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o3de/Gems/Atom/Asset/ImageProcessingAtom/Code/Tests/ImageProcessing_Test.cpp

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/*
* Copyright (c) Contributors to the Open 3D Engine Project.
* For complete copyright and license terms please see the LICENSE at the root of this distribution.
*
* SPDX-License-Identifier: Apache-2.0 OR MIT
*
*/
#include <AzTest/AzTest.h>
#include <AzTest/Utils.h>
#include <AzQtComponents/Utilities/QtPluginPaths.h>
#include <AzCore/AzCore_Traits_Platform.h>
#include <AzCore/Asset/AssetManager.h>
#include <AzCore/Asset/AssetManagerComponent.h>
#include <AzCore/Jobs/JobContext.h>
#include <AzCore/Jobs/JobManager.h>
#include <AzCore/Memory/Memory.h>
#include <AzCore/Memory/PoolAllocator.h>
#include <AzCore/Name/NameDictionary.h>
#include <AzCore/RTTI/ReflectionManager.h>
#include <AzCore/Serialization/DataPatch.h>
#include <AzCore/Serialization/Json/JsonSystemComponent.h>
#include <AzCore/Serialization/Json/RegistrationContext.h>
#include <AzCore/Serialization/ObjectStream.h>
#include <AzCore/Serialization/SerializeContext.h>
#include <AzCore/Serialization/Utils.h>
#include <AzFramework/IO/LocalFileIO.h>
#include <Atom/ImageProcessing/ImageObject.h>
#include <Processing/PixelFormatInfo.h>
#include <Processing/ImageConvert.h>
#include <Processing/ImageToProcess.h>
#include <Processing/ImageAssetProducer.h>
#include <Processing/ImageFlags.h>
#include <ImageLoader/ImageLoaders.h>
#include <Compressors/Compressor.h>
#include <Converters/Cubemap.h>
#include <BuilderSettings/BuilderSettingManager.h>
#include <BuilderSettings/CubemapSettings.h>
#include <BuilderSettings/ImageProcessingDefines.h>
#include <BuilderSettings/PresetSettings.h>
#include <Editor/EditorCommon.h>
#include <Atom/RPI.Reflect/Asset/AssetHandler.h>
#include <Atom/RPI.Reflect/Image/StreamingImageAssetHandler.h>
#include <Atom/RHI.Reflect/ReflectSystemComponent.h>
#include <QFileInfo>
#include <qdir.h>
#include <QDirIterator>
#include <QIODevice>
#include <array>
#include <utility>
//Enable generate image files for result of some tests.
//This is slow and only useful for debugging. This should be disabled for unit test
//#define DEBUG_OUTPUT_IMAGES
//There are some test functions in this test which are DISABLED. They were mainly for programming tests.
//It's only recommended to enable them for programming test purpose.
#include <AzCore/UnitTest/TestTypes.h>
#include <ImageBuilderComponent.h>
using namespace ImageProcessingAtom;
namespace UnitTest
{
// Expose AZ::AssetManagerComponent::Reflect function for testing
class MyAssetManagerComponent
: public AZ::AssetManagerComponent
{
public:
static void Reflect(ReflectContext* reflection)
{
AZ::AssetManagerComponent::Reflect(reflection);
};
};
class ImageProcessingTest
: public ::testing::Test
, public AllocatorsBase
, public AZ::ComponentApplicationBus::Handler
{
public:
//////////////////////////////////////////////////////////////////////////
// ComponentApplicationMessages.
AZ::ComponentApplication* GetApplication() override { return nullptr; }
void RegisterComponentDescriptor(const AZ::ComponentDescriptor*) override { }
void UnregisterComponentDescriptor(const AZ::ComponentDescriptor*) override { }
void RegisterEntityAddedEventHandler(AZ::EntityAddedEvent::Handler&) override { }
void RegisterEntityRemovedEventHandler(AZ::EntityRemovedEvent::Handler&) override { }
void RegisterEntityActivatedEventHandler(AZ::EntityActivatedEvent::Handler&) override { }
void RegisterEntityDeactivatedEventHandler(AZ::EntityDeactivatedEvent::Handler&) override { }
void SignalEntityActivated(AZ::Entity*) override { }
void SignalEntityDeactivated(AZ::Entity*) override { }
bool AddEntity(AZ::Entity*) override { return false; }
bool RemoveEntity(AZ::Entity*) override { return false; }
bool DeleteEntity(const AZ::EntityId&) override { return false; }
Entity* FindEntity(const AZ::EntityId&) override { return nullptr; }
AZ::SerializeContext* GetSerializeContext() override { return m_context.get(); }
AZ::BehaviorContext* GetBehaviorContext() override { return nullptr; }
AZ::JsonRegistrationContext* GetJsonRegistrationContext() override { return m_jsonRegistrationContext.get(); }
const char* GetAppRoot() const override { return nullptr; }
const char* GetEngineRoot() const override { return nullptr; }
const char* GetExecutableFolder() const override { return nullptr; }
void EnumerateEntities(const AZ::ComponentApplicationRequests::EntityCallback& /*callback*/) override {}
