TEST_P(CopyTexImageTest, SubImageRGBToL)
{
// TODO (geofflang): Figure out why CopyTex[Sub]Image doesn't work with
// RGB->L on older Intel chips
if (isIntel() && getPlatformRenderer() == EGL_PLATFORM_ANGLE_TYPE_OPENGL_ANGLE)
{
std::cout << "Test skipped on Intel OpenGL." << std::endl;
return;
}
GLfloat color0[] = {
0.25f, 1.0f, 0.75f, 0.5f,
};
GLuint fbo0 = createFramebuffer(GL_RGB, GL_UNSIGNED_BYTE, color0);
GLuint tex = createTextureFromCopyTexImage(fbo0, GL_LUMINANCE);
GLfloat color1[] = {
0.5f, 0.25f, 1.0f, 0.75f,
};
GLuint fbo1 = createFramebuffer(GL_RGB, GL_UNSIGNED_BYTE, color1);
copyTextureWithCopyTexSubImage(fbo1, tex, 2, 4, 5, 6, 8, 8);
GLubyte expected0[] = {
64, 64, 64, 255,
};
verifyResults(tex, expected0, 0, 0);
GLubyte expected1[] = {
127, 127, 127, 255,
};
verifyResults(tex, expected1, 7, 7);
}
static void printImgInfo (RAWHEADER *th, FMTOPT *opts,
const char *filename, const char *msg)
{
Tcl_Channel outChan;
char str[256];
outChan = Tcl_GetStdChannel (TCL_STDOUT);
if (!outChan) {
return;
}
sprintf (str, "%s %s\n", msg, filename); OUT;
sprintf (str, "\tSize in pixel : %d x %d\n", th->width, th->height); OUT;
sprintf (str, "\tNo. of channels : %d\n", th->nChans); OUT;
sprintf (str, "\tPixel type : %s\n", (th->pixelType == TYPE_FLOAT? strFloat:
(th->pixelType == TYPE_USHORT? strUShort:
(th->pixelType == TYPE_UBYTE? strUByte:
strUnknown)))); OUT;
sprintf (str, "\tVertical encoding: %s\n", th->scanOrder == TOP_DOWN?
strTopDown: strBottomUp); OUT;
sprintf (str, "\tGamma correction : %f\n", opts->gamma); OUT;
sprintf (str, "\tMinimum map value: %f\n", opts->minVal); OUT;
sprintf (str, "\tMaximum map value: %f\n", opts->maxVal); OUT;
sprintf (str, "\tHost byte order : %s\n", isIntel ()? strIntel: strMotorola); OUT;
sprintf (str, "\tFile byte order : %s\n", th->byteOrder == INTEL?
strIntel: strMotorola); OUT;
Tcl_Flush (outChan);
}
void loadExpectations(Dictionary &headerCoverage, Dictionary &testMetrics, StringList &testOrder) {
const char * const processor= isIntel() ? "i386" : "ppc";
io::File expectations(std::string("tests/test_")+processor+".txt",
io::File::Text, io::File::ReadOnly);
std::string line;
Dictionary *current= NULL;
bool eof;
do {
expectations.readline(line);
eof= (line.size() == 0);
if(strip(line).size() == 0) {
// ignore blank lines
} else if(line[0] == '-') {
if(line == "-header") {
current= &headerCoverage;
} else if(line == "-test") {
current= &testMetrics;
} else {
current= NULL;
}
} else if(NULL != current) {
StringList parts;
String key, value;
String separator= "";
for(std::string::size_type c= 0; c < line.size(); ++c) {
if(line[c] == ' ') {
line[c]= '\t';
}
}
split(line, '\t', parts);
key= parts[0];
if(current == &testMetrics) {
testOrder.push_back(key);
}
parts.erase(parts.begin());
while(parts.size() > 0) {
if(parts[0].size() > 0) {
value+= separator + parts[0];
separator= ';';
}
parts.erase(parts.begin());
}
(*current)[key]= value;
}
} while(!eof);
}
TYPED_TEST(UniformTest, UniformArrayLocations)
{
// TODO(geofflang): Figure out why this is broken on Intel OpenGL
if (isIntel() && getPlatformRenderer() == EGL_PLATFORM_ANGLE_TYPE_OPENGL_ANGLE)
{
std::cout << "Test skipped on Intel OpenGL." << std::endl;
return;
}
const std::string vertexShader = SHADER_SOURCE
(
precision mediump float;
uniform float uPosition[4];
void main(void)
{
gl_Position = vec4(uPosition[0], uPosition[1], uPosition[2], uPosition[3]);
}
static Boln writeHeader (tkimg_MFile *handle, RAWHEADER *th)
{
char buf[1024];
sprintf (buf, strMagic, "RAW");
tkimg_Write (handle, buf, strlen (buf));
sprintf (buf, strWidth, th->width);
tkimg_Write (handle, buf, strlen (buf));
