, checker.buffer_size());
checker.fill(buf);
cmd_.add_memory_ref(buf, XGL_MEMORY_REF_READ_ONLY_BIT);
img.init(dev_, img_info);
cmd_.add_memory_ref(img, 0);
cmd_.begin();
xglCmdCopyMemoryToImage(cmd_.obj(), buf.obj(), img.obj(),
checker.regions().size(), &checker.regions()[0]);
cmd_.end();
submit_and_done();
check_dst(img, checker);
}
void test_copy_memory_to_image(const XGL_IMAGE_CREATE_INFO &img_info, const std::vector<XGL_MEMORY_IMAGE_COPY> &regions)
{
xgl_testing::ImageChecker checker(img_info, regions);
test_copy_memory_to_image(img_info, checker);
}
void test_copy_memory_to_image(const XGL_IMAGE_CREATE_INFO &img_info)
{
xgl_testing::ImageChecker checker(img_info);
test_copy_memory_to_image(img_info, checker);
}
};
TEST_F(XglCmdCopyMemoryToImageTest, Basic)
{
for (std::vector<xgl_testing::Device::Format>::const_iterator it = test_formats_.begin();
it != test_formats_.end(); it++) {
// known driver issues
if (it->format.channelFormat == XGL_CH_FMT_B5G6R5 ||
it->format.channelFormat == XGL_CH_FMT_B8G8R8A8 ||
it->format.channelFormat == XGL_CH_FMT_R11G11B10 ||
it->tiling != XGL_LINEAR_TILING)
continue;
XGL_IMAGE_CREATE_INFO img_info = xgl_testing::Image::create_info();
img_info.imageType = XGL_IMAGE_2D;
img_info.format = it->format;
img_info.extent.width = 64;
img_info.extent.height = 64;
img_info.tiling = it->tiling;
test_copy_memory_to_image(img_info);
}
}
class XglCmdCopyImageTest : public XglCmdBlitImageTest {
protected:
virtual void SetUp()
{
XglCmdBlitTest::SetUp();
init_test_formats(XGL_FORMAT_IMAGE_COPY_BIT);
ASSERT_NE(true, test_formats_.empty());
}
void test_copy_image(const XGL_IMAGE_CREATE_INFO &src_info, const XGL_IMAGE_CREATE_INFO &dst_info,
const std::vector<XGL_IMAGE_COPY> &copies)
{
// convert XGL_IMAGE_COPY to two sets of XGL_MEMORY_IMAGE_COPY
std::vector<XGL_MEMORY_IMAGE_COPY> src_regions, dst_regions;
XGL_GPU_SIZE src_offset = 0, dst_offset = 0;
for (std::vector<XGL_IMAGE_COPY>::const_iterator it = copies.begin(); it != copies.end(); it++) {
XGL_MEMORY_IMAGE_COPY src_region = {}, dst_region = {};
src_region.memOffset = src_offset;
src_region.imageSubresource = it->srcSubresource;
src_region.imageOffset = it->srcOffset;
src_region.imageExtent = it->extent;
src_regions.push_back(src_region);
dst_region.memOffset = src_offset;
dst_region.imageSubresource = it->destSubresource;
dst_region.imageOffset = it->destOffset;
dst_region.imageExtent = it->extent;
dst_regions.push_back(dst_region);
const XGL_GPU_SIZE size = it->extent.width * it->extent.height * it->extent.depth;
src_offset += xgl_testing::get_format_size(src_info.format) * size;
dst_offset += xgl_testing::get_format_size(dst_info.format) * size;
}
xgl_testing::ImageChecker src_checker(src_info, src_regions);
xgl_testing::ImageChecker dst_checker(dst_info, dst_regions);
xgl_testing::Image src;
src.init(dev_, src_info);
fill_src(src, src_checker);
cmd_.add_memory_ref(src, XGL_MEMORY_REF_READ_ONLY_BIT);
xgl_testing::Image dst;
dst.init(dev_, dst_info);
cmd_.add_memory_ref(dst, 0);
cmd_.begin();
xglCmdCopyImage(cmd_.obj(), src.obj(), dst.obj(), copies.size(), &copies[0]);
cmd_.end();
submit_and_done();
check_dst(dst, dst_checker);
}
};
TEST_F(XglCmdCopyImageTest, Basic)
{
for (std::vector<xgl_testing::Device::Format>::const_iterator it = test_formats_.begin();
it != test_formats_.end(); it++) {
// known driver issues
if (it->format.channelFormat == XGL_CH_FMT_B5G6R5 ||