void QueryApplicationType(AZ::ApplicationTypeQuery& /*appType*/) const override {}
//////////////////////////////////////////////////////////////////////////
protected:
AZStd::unique_ptr<AZ::SerializeContext> m_context;
AZStd::unique_ptr<AZ::JsonRegistrationContext> m_jsonRegistrationContext;
AZStd::unique_ptr<AZ::JsonSystemComponent> m_jsonSystemComponent;
AZStd::vector<AZStd::unique_ptr<AZ::Data::AssetHandler>> m_assetHandlers;
AZStd::string m_gemFolder;
AZStd::string m_outputRootFolder;
AZStd::string m_outputFolder;
AZStd::unique_ptr<AZ::JobManager> m_jobManager;
AZStd::unique_ptr<AZ::JobContext> m_jobContext;
void SetUp() override
{
AllocatorsBase::SetupAllocator();
// Adding this handler to allow utility functions access the serialize context
ComponentApplicationBus::Handler::BusConnect();
AZ::Interface<AZ::ComponentApplicationRequests>::Register(this);
AZ::AllocatorInstance<AZ::PoolAllocator>::Create();
AZ::AllocatorInstance<AZ::ThreadPoolAllocator>::Create();
// AssetManager required to generate image assets
AZ::Data::AssetManager::Descriptor desc;
AZ::Data::AssetManager::Create(desc);
AZ::NameDictionary::Create();
m_assetHandlers.emplace_back(AZ::RPI::MakeAssetHandler<AZ::RPI::ImageMipChainAssetHandler>());
m_assetHandlers.emplace_back(AZ::RPI::MakeAssetHandler<AZ::RPI::StreamingImageAssetHandler>());
m_assetHandlers.emplace_back(AZ::RPI::MakeAssetHandler<AZ::RPI::StreamingImagePoolAssetHandler>());
BuilderSettingManager::CreateInstance();
//prepare reflection
m_context = AZStd::make_unique<AZ::SerializeContext>();
AZ::Name::Reflect(m_context.get());
BuilderPluginComponent::Reflect(m_context.get());
AZ::DataPatch::Reflect(m_context.get());
AZ::RHI::ReflectSystemComponent::Reflect(m_context.get());
AZ::RPI::ImageMipChainAsset::Reflect(m_context.get());
AZ::RPI::ImageAsset::Reflect(m_context.get());
AZ::RPI::StreamingImageAsset::Reflect(m_context.get());
MyAssetManagerComponent::Reflect(m_context.get());
m_jsonRegistrationContext = AZStd::make_unique<AZ::JsonRegistrationContext>();
m_jsonSystemComponent = AZStd::make_unique<AZ::JsonSystemComponent>();
m_jsonSystemComponent->Reflect(m_jsonRegistrationContext.get());
AZ::Name::Reflect(m_jsonRegistrationContext.get());
BuilderPluginComponent::Reflect(m_jsonRegistrationContext.get());
// Setup job context for job system
JobManagerDesc jobManagerDesc;
JobManagerThreadDesc threadDesc;
#if AZ_TRAIT_SET_JOB_PROCESSOR_ID
threadDesc.m_cpuId = 0; // Don't set processors IDs on windows
#endif
uint32_t numWorkerThreads = AZStd::thread::hardware_concurrency();
for (unsigned int i = 0; i < numWorkerThreads; ++i)
{
jobManagerDesc.m_workerThreads.push_back(threadDesc);
#if AZ_TRAIT_SET_JOB_PROCESSOR_ID
threadDesc.m_cpuId++;
#endif
}
m_jobManager = AZStd::make_unique<JobManager>(jobManagerDesc);
m_jobContext = AZStd::make_unique<JobContext>(*m_jobManager);
JobContext::SetGlobalContext(m_jobContext.get());
// Startup default local FileIO (hits OSAllocator) if not already setup.
if (AZ::IO::FileIOBase::GetInstance() == nullptr)
{
AZ::IO::FileIOBase::SetInstance(aznew AZ::IO::LocalFileIO());
}
//load qt plug-ins for some image file formats support
AzQtComponents::PrepareQtPaths();
m_gemFolder = AZ::Test::GetEngineRootPath() + "/Gems/Atom/Asset/ImageProcessingAtom/";
m_outputFolder = m_gemFolder + AZStd::string("Code/Tests/TestAssets/temp/");
m_defaultSettingFolder = m_gemFolder + AZStd::string("Config/");
m_testFileFolder = m_gemFolder + AZStd::string("Code/Tests/TestAssets/");
InitialImageFilenames();
ImageProcessingAtomEditor::EditorHelper::InitPixelFormatString();
}
void TearDown() override
{
m_gemFolder = AZStd::string();
m_outputFolder = AZStd::string();
m_defaultSettingFolder = AZStd::string();
m_testFileFolder = AZStd::string();
m_imagFileNameMap = AZStd::map<ImageFeature, AZStd::string>();
m_assetHandlers = AZStd::vector<AZStd::unique_ptr<AZ::Data::AssetHandler>>();
delete AZ::IO::FileIOBase::GetInstance();
AZ::IO::FileIOBase::SetInstance(nullptr);
JobContext::SetGlobalContext(nullptr);
m_jobContext = nullptr;
m_jobManager = nullptr;
m_jsonRegistrationContext->EnableRemoveReflection();
m_jsonSystemComponent->Reflect(m_jsonRegistrationContext.get());
BuilderPluginComponent::Reflect(m_jsonRegistrationContext.get());
AZ::Name::Reflect(m_jsonRegistrationContext.get());
m_jsonRegistrationContext->DisableRemoveReflection();
m_jsonRegistrationContext.reset();
m_jsonSystemComponent.reset();
m_context.reset();
BuilderSettingManager::DestroyInstance();
CPixelFormats::DestroyInstance();
AZ::NameDictionary::Destroy();
AZ::Data::AssetManager::Destroy();