sprintf (buf, strHeight, th->height);
tkimg_Write (handle, buf, strlen (buf));
sprintf (buf, strNumChan, th->nChans);
tkimg_Write (handle, buf, strlen (buf));
sprintf (buf, strByteOrder, isIntel()? strIntel: strMotorola);
tkimg_Write (handle, buf, strlen (buf));
sprintf (buf, strScanOrder, th->scanOrder == TOP_DOWN?
strTopDown: strBottomUp);
tkimg_Write (handle, buf, strlen (buf));
sprintf (buf, strPixelType, (th->pixelType == TYPE_FLOAT? strFloat:
(th->pixelType == TYPE_USHORT? strUShort:
(th->pixelType == TYPE_UBYTE? strUByte:
strUnknown))));
tkimg_Write (handle, buf, strlen (buf));
return TRUE;
}
void GLPlatform::detect(OpenGLPlatformInterface platformInterface)
{
m_platformInterface = platformInterface;
m_vendor = (const char*)glGetString(GL_VENDOR);
m_renderer = (const char*)glGetString(GL_RENDERER);
m_version = (const char*)glGetString(GL_VERSION);
// Parse the OpenGL version
const QList<QByteArray> versionTokens = m_version.split(' ');
if (versionTokens.count() > 0) {
const QByteArray version = QByteArray(m_version);
m_glVersion = parseVersionString(version);
if (platformInterface == EglPlatformInterface) {
// only EGL can have OpenGLES, GLX is OpenGL only
if (version.startsWith("OpenGL ES")) {
// from GLES 2: "Returns a version or release number of the form OpenGL<space>ES<space><version number><space><vendor-specific information>."
// from GLES 3: "Returns a version or release number." and "The version number uses one of these forms: major_number.minor_number major_number.minor_number.release_number"
m_gles = true;
}
}
}
if (!isGLES() && m_glVersion >= kVersionNumber(3, 0)) {
int count;
glGetIntegerv(GL_NUM_EXTENSIONS, &count);
for (int i = 0; i < count; i++) {
const char *name = (const char *) glGetStringi(GL_EXTENSIONS, i);
m_extensions.insert(name);
}
} else {
const QByteArray extensions = (const char *) glGetString(GL_EXTENSIONS);
m_extensions = QSet<QByteArray>::fromList(extensions.split(' '));
}
// Parse the Mesa version
const int mesaIndex = versionTokens.indexOf("Mesa");
if (mesaIndex != -1) {
const QByteArray version = versionTokens.at(mesaIndex + 1);
m_mesaVersion = parseVersionString(version);
}
if (platformInterface == EglPlatformInterface) {
if (isGLES()) {
m_supportsGLSL = true;
m_textureNPOT = true;
} else {
m_supportsGLSL = m_extensions.contains("GL_ARB_shader_objects") &&
m_extensions.contains("GL_ARB_fragment_shader") &&
m_extensions.contains("GL_ARB_vertex_shader");
m_textureNPOT = m_extensions.contains("GL_ARB_texture_non_power_of_two");
}
} else if (platformInterface == GlxPlatformInterface) {
m_supportsGLSL = m_extensions.contains("GL_ARB_shader_objects") &&
m_extensions.contains("GL_ARB_fragment_shader") &&
m_extensions.contains("GL_ARB_vertex_shader");
m_textureNPOT = m_extensions.contains("GL_ARB_texture_non_power_of_two");
}
m_serverVersion = getXServerVersion();
m_kernelVersion = getKernelVersion();
m_glslVersion = 0;
m_glsl_version.clear();
if (m_supportsGLSL) {
// Parse the GLSL version
m_glsl_version = (const char*)glGetString(GL_SHADING_LANGUAGE_VERSION);
m_glslVersion = parseVersionString(m_glsl_version);
}
m_chipset = QByteArrayLiteral("Unknown");
m_preferBufferSubData = false;
// Mesa classic drivers
// ====================================================
// Radeon
if (m_renderer.startsWith("Mesa DRI R")) {
// Sample renderer string: Mesa DRI R600 (RV740 94B3) 20090101 x86/MMX/SSE2 TCL DRI2
const QList<QByteArray> tokens = m_renderer.split(' ');
const QByteArray chipClass = tokens.at(2);
m_chipset = tokens.at(3).mid(1, -1); // Strip the leading '('
if (chipClass == "R100")
// Vendor: Tungsten Graphics, Inc.