it->format.channelFormat == XGL_CH_FMT_B8G8R8A8 ||
it->format.channelFormat == XGL_CH_FMT_R11G11B10 ||
it->tiling != XGL_LINEAR_TILING)
continue;
XGL_IMAGE_CREATE_INFO img_info = xgl_testing::Image::create_info();
img_info.imageType = XGL_IMAGE_2D;
img_info.format = it->format;
img_info.extent.width = 64;
img_info.extent.height = 64;
img_info.tiling = it->tiling;
XGL_IMAGE_COPY copy = {};
copy.srcSubresource = xgl_testing::Image::subresource(XGL_IMAGE_ASPECT_COLOR, 0, 0);
copy.destSubresource = copy.srcSubresource;
copy.extent = img_info.extent;
test_copy_image(img_info, img_info, std::vector<XGL_IMAGE_COPY>(&copy, &copy + 1));
}
}
class XglCmdClearColorImageTest : public XglCmdBlitImageTest {
protected:
virtual void SetUp()
{
XglCmdBlitTest::SetUp();
init_test_formats(XGL_FORMAT_CONVERSION_BIT);
ASSERT_NE(true, test_formats_.empty());
}
std::vector<uint8_t> color_to_raw(XGL_FORMAT format, const XGL_FLOAT color[4])
{
std::vector<uint8_t> raw;
// TODO support all formats
if (format.numericFormat == XGL_NUM_FMT_UNORM) {
switch (format.channelFormat) {
case XGL_CH_FMT_R8G8B8A8:
raw.push_back(color[0] * 255.0f);
raw.push_back(color[1] * 255.0f);
raw.push_back(color[2] * 255.0f);
raw.push_back(color[3] * 255.0f);
break;
case XGL_CH_FMT_B8G8R8A8:
raw.push_back(color[2] * 255.0f);
raw.push_back(color[1] * 255.0f);
raw.push_back(color[0] * 255.0f);
raw.push_back(color[3] * 255.0f);
break;
default:
break;
}
}
return raw;
}
void test_clear_color_image(const XGL_IMAGE_CREATE_INFO &img_info,
const XGL_FLOAT color[4],
const std::vector<XGL_IMAGE_SUBRESOURCE_RANGE> &ranges)
{
xgl_testing::Image img;
img.init(dev_, img_info);
cmd_.add_memory_ref(img, 0);
std::vector<XGL_IMAGE_STATE_TRANSITION> to_clear;
std::vector<XGL_IMAGE_STATE_TRANSITION> to_xfer;
const XGL_IMAGE_STATE initial_state =
(img_info.usage & XGL_IMAGE_USAGE_COLOR_ATTACHMENT_BIT) ?
XGL_IMAGE_STATE_UNINITIALIZED_TARGET : XGL_IMAGE_STATE_DATA_TRANSFER;
for (std::vector<XGL_IMAGE_SUBRESOURCE_RANGE>::const_iterator it = ranges.begin();
it != ranges.end(); it++) {
to_clear.push_back(img.prepare(initial_state, XGL_IMAGE_STATE_CLEAR, *it));
to_xfer.push_back(img.prepare(XGL_IMAGE_STATE_CLEAR, XGL_IMAGE_STATE_DATA_TRANSFER, *it));
}
cmd_.begin();
xglCmdPrepareImages(cmd_.obj(), to_clear.size(), &to_clear[0]);
xglCmdClearColorImage(cmd_.obj(), img.obj(), color, ranges.size(), &ranges[0]);
xglCmdPrepareImages(cmd_.obj(), to_xfer.size(), &to_xfer[0]);
cmd_.end();
submit_and_done();
// cannot verify
if (!img.transparent() && !img.copyable())
return;
xgl_testing::ImageChecker checker(img_info, ranges);
const std::vector<uint8_t> solid_pattern = color_to_raw(img_info.format, color);
if (solid_pattern.empty())
return;
checker.set_solid_pattern(solid_pattern);
check_dst(img, checker);
}
};
TEST_F(XglCmdClearColorImageTest, Basic)
{
for (std::vector<xgl_testing::Device::Format>::const_iterator it = test_formats_.begin();
it != test_formats_.end(); it++) {
// known driver issues
if (it->tiling != XGL_LINEAR_TILING)
continue;
const XGL_FLOAT color[4] = { 0.0f, 1.0f, 0.0f, 1.0f };
XGL_IMAGE_CREATE_INFO img_info = xgl_testing::Image::create_info();
img_info.imageType = XGL_IMAGE_2D;
img_info.format = it->format;
img_info.extent.width = 64;
img_info.extent.height = 64;
img_info.tiling = it->tiling;
const XGL_IMAGE_SUBRESOURCE_RANGE range =
xgl_testing::Image::subresource_range(XGL_IMAGE_ASPECT_COLOR, img_info);