AZ::AllocatorInstance<AZ::ThreadPoolAllocator>::Destroy();
AZ::AllocatorInstance<AZ::PoolAllocator>::Destroy();
AZ::Interface<AZ::ComponentApplicationRequests>::Unregister(this);
ComponentApplicationBus::Handler::BusDisconnect();
AllocatorsBase::TeardownAllocator();
}
//enum names for Images with specific identification
enum ImageFeature
{
Image_20X16_RGBA8_Png = 0,
Image_32X32_16bit_F_Tif,
Image_32X32_32bit_F_Tif,
Image_200X200_RGB8_Jpg,
Image_512X288_RGB8_Tga,
Image_1024X1024_RGB8_Tif,
Image_UpperCase_Tga,
Image_1024x1024_normal_tiff,
Image_128x128_Transparent_Tga,
Image_237x177_RGB_Jpg,
Image_GreyScale_Png,
Image_Alpha8_64x64_Mip7_Dds,
Image_BGRA_64x64_Mip7_Dds,
Image_Luminance8bpp_66x33_dds,
Image_BGR_64x64_dds,
Image_defaultprobe_cm_1536x256_64bits_tif,
Image_workshop_iblskyboxcm_exr
};
//image file names for testing
AZStd::map<ImageFeature, AZStd::string> m_imagFileNameMap;
AZStd::string m_defaultSettingFolder;
AZStd::string m_testFileFolder;
//initialize image file names for testing
void InitialImageFilenames()
{
m_imagFileNameMap[Image_20X16_RGBA8_Png] = m_testFileFolder + "20x16_32bit.png";
m_imagFileNameMap[Image_32X32_16bit_F_Tif] = m_testFileFolder + "32x32_16bit_f.tif";
m_imagFileNameMap[Image_32X32_32bit_F_Tif] = m_testFileFolder + "32x32_32bit_f.tif";
m_imagFileNameMap[Image_200X200_RGB8_Jpg] = m_testFileFolder + "200x200_24bit.jpg";
m_imagFileNameMap[Image_512X288_RGB8_Tga] = m_testFileFolder + "512x288_24bit.tga";
m_imagFileNameMap[Image_1024X1024_RGB8_Tif] = m_testFileFolder + "1024x1024_24bit.tif";
m_imagFileNameMap[Image_UpperCase_Tga] = m_testFileFolder + "uppercase.TGA";
m_imagFileNameMap[Image_1024x1024_normal_tiff] = m_testFileFolder + "1024x1024_normal.tiff";
m_imagFileNameMap[Image_128x128_Transparent_Tga] = m_testFileFolder + "128x128_RGBA8.tga";
m_imagFileNameMap[Image_237x177_RGB_Jpg] = m_testFileFolder + "237x177_RGB.jpg";
m_imagFileNameMap[Image_GreyScale_Png] = m_testFileFolder + "greyscale.png";
m_imagFileNameMap[Image_Alpha8_64x64_Mip7_Dds] = m_testFileFolder + "Alpha8_64x64_Mip7.dds";
m_imagFileNameMap[Image_BGRA_64x64_Mip7_Dds] = m_testFileFolder + "BGRA_64x64_MIP7.dds";
m_imagFileNameMap[Image_Luminance8bpp_66x33_dds] = m_testFileFolder + "Luminance8bpp_66x33.dds";
m_imagFileNameMap[Image_BGR_64x64_dds] = m_testFileFolder + "RGBA_64x64.dds";
m_imagFileNameMap[Image_defaultprobe_cm_1536x256_64bits_tif] = m_testFileFolder + "defaultProbe_cm.tif";
m_imagFileNameMap[Image_workshop_iblskyboxcm_exr] = m_testFileFolder + "workshop_iblskyboxcm.exr";
}
public:
void SetOutputSubFolder(const char* subFolderName)
{
if (subFolderName)
{
m_outputFolder = m_outputRootFolder + "/" + subFolderName;
}
else
{
m_outputFolder = m_outputRootFolder;
}
}
//helper function to save an image object to a file through QtImage
void SaveImageToFile([[maybe_unused]] const IImageObjectPtr imageObject, [[maybe_unused]] const AZStd::string imageName, [[maybe_unused]] AZ::u32 maxMipCnt = 100)
{
#ifndef DEBUG_OUTPUT_IMAGES
return;
#else
if (imageObject == nullptr)
{
return;
}
// create dir if it doesn't exist
QDir dir;
QDir outputDir(m_outputFolder.c_str());
if (!outputDir.exists())
{
dir.mkpath(m_outputFolder.c_str());
}
//save origin file pixel format so we could use it to generate name later
EPixelFormat originPixelFormat = imageObject->GetPixelFormat();
//convert to RGBA8 before can be exported.
ImageToProcess imageToProcess(imageObject);
imageToProcess.ConvertFormat(ePixelFormat_R8G8B8A8);
IImageObjectPtr finalImage = imageToProcess.Get();
//for each mipmap
for (uint32 mip = 0; mip < finalImage->GetMipCount() && mip < maxMipCnt; mip++)
{
uint8* imageBuf;
uint32 pitch;
finalImage->GetImagePointer(mip, imageBuf, pitch);
uint32 width = finalImage->GetWidth(mip);
uint32 height = finalImage->GetHeight(mip);
uint32 originalSize = imageObject->GetMipBufSize(mip);
//generate file name
char filePath[2048];
azsprintf(filePath, "%s%s_%s_mip%d_%dx%d_%d.png", m_outputFolder.data(), imageName.c_str()
, CPixelFormats::GetInstance().GetPixelFormatInfo(originPixelFormat)->szName
, mip, width, height, originalSize);
QImage qimage(imageBuf, width, height, pitch, QImage::Format_RGBA8888);
qimage.save(filePath);
}
#endif
}
static bool GetComparisonResult(IImageObjectPtr image1, IImageObjectPtr image2, QString& output)
{
bool isImageLoaded = true;
bool isDifferent = false;
if (image1 == nullptr)
{
isImageLoaded = false;
output += ",Image 1 does not exist. ";
}
if (image2 == nullptr)
{
isImageLoaded = false;
output += ",Image 2 does not exist. ";
}
if (!isImageLoaded)
{