m_driver = Driver_R100;
else if (chipClass == "R200")
// Vendor: Tungsten Graphics, Inc.
m_driver = Driver_R200;
else if (chipClass == "R300")
// Vendor: DRI R300 Project
m_driver = Driver_R300C;
else if (chipClass == "R600")
// Vendor: Advanced Micro Devices, Inc.
m_driver = Driver_R600C;
m_chipClass = detectRadeonClass(m_chipset);
}
// Intel
else if (m_renderer.contains("Intel")) {
// Vendor: Tungsten Graphics, Inc.
// Sample renderer string: Mesa DRI Mobile Intel® GM45 Express Chipset GEM 20100328 2010Q1
QByteArray chipset;
if (m_renderer.startsWith("Intel(R) Integrated Graphics Device"))
chipset = "IGD";
else
chipset = m_renderer;
m_driver = Driver_Intel;
m_chipClass = detectIntelClass(chipset);
}
// Gallium drivers
// ====================================================
else if (m_renderer.contains("Gallium")) {
// Sample renderer string: Gallium 0.4 on AMD RV740
const QList<QByteArray> tokens = m_renderer.split(' ');
m_galliumVersion = parseVersionString(tokens.at(1));
m_chipset = (tokens.at(3) == "AMD" || tokens.at(3) == "ATI") ?
tokens.at(4) : tokens.at(3);
// R300G
if (m_vendor == QByteArrayLiteral("X.Org R300 Project")) {
m_chipClass = detectRadeonClass(m_chipset);
m_driver = Driver_R300G;
}
// R600G
else if (m_vendor == "X.Org" &&
(m_renderer.contains("R6") ||
m_renderer.contains("R7") ||
m_renderer.contains("RV6") ||
m_renderer.contains("RV7") ||
m_renderer.contains("RS780") ||
m_renderer.contains("RS880") ||
m_renderer.contains("CEDAR") ||
m_renderer.contains("REDWOOD") ||
m_renderer.contains("JUNIPER") ||
m_renderer.contains("CYPRESS") ||
m_renderer.contains("HEMLOCK") ||
m_renderer.contains("PALM") ||
m_renderer.contains("EVERGREEN") ||
m_renderer.contains("SUMO") ||
m_renderer.contains("SUMO2") ||
m_renderer.contains("BARTS") ||
m_renderer.contains("TURKS") ||
m_renderer.contains("CAICOS") ||
m_renderer.contains("CAYMAN"))) {
m_chipClass = detectRadeonClass(m_chipset);
m_driver = Driver_R600G;
}
// Nouveau
else if (m_vendor == "nouveau") {
m_chipClass = detectNVidiaClass(m_chipset);
m_driver = Driver_Nouveau;
}
// softpipe
else if (m_vendor == "VMware, Inc." && m_chipset == "softpipe" ) {
m_driver = Driver_Softpipe;
}
// llvmpipe
else if (m_vendor == "VMware, Inc." && m_chipset == "llvmpipe") {
m_driver = Driver_Llvmpipe;
}
// SVGA3D
else if (m_vendor == "VMware, Inc." && m_chipset.contains("SVGA3D")) {
m_driver = Driver_VMware;
}
}
// Properietary drivers
// ====================================================
else if (m_vendor == "ATI Technologies Inc.") {
m_chipClass = detectRadeonClass(m_renderer);
m_driver = Driver_Catalyst;
if (versionTokens.count() > 1 && versionTokens.at(2)[0] == '(')
m_driverVersion = parseVersionString(versionTokens.at(1));
else if (versionTokens.count() > 0)
m_driverVersion = parseVersionString(versionTokens.at(0));