std::vector<XGL_IMAGE_SUBRESOURCE_RANGE> ranges(&range, &range + 1);
test_clear_color_image(img_info, color, ranges);
}
}
class XglCmdClearDepthStencilTest : public XglCmdBlitImageTest {
protected:
virtual void SetUp()
{
XglCmdBlitTest::SetUp();
init_test_formats(XGL_FORMAT_DEPTH_ATTACHMENT_BIT |
XGL_FORMAT_STENCIL_ATTACHMENT_BIT);
ASSERT_NE(true, test_formats_.empty());
}
std::vector<uint8_t> ds_to_raw(XGL_FORMAT format, XGL_FLOAT depth, XGL_UINT32 stencil)
{
std::vector<uint8_t> raw;
// depth
switch (format.channelFormat) {
case XGL_CH_FMT_R16:
case XGL_CH_FMT_R16G8:
{
const uint16_t unorm = depth * 65535.0f;
raw.push_back(unorm & 0xff);
raw.push_back(unorm >> 8);
}
break;
case XGL_CH_FMT_R32:
case XGL_CH_FMT_R32G8:
{
const union {
XGL_FLOAT depth;
uint32_t u32;
} u = { depth };
raw.push_back((u.u32 ) & 0xff);
raw.push_back((u.u32 >> 8) & 0xff);
raw.push_back((u.u32 >> 16) & 0xff);
raw.push_back((u.u32 >> 24) & 0xff);
}
break;
default:
break;
}
// stencil
switch (format.channelFormat) {
case XGL_CH_FMT_R8:
raw.push_back(stencil);
break;
case XGL_CH_FMT_R16G8:
raw.push_back(stencil);
raw.push_back(0);
break;
case XGL_CH_FMT_R32G8:
raw.push_back(stencil);
raw.push_back(0);
raw.push_back(0);
raw.push_back(0);
break;
default:
break;
}
return raw;
}
void test_clear_depth_stencil(const XGL_IMAGE_CREATE_INFO &img_info,
XGL_FLOAT depth, XGL_UINT32 stencil,
const std::vector<XGL_IMAGE_SUBRESOURCE_RANGE> &ranges)
{
xgl_testing::Image img;
img.init(dev_, img_info);
cmd_.add_memory_ref(img, 0);
std::vector<XGL_IMAGE_STATE_TRANSITION> to_clear;
std::vector<XGL_IMAGE_STATE_TRANSITION> to_xfer;
for (std::vector<XGL_IMAGE_SUBRESOURCE_RANGE>::const_iterator it = ranges.begin();
it != ranges.end(); it++) {
to_clear.push_back(img.prepare(XGL_IMAGE_STATE_UNINITIALIZED_TARGET, XGL_IMAGE_STATE_CLEAR, *it));
to_xfer.push_back(img.prepare(XGL_IMAGE_STATE_CLEAR, XGL_IMAGE_STATE_DATA_TRANSFER, *it));
}
cmd_.begin();
xglCmdPrepareImages(cmd_.obj(), to_clear.size(), &to_clear[0]);
xglCmdClearDepthStencil(cmd_.obj(), img.obj(), depth, stencil, ranges.size(), &ranges[0]);
xglCmdPrepareImages(cmd_.obj(), to_xfer.size(), &to_xfer[0]);
cmd_.end();
submit_and_done();
// cannot verify
if (!img.transparent() && !img.copyable())
return;
xgl_testing::ImageChecker checker(img_info, ranges);
checker.set_solid_pattern(ds_to_raw(img_info.format, depth, stencil));
check_dst(img, checker);
}
};
TEST_F(XglCmdClearDepthStencilTest, Basic)
{
for (std::vector<xgl_testing::Device::Format>::const_iterator it = test_formats_.begin();
it != test_formats_.end(); it++) {
// known driver issues
if (it->format.channelFormat == XGL_CH_FMT_R8)
continue;
XGL_IMAGE_CREATE_INFO img_info = xgl_testing::Image::create_info();
img_info.imageType = XGL_IMAGE_2D;
img_info.format = it->format;
img_info.extent.width = 64;
img_info.extent.height = 64;
img_info.tiling = it->tiling;
img_info.usage = XGL_IMAGE_USAGE_DEPTH_STENCIL_BIT;
const XGL_IMAGE_SUBRESOURCE_RANGE range =
xgl_testing::Image::subresource_range(XGL_IMAGE_ASPECT_DEPTH, img_info);
std::vector<XGL_IMAGE_SUBRESOURCE_RANGE> ranges(&range, &range + 1);
test_clear_depth_stencil(img_info, 0.25f, 63, ranges);
}
}
}; // namespace
int main(int argc, char **argv)
{
::testing::InitGoogleTest(&argc, argv);
environment = new xgl_testing::Environment();
if (!environment->parse_args(argc, argv))
return -1;
::testing::AddGlobalTestEnvironment(environment);
return RUN_ALL_TESTS();
}