return (!image1 && !image2) ? false : true;
}
// Mip
int mip1 = image1->GetMipCount();
int mip2 = image2->GetMipCount();
int mipDiff = abs(mip1 - mip2);
isDifferent |= mipDiff != 0;
// Format
EPixelFormat format1 = image1->GetPixelFormat();
EPixelFormat format2 = image2->GetPixelFormat();
isDifferent |= (format1 != format2);
// Flag
AZ::u32 flag1 = image1->GetImageFlags();
AZ::u32 flag2 = image2->GetImageFlags();
isDifferent |= (flag1 != flag2);
// Size
int memSize1 = image1->GetTextureMemory();
int memSize2 = image2->GetTextureMemory();
int memDiff = abs(memSize1 - memSize2);
isDifferent |= memDiff != 0;
// Error
float error = GetErrorBetweenImages(image1, image2);
static float EPSILON = 0.000001f;
isDifferent |= abs(error) >= EPSILON;
output += QString(",%1/%2,%3,%4/%5,%6/%7,").arg(QString::number(mip1, 'f', 1), QString::number(mip2, 'f', 1), QString::number(mipDiff),
QString(ImageProcessingAtomEditor::EditorHelper::s_PixelFormatString[format1]),
QString(ImageProcessingAtomEditor::EditorHelper::s_PixelFormatString[format2]),
QString::number(flag1, 16), QString::number(flag2, 16));
output += QString("%1/%2,%3,%4").arg(QString(ImageProcessingAtomEditor::EditorHelper::GetFileSizeString(memSize1).c_str()),
QString(ImageProcessingAtomEditor::EditorHelper::GetFileSizeString(memSize2).c_str()),
QString(ImageProcessingAtomEditor::EditorHelper::GetFileSizeString(memDiff).c_str()),
QString::number(error, 'f', 8));
return isDifferent;
}
};
// test CPixelFormats related functions
TEST_F(ImageProcessingTest, TestPixelFormats)
{
CPixelFormats& pixelFormats = CPixelFormats::GetInstance();
//for all the non-compressed textures, if there minimum required texture size is 1x1
for (uint32 i = 0; i < ePixelFormat_Count; i++)
{
EPixelFormat pixelFormat = (EPixelFormat)i;
if (pixelFormats.IsPixelFormatUncompressed(pixelFormat))
{
//square, power of 2 sizes for uncompressed format which minimum required size is 1x1
ASSERT_TRUE(pixelFormats.ComputeMaxMipCount(pixelFormat, 128, 128) == 8);
ASSERT_TRUE(pixelFormats.ComputeMaxMipCount(pixelFormat, 64, 64) == 7);
ASSERT_TRUE(pixelFormats.ComputeMaxMipCount(pixelFormat, 4, 4) == 3);
ASSERT_TRUE(pixelFormats.ComputeMaxMipCount(pixelFormat, 2, 2) == 2);
ASSERT_TRUE(pixelFormats.ComputeMaxMipCount(pixelFormat, 1, 1) == 1);
//non-square, power of 2 sizes for uncompressed format which minimum required size is 1x1
ASSERT_TRUE(pixelFormats.ComputeMaxMipCount(pixelFormat, 128, 64) == 8);
ASSERT_TRUE(pixelFormats.ComputeMaxMipCount(pixelFormat, 128, 32) == 8);
ASSERT_TRUE(pixelFormats.ComputeMaxMipCount(pixelFormat, 32, 2) == 6);
ASSERT_TRUE(pixelFormats.ComputeMaxMipCount(pixelFormat, 2, 1) == 2);
//Non power of 2 sizes for uncompressed format which minimum required size is 1x1
ASSERT_TRUE(pixelFormats.ComputeMaxMipCount(pixelFormat, 128, 64) == 8);
ASSERT_TRUE(pixelFormats.ComputeMaxMipCount(pixelFormat, 128, 32) == 8);
ASSERT_TRUE(pixelFormats.ComputeMaxMipCount(pixelFormat, 32, 2) == 6);
ASSERT_TRUE(pixelFormats.ComputeMaxMipCount(pixelFormat, 2, 1) == 2);
}
}
//check function IsImageSizeValid && EvaluateImageDataSize function
ASSERT_TRUE(pixelFormats.IsImageSizeValid(ePixelFormat_BC1, 2, 1, false) == false);
ASSERT_TRUE(pixelFormats.IsImageSizeValid(ePixelFormat_BC1, 16, 16, false) == true);
ASSERT_TRUE(pixelFormats.IsImageSizeValid(ePixelFormat_BC1, 16, 32, false) == true);
ASSERT_TRUE(pixelFormats.IsImageSizeValid(ePixelFormat_BC1, 34, 34, false) == false);
ASSERT_TRUE(pixelFormats.IsImageSizeValid(ePixelFormat_BC1, 256, 256, false) == true);
ASSERT_TRUE(pixelFormats.IsImageSizeValid(ePixelFormat_ASTC_4x4, 2, 1, false) == false);
ASSERT_TRUE(pixelFormats.IsImageSizeValid(ePixelFormat_ASTC_4x4, 16, 16, false) == true);
ASSERT_TRUE(pixelFormats.IsImageSizeValid(ePixelFormat_ASTC_4x4, 16, 32, false) == true);
ASSERT_TRUE(pixelFormats.IsImageSizeValid(ePixelFormat_ASTC_4x4, 34, 34, false) == true);
ASSERT_TRUE(pixelFormats.IsImageSizeValid(ePixelFormat_ASTC_4x4, 256, 256, false) == true);
ASSERT_TRUE(pixelFormats.IsImageSizeValid(ePixelFormat_A8, 2, 1, false) == true);
ASSERT_TRUE(pixelFormats.IsImageSizeValid(ePixelFormat_A8, 16, 16, false) == true);
ASSERT_TRUE(pixelFormats.IsImageSizeValid(ePixelFormat_A8, 16, 32, false) == true);
ASSERT_TRUE(pixelFormats.IsImageSizeValid(ePixelFormat_A8, 34, 34, false) == true);
ASSERT_TRUE(pixelFormats.IsImageSizeValid(ePixelFormat_A8, 256, 256, false) == true);
}
TEST_F(ImageProcessingTest, TestCubemapLayouts)
{
{
IImageObjectPtr srcImage(LoadImageFromFile(m_imagFileNameMap[Image_defaultprobe_cm_1536x256_64bits_tif]));
ImageToProcess imageToProcess(srcImage);
imageToProcess.ConvertCubemapLayout(CubemapLayoutVertical);
ASSERT_TRUE(imageToProcess.Get()->GetWidth(0) * 6 == imageToProcess.Get()->GetHeight(0));
SaveImageToFile(imageToProcess.Get(), "Vertical", 100);
imageToProcess.ConvertCubemapLayout(CubemapLayoutHorizontalCross);
ASSERT_TRUE(imageToProcess.Get()->GetWidth(0) * 3 == imageToProcess.Get()->GetHeight(0) * 4);
SaveImageToFile(imageToProcess.Get(), "HorizontalCross", 100);
imageToProcess.ConvertCubemapLayout(CubemapLayoutVerticalCross);
ASSERT_TRUE(imageToProcess.Get()->GetWidth(0) * 4 == imageToProcess.Get()->GetHeight(0) * 3);
SaveImageToFile(imageToProcess.Get(), "VerticalCross", 100);
imageToProcess.ConvertCubemapLayout(CubemapLayoutHorizontal);
ASSERT_TRUE(imageToProcess.Get()->GetWidth(0) == imageToProcess.Get()->GetHeight(0) * 6);
SaveImageToFile(imageToProcess.Get(), "VerticalHorizontal", 100);
}
}
// test image file loading
TEST_F(ImageProcessingTest, TestImageLoaders)
{
//file extension support for different loader
ASSERT_TRUE(IsExtensionSupported("jpg") == true);
ASSERT_TRUE(IsExtensionSupported("JPG") == true);
ASSERT_TRUE(IsExtensionSupported(".JPG") == false);
ASSERT_TRUE(IsExtensionSupported("tga") == true);
ASSERT_TRUE(IsExtensionSupported("TGA") == true);
ASSERT_TRUE(IsExtensionSupported("tif") == true);
ASSERT_TRUE(IsExtensionSupported("tiff") == true);
IImageObjectPtr img;
img = IImageObjectPtr(LoadImageFromFile(m_imagFileNameMap[Image_1024X1024_RGB8_Tif]));
ASSERT_TRUE(img != nullptr);
ASSERT_TRUE(img->GetWidth(0) == 1024);
ASSERT_TRUE(img->GetHeight(0) == 1024);
ASSERT_TRUE(img->GetMipCount() == 1);
ASSERT_TRUE(img->GetPixelFormat() == ePixelFormat_R8G8B8X8);
//load png
img = IImageObjectPtr(LoadImageFromFile(m_imagFileNameMap[Image_20X16_RGBA8_Png]));
ASSERT_TRUE(img != nullptr);
ASSERT_TRUE(img->GetWidth(0) == 20);
ASSERT_TRUE(img->GetHeight(0) == 16);
ASSERT_TRUE(img->GetMipCount() == 1);
ASSERT_TRUE(img->GetPixelFormat() == ePixelFormat_R8G8B8A8);
//load jpg
img = IImageObjectPtr(LoadImageFromFile(m_imagFileNameMap[Image_200X200_RGB8_Jpg]));
ASSERT_TRUE(img != nullptr);
ASSERT_TRUE(img->GetWidth(0) == 200);
ASSERT_TRUE(img->GetHeight(0) == 200);
ASSERT_TRUE(img->GetMipCount() == 1);
ASSERT_TRUE(img->GetPixelFormat() == ePixelFormat_R8G8B8A8);
//tga
img = IImageObjectPtr(LoadImageFromFile(m_imagFileNameMap[Image_512X288_RGB8_Tga]));
ASSERT_TRUE(img != nullptr);
ASSERT_TRUE(img->GetWidth(0) == 512);
ASSERT_TRUE(img->GetHeight(0) == 288);
ASSERT_TRUE(img->GetMipCount() == 1);
ASSERT_TRUE(img->GetPixelFormat() == ePixelFormat_R8G8B8A8);
//image with upper case extension
img = IImageObjectPtr(LoadImageFromFile(m_imagFileNameMap[Image_UpperCase_Tga]));
ASSERT_TRUE(img != nullptr);
ASSERT_TRUE(img->GetPixelFormat() == ePixelFormat_R8G8B8A8);
//16bits float tif
img = IImageObjectPtr(LoadImageFromFile(m_imagFileNameMap[Image_32X32_16bit_F_Tif]));
ASSERT_TRUE(img != nullptr);
ASSERT_TRUE(img->GetPixelFormat() == ePixelFormat_R16G16B16A16F);
//32bits float tif
img = IImageObjectPtr(LoadImageFromFile(m_imagFileNameMap[Image_32X32_32bit_F_Tif]));
ASSERT_TRUE(img != nullptr);
ASSERT_TRUE(img->GetPixelFormat() == ePixelFormat_R32G32B32A32F);
// DDS files
img = IImageObjectPtr(LoadImageFromFile(m_imagFileNameMap[Image_Alpha8_64x64_Mip7_Dds]));
ASSERT_TRUE(img != nullptr);
ASSERT_TRUE(img->GetPixelFormat() == ePixelFormat_A8);
ASSERT_TRUE(img->GetMipCount() == 7);
img = IImageObjectPtr(LoadImageFromFile(m_imagFileNameMap[Image_BGRA_64x64_Mip7_Dds]));
ASSERT_TRUE(img != nullptr);
ASSERT_TRUE(img->GetPixelFormat() == ePixelFormat_B8G8R8A8);
ASSERT_TRUE(img->GetMipCount() == 7);
img = IImageObjectPtr(LoadImageFromFile(m_imagFileNameMap[Image_Luminance8bpp_66x33_dds]));
ASSERT_TRUE(img != nullptr);
ASSERT_TRUE(img->GetPixelFormat() == ePixelFormat_A8);
img = IImageObjectPtr(LoadImageFromFile(m_imagFileNameMap[Image_BGR_64x64_dds]));
ASSERT_TRUE(img != nullptr);
ASSERT_TRUE(img->GetPixelFormat() == ePixelFormat_B8G8R8);
// Exr file
img = IImageObjectPtr(LoadImageFromFile(m_imagFileNameMap[Image_workshop_iblskyboxcm_exr]));
ASSERT_TRUE(img != nullptr);
}
TEST_F(ImageProcessingTest, PresetSettingCopyAssignmentOperatorOverload_WithDynamicallyAllocatedSettings_ReturnsTwoSeparateAllocations)
{
PresetSettings presetSetting;
presetSetting.m_mipmapSetting = AZStd::unique_ptr<MipmapSettings>(new MipmapSettings());
presetSetting.m_cubemapSetting = AZStd::unique_ptr<CubemapSettings>(new CubemapSettings());
// Explicit invoke assignment operator by splitting the operation into two lines.
PresetSettings otherPresetSetting;
otherPresetSetting = presetSetting;
EXPECT_NE(otherPresetSetting.m_cubemapSetting, presetSetting.m_cubemapSetting);
EXPECT_NE(otherPresetSetting.m_mipmapSetting, presetSetting.m_mipmapSetting);
}
TEST_F(ImageProcessingTest, PresetSettingCopyConstructor_WithDynamicallyAllocatedSettings_ReturnsTwoSeparateAllocations)
{
PresetSettings presetSetting;
presetSetting.m_mipmapSetting = AZStd::unique_ptr<MipmapSettings>(new MipmapSettings());
presetSetting.m_cubemapSetting = AZStd::unique_ptr<CubemapSettings>(new CubemapSettings());
PresetSettings otherPresetSetting(presetSetting);
EXPECT_NE(otherPresetSetting.m_cubemapSetting, presetSetting.m_cubemapSetting);
EXPECT_NE(otherPresetSetting.m_mipmapSetting, presetSetting.m_mipmapSetting);
}
TEST_F(ImageProcessingTest, PresetSettingEqualityOperatorOverload_WithIdenticalSettings_ReturnsEquivalent)
{
PresetSettings presetSetting;
PresetSettings otherPresetSetting(presetSetting);
EXPECT_TRUE(otherPresetSetting == presetSetting);
}
TEST_F(ImageProcessingTest, PresetSettingEqualityOperatorOverload_WithDifferingDynamicallyAllocatedSettings_ReturnsUnequivalent)
{
PresetSettings presetSetting;
presetSetting.m_mipmapSetting = AZStd::unique_ptr<MipmapSettings>(new MipmapSettings());
presetSetting.m_mipmapSetting->m_type = MipGenType::gaussian;
PresetSettings otherPresetSetting(presetSetting);
otherPresetSetting.m_mipmapSetting = AZStd::unique_ptr<MipmapSettings>(new MipmapSettings());
otherPresetSetting.m_mipmapSetting->m_type = MipGenType::blackmanHarris;
EXPECT_FALSE(otherPresetSetting == presetSetting);
}
//this test is to test image data won't be lost between uncompressed formats (for low to high precision or same precision)
TEST_F(ImageProcessingTest, TestConvertFormatUncompressed)
{
//source image
IImageObjectPtr srcImage(LoadImageFromFile(m_imagFileNameMap[Image_200X200_RGB8_Jpg]));
ImageToProcess imageToProcess(srcImage);
//image pointers to hold precessed images for comparison
IImageObjectPtr dstImage1, dstImage2, dstImage3, dstImage4, dstImage5;
//compare four channels pixel formats
//we will convert to target format then convert back to RGBX8 so they can compare to easy other
imageToProcess.ConvertFormatUncompressed(ePixelFormat_R8G8B8A8);
dstImage1 = imageToProcess.Get();
imageToProcess.Set(srcImage);
imageToProcess.ConvertFormatUncompressed(ePixelFormat_R16G16B16A16);
ASSERT_FALSE(srcImage->CompareImage(imageToProcess.Get())); //this is different than source image
imageToProcess.ConvertFormatUncompressed(ePixelFormat_R8G8B8A8);
dstImage2 = imageToProcess.Get();
imageToProcess.Set(srcImage);
imageToProcess.ConvertFormatUncompressed(ePixelFormat_R16G16B16A16F);
imageToProcess.ConvertFormatUncompressed(ePixelFormat_R8G8B8A8);
dstImage3 = imageToProcess.Get();
imageToProcess.Set(srcImage);
imageToProcess.ConvertFormatUncompressed(ePixelFormat_R32G32B32A32F);
imageToProcess.ConvertFormatUncompressed(ePixelFormat_R8G8B8A8);
dstImage4 = imageToProcess.Get();
ASSERT_TRUE(dstImage2->CompareImage(dstImage1));
ASSERT_TRUE(dstImage3->CompareImage(dstImage1));
ASSERT_TRUE(dstImage4->CompareImage(dstImage1));
// three channels formats
imageToProcess.Set(srcImage);
imageToProcess.ConvertFormatUncompressed(ePixelFormat_R8G8B8X8);
dstImage1 = imageToProcess.Get();
imageToProcess.Set(srcImage);
imageToProcess.ConvertFormatUncompressed(ePixelFormat_R9G9B9E5);
imageToProcess.ConvertFormatUncompressed(ePixelFormat_R8G8B8X8);
dstImage2 = imageToProcess.Get();
ASSERT_TRUE(dstImage2->CompareImage(dstImage1));
//convert image to all one channel formats then convert them back to RGBX8 for comparison
imageToProcess.Set(srcImage);
imageToProcess.ConvertFormatUncompressed(ePixelFormat_R8);
imageToProcess.ConvertFormatUncompressed(ePixelFormat_R8G8B8X8);
dstImage1 = imageToProcess.Get();
imageToProcess.Set(srcImage);
imageToProcess.ConvertFormatUncompressed(ePixelFormat_R16);
imageToProcess.ConvertFormatUncompressed(ePixelFormat_R8G8B8X8);
dstImage2 = imageToProcess.Get();
imageToProcess.Set(srcImage);
imageToProcess.ConvertFormatUncompressed(ePixelFormat_R16F);
imageToProcess.ConvertFormatUncompressed(ePixelFormat_R8G8B8X8);
dstImage3 = imageToProcess.Get();
imageToProcess.Set(srcImage);
imageToProcess.ConvertFormatUncompressed(ePixelFormat_R32F);
imageToProcess.ConvertFormatUncompressed(ePixelFormat_R8G8B8X8);
dstImage4 = imageToProcess.Get();
ASSERT_TRUE(dstImage2->CompareImage(dstImage1));
ASSERT_TRUE(dstImage3->CompareImage(dstImage1));
ASSERT_TRUE(dstImage4->CompareImage(dstImage1));
//convert image to all two channels formats then convert them back to RGBX8 for comparison
imageToProcess.Set(srcImage);
imageToProcess.ConvertFormatUncompressed(ePixelFormat_R8G8);
imageToProcess.ConvertFormatUncompressed(ePixelFormat_R8G8B8X8);
dstImage1 = imageToProcess.Get();
imageToProcess.Set(srcImage);
imageToProcess.ConvertFormatUncompressed(ePixelFormat_R16G16);
imageToProcess.ConvertFormatUncompressed(ePixelFormat_R8G8B8X8);
dstImage2 = imageToProcess.Get();
imageToProcess.Set(srcImage);
imageToProcess.ConvertFormatUncompressed(ePixelFormat_R16G16F);
imageToProcess.ConvertFormatUncompressed(ePixelFormat_R8G8B8X8);
dstImage3 = imageToProcess.Get();
ASSERT_TRUE(dstImage2->CompareImage(dstImage1));
ASSERT_TRUE(dstImage3->CompareImage(dstImage1));
}
TEST_F(ImageProcessingTest, TestConvertFormatCompressed)
{
IImageObjectPtr srcImage;
//images to be tested
static const int imageCount = 4;
ImageFeature images[imageCount] = {
Image_20X16_RGBA8_Png,
Image_237x177_RGB_Jpg,
Image_128x128_Transparent_Tga,
Image_defaultprobe_cm_1536x256_64bits_tif};
// collect all compressed pixel formats
AZStd::vector<EPixelFormat> compressedFormats;
for (uint32 i = 0; i < ePixelFormat_Count; i++)
{
EPixelFormat pixelFormat = (EPixelFormat)i;
auto formatInfo = CPixelFormats::GetInstance().GetPixelFormatInfo(pixelFormat);
if (formatInfo->bCompressed)
{
// skip ASTC formats which are tested in TestConvertASTCCompressor
if (!IsASTCFormat(pixelFormat))
{
compressedFormats.push_back(pixelFormat);
}
}
}
for (int imageIdx = 0; imageIdx < imageCount; imageIdx++)
{
//get image's name and it will be used for output file name
QFileInfo fi(m_imagFileNameMap[images[imageIdx]].c_str());
AZStd::string imageName = fi.baseName().toUtf8().constData();
srcImage = IImageObjectPtr(LoadImageFromFile(m_imagFileNameMap[images[imageIdx]]));
ImageToProcess imageToProcess(srcImage);
//test ConvertFormat functions against all the pixel formats
for (EPixelFormat pixelFormat : compressedFormats)
{
//
if (!CPixelFormats::GetInstance().IsImageSizeValid(pixelFormat, srcImage->GetWidth(0), srcImage->GetHeight(0), false))
{
continue;
}
#if defined(AZ_ENABLE_TRACING)
auto formatInfo = CPixelFormats::GetInstance().GetPixelFormatInfo(pixelFormat);
#endif
ColorSpace sourceColorSpace = srcImage->HasImageFlags(EIF_SRGBRead) ? ColorSpace::sRGB : ColorSpace::linear;
ICompressorPtr compressor = ICompressor::FindCompressor(pixelFormat, sourceColorSpace, true);
if (!compressor)
{
AZ_Warning("test", false, "unsupported format: %s", formatInfo->szName);
continue;
}
imageToProcess.Set(srcImage);
imageToProcess.ConvertFormat(pixelFormat);
ASSERT_TRUE(imageToProcess.Get());
ASSERT_TRUE(imageToProcess.Get()->GetPixelFormat() == pixelFormat);
//convert back to an uncompressed format and expect it will be successful
imageToProcess.ConvertFormat(srcImage->GetPixelFormat());
ASSERT_TRUE(imageToProcess.Get()->GetPixelFormat() == srcImage->GetPixelFormat());
// Save the image to a file so we can check the visual result
AZStd::string outputName = AZStd::string::format("%s_%s", imageName.c_str(), compressor->GetName());
SaveImageToFile(imageToProcess.Get(), outputName, 1);
}
}
}
TEST_F(ImageProcessingTest, Test_ConvertAllAstc_Success)
{
// Compress/Decompress to all astc formats (LDR)
auto imageIdx = Image_237x177_RGB_Jpg;
IImageObjectPtr srcImage = IImageObjectPtr(LoadImageFromFile(m_imagFileNameMap[imageIdx]));
QFileInfo fi(m_imagFileNameMap[imageIdx].c_str());
AZStd::string imageName = fi.baseName().toUtf8().constData();
for (uint32 i = 0; i < ePixelFormat_Count; i++)
{
EPixelFormat pixelFormat = (EPixelFormat)i;
if (IsASTCFormat(pixelFormat))
{
ImageToProcess imageToProcess(srcImage);
imageToProcess.ConvertFormat(pixelFormat);
ASSERT_TRUE(imageToProcess.Get());
ASSERT_TRUE(imageToProcess.Get()->GetPixelFormat() == pixelFormat);
ASSERT_TRUE(imageToProcess.Get()->GetWidth(0) == srcImage->GetWidth(0));
ASSERT_TRUE(imageToProcess.Get()->GetHeight(0) == srcImage->GetHeight(0));
// convert back to an uncompressed format and expect it will be successful
imageToProcess.ConvertFormat(srcImage->GetPixelFormat());
ASSERT_TRUE(imageToProcess.Get()->GetPixelFormat() == srcImage->GetPixelFormat());
// save the image to a file so we can check the visual result
AZStd::string outputName = AZStd::string::format("ASTC_%s", imageName.c_str());
SaveImageToFile(imageToProcess.Get(), outputName, 1);
}
}
}
TEST_F(ImageProcessingTest, Test_ConvertHdrToAstc_Success)
{
// Compress/Decompress HDR
auto imageIdx = Image_defaultprobe_cm_1536x256_64bits_tif;
IImageObjectPtr srcImage = IImageObjectPtr(LoadImageFromFile(m_imagFileNameMap[imageIdx]));
EPixelFormat dstFormat = ePixelFormat_ASTC_4x4;
ImageToProcess imageToProcess(srcImage);
imageToProcess.ConvertFormat(ePixelFormat_ASTC_4x4);
ASSERT_TRUE(imageToProcess.Get());
ASSERT_TRUE(imageToProcess.Get()->GetPixelFormat() == dstFormat);
ASSERT_TRUE(imageToProcess.Get()->GetWidth(0) == srcImage->GetWidth(0));
ASSERT_TRUE(imageToProcess.Get()->GetHeight(0) == srcImage->GetHeight(0));
//convert back to an uncompressed format and expect it will be successful
imageToProcess.ConvertFormat(srcImage->GetPixelFormat());
ASSERT_TRUE(imageToProcess.Get()->GetPixelFormat() == srcImage->GetPixelFormat());
//save the image to a file so we can check the visual result
SaveImageToFile(imageToProcess.Get(), "ASTC_HDR", 1);
}
TEST_F(ImageProcessingTest, Test_AstcNormalPreset_Success)
{
// Normal.preset which uses ASTC as output format
// This test compress a normal texture and its mipmaps
auto outcome = BuilderSettingManager::Instance()->LoadConfigFromFolder(m_defaultSettingFolder);
ASSERT_TRUE(outcome.IsSuccess());
AZStd::string inputFile;
AZStd::vector<AssetBuilderSDK::JobProduct> outProducts;
inputFile = m_imagFileNameMap[Image_1024x1024_normal_tiff];
IImageObjectPtr srcImage = IImageObjectPtr(LoadImageFromFile(inputFile));
ImageConvertProcess* process = CreateImageConvertProcess(inputFile, m_outputFolder, "ios", outProducts, m_context.get());
const PresetSettings* preset = &process->GetInputDesc()->m_presetSetting;
if (process != nullptr)
{
process->ProcessAll();
//get process result
ASSERT_TRUE(process->IsSucceed());
auto outputImage = process->GetOutputImage();
ASSERT_TRUE(outputImage->GetPixelFormat() == preset->m_pixelFormat);
ASSERT_TRUE(outputImage->GetWidth(0) == srcImage->GetWidth(0));
ASSERT_TRUE(outputImage->GetHeight(0) == srcImage->GetHeight(0));
SaveImageToFile(outputImage, "ASTC_Normal", 10);
delete process;
}
}
TEST_F(ImageProcessingTest, DISABLED_TestImageFilter)
{
AZStd::string testImageFile = m_imagFileNameMap[Image_1024X1024_RGB8_Tif];
IImageObjectPtr srcImage, dstImage;
QFileInfo fi(testImageFile.c_str());
AZStd::string imageName = fi.baseName().toUtf8().constData();
//load source image and convert it to RGBA32F
srcImage = IImageObjectPtr(LoadImageFromFile(testImageFile));
ImageToProcess imageToProcess(srcImage);
imageToProcess.ConvertFormat(ePixelFormat_R32G32B32A32F);
srcImage = imageToProcess.Get();
//create destination image with same size and mipmaps
dstImage = IImageObjectPtr(
IImageObject::CreateImage(srcImage->GetWidth(0), srcImage->GetHeight(0), 3,
ePixelFormat_R32G32B32A32F));
//for each filters
const std::array<std::pair<MipGenType, AZStd::string>, 7> allFilters =
{
{
{MipGenType::point, "point"},
{MipGenType::box, "box" },
{ MipGenType::triangle, "triangle" },
{ MipGenType::quadratic, "Quadratic" },
{ MipGenType::blackmanHarris, "blackmanHarris" },
{ MipGenType::kaiserSinc, "kaiserSinc" }
}
};
for (std::pair<MipGenType, AZStd::string> filter : allFilters)
{
for (uint mip = 0; mip < dstImage->GetMipCount(); mip++)
{
FilterImage(filter.first, MipGenEvalType::sum,
0, 0, imageToProcess.Get(), 0, dstImage, mip, nullptr, nullptr);
}
SaveImageToFile(dstImage, imageName + "_" + filter.second);
}
}
TEST_F(ImageProcessingTest, TestColorSpaceConversion)
{
IImageObjectPtr srcImage(LoadImageFromFile(m_imagFileNameMap[Image_GreyScale_Png]));
ImageToProcess imageToProcess(srcImage);
imageToProcess.GammaToLinearRGBA32F(true);
SaveImageToFile(imageToProcess.Get(), "GammaTolinear_DeGamma", 1);
imageToProcess.LinearToGamma();
SaveImageToFile(imageToProcess.Get(), "LinearToGamma_DeGamma", 1);
}
TEST_F(ImageProcessingTest, VerifyRestrictedPlatform)
{
auto outcome = BuilderSettingManager::Instance()->LoadConfigFromFolder(m_defaultSettingFolder);
ASSERT_TRUE(outcome.IsSuccess());
PlatformNameList platforms = BuilderSettingManager::Instance()->GetPlatformList();
#ifndef AZ_TOOLS_EXPAND_FOR_RESTRICTED_PLATFORMS
EXPECT_THAT(platforms, testing::UnorderedPointwise(testing::Eq(), {"pc", "linux", "mac", "ios", "android"}));
#endif //AZ_TOOLS_EXPAND_FOR_RESTRICTED_PLATFORMS
}
//test image conversion for builder
TEST_F(ImageProcessingTest, TestBuilderImageConvertor)
{
//load builder presets
auto outcome = BuilderSettingManager::Instance()->LoadConfigFromFolder(m_defaultSettingFolder);
ASSERT_TRUE(outcome.IsSuccess());
AZStd::string inputFile;
AZStd::vector<AssetBuilderSDK::JobProduct> outProducts;
inputFile = m_imagFileNameMap[Image_128x128_Transparent_Tga];
ImageConvertProcess* process = CreateImageConvertProcess(inputFile, m_outputFolder, "pc", outProducts, m_context.get());
if (process != nullptr)
{
//the process can be stopped if the job is canceled or the worker is shutting down
int step = 0;
while (!process->IsFinished())
{
process->UpdateProcess();
step++;
}
//get process result
ASSERT_TRUE(process->IsSucceed());
SaveImageToFile(process->GetOutputImage(), "rgb", 10);
SaveImageToFile(process->GetOutputAlphaImage(), "alpha", 10);
process->GetAppendOutputProducts(outProducts);
delete process;
}
}
TEST_F(ImageProcessingTest, TestIblSkyboxPreset)
{
//load builder presets
auto outcome = BuilderSettingManager::Instance()->LoadConfigFromFolder(m_defaultSettingFolder);
ASSERT_TRUE(outcome.IsSuccess());
AZStd::string inputFile;
AZStd::vector<AssetBuilderSDK::JobProduct> outProducts;
inputFile = m_imagFileNameMap[Image_workshop_iblskyboxcm_exr];
ImageConvertProcess* process = CreateImageConvertProcess(inputFile, m_outputFolder, "pc", outProducts, m_context.get());
if (process != nullptr)
{
process->ProcessAll();
//get process result
ASSERT_TRUE(process->IsSucceed());
auto specularImage = process->GetOutputIBLSpecularCubemap();
auto diffuseImage = process->GetOutputIBLDiffuseCubemap();
ASSERT_TRUE(process->GetOutputImage());
ASSERT_TRUE(specularImage);
ASSERT_TRUE(diffuseImage);
// output converted result if save image is enabled
SaveImageToFile(process->GetOutputImage(), "ibl_skybox", 10);
SaveImageToFile(specularImage, "ibl_specular", 10);
SaveImageToFile(diffuseImage, "ibl_diffuse", 10);
delete process;
}
}
TEST_F(ImageProcessingTest, TextureSettingReflect_SerializingModernDataInAndOut_WritesAndParsesFileAccurately)
{
AZStd::string filepath = "test.xml";
// Fill-in structure with test data
TextureSettings fakeTextureSettings;
fakeTextureSettings.m_preset = "testPreset";
fakeTextureSettings.m_sizeReduceLevel = 0;
fakeTextureSettings.m_suppressEngineReduce = true;
fakeTextureSettings.m_enableMipmap = false;
fakeTextureSettings.m_maintainAlphaCoverage = true;
fakeTextureSettings.m_mipAlphaAdjust = { 0xDEAD, 0xBADBEEF, 0xBADC0DE, 0xFEEFEE, 0xBADF00D, 0xC0FFEE };
fakeTextureSettings.m_mipGenEval = MipGenEvalType::max;
fakeTextureSettings.m_mipGenType = MipGenType::quadratic;
// Write test data to file
auto writeOutcome = TextureSettings::WriteTextureSetting(filepath, fakeTextureSettings, m_context.get());
EXPECT_TRUE(writeOutcome.IsSuccess());
// Parse test data to file
TextureSettings parsedFakeTextureSettings;
auto readOutcome = TextureSettings::LoadTextureSetting(filepath, parsedFakeTextureSettings, m_context.get());
EXPECT_TRUE(readOutcome.IsSuccess());
EXPECT_TRUE(parsedFakeTextureSettings.Equals(fakeTextureSettings, m_context.get()));
// Delete temp data
AZ::IO::FileIOBase::GetInstance()->Remove(filepath.c_str());
}
} // UnitTest
AZ_UNIT_TEST_HOOK(DEFAULT_UNIT_TEST_ENV);
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