else
m_driverVersion = 0;
}
else if (m_vendor == "NVIDIA Corporation") {
m_chipClass = detectNVidiaClass(m_renderer);
m_driver = Driver_NVidia;
int index = versionTokens.indexOf("NVIDIA");
if (versionTokens.count() > index)
m_driverVersion = parseVersionString(versionTokens.at(index + 1));
else
m_driverVersion = 0;
}
else if (m_renderer == "Software Rasterizer") {
m_driver = Driver_Swrast;
}
// Virtual Hardware
// ====================================================
else if (m_vendor == "Humper" && m_renderer == "Chromium") {
// Virtual Box
m_driver = Driver_VirtualBox;
const int index = versionTokens.indexOf("Chromium");
if (versionTokens.count() > index)
m_driverVersion = parseVersionString(versionTokens.at(index + 1));
else
m_driverVersion = 0;
}
// Driver/GPU specific features
// ====================================================
if (isRadeon()) {
// R200 technically has a programmable pipeline, but since it's SM 1.4,
// it's too limited to to be of any practical value to us.
if (m_chipClass < R300)
m_supportsGLSL = false;
m_limitedGLSL = false;
m_limitedNPOT = false;
if (m_chipClass < R600) {
if (driver() == Driver_Catalyst)
m_textureNPOT = m_limitedNPOT = false; // Software fallback
else if (driver() == Driver_R300G)
m_limitedNPOT = m_textureNPOT;
m_limitedGLSL = m_supportsGLSL;
}
if (m_chipClass < R300) {
// fallback to XRender for R100 and R200
m_recommendedCompositor = XRenderCompositing;
} else if (m_chipClass < R600) {
// XRender due to NPOT limitations not supported by KWin's shaders
m_recommendedCompositor = XRenderCompositing;
} else {
m_recommendedCompositor = OpenGL2Compositing;
}
if (driver() == Driver_R600G ||
(driver() == Driver_R600C && m_renderer.contains("DRI2"))) {
m_looseBinding = true;
}
}
if (isNvidia()) {
if (m_driver == Driver_NVidia && m_chipClass < NV40)
m_supportsGLSL = false; // High likelihood of software emulation
if (m_driver == Driver_NVidia) {
m_looseBinding = true;
m_preferBufferSubData = true;
}
if (m_chipClass < NV40) {
m_recommendedCompositor = XRenderCompositing;
} else {
m_recommendedCompositor = OpenGL2Compositing;
}
m_limitedNPOT = m_textureNPOT && m_chipClass < NV40;
m_limitedGLSL = m_supportsGLSL && m_chipClass < G80;
}
if (isIntel()) {
if (m_chipClass < I915)
m_supportsGLSL = false;
m_limitedGLSL = m_supportsGLSL && m_chipClass < I965;
// see https://bugs.freedesktop.org/show_bug.cgi?id=80349#c1
m_looseBinding = false;
if (m_chipClass < I915) {
m_recommendedCompositor = XRenderCompositing;
} else {
m_recommendedCompositor = OpenGL2Compositing;
}
}
if (isMesaDriver() && platformInterface == EglPlatformInterface) {
// According to the reference implementation in
// mesa/demos/src/egl/opengles1/texture_from_pixmap
// the mesa egl implementation does not require a strict binding (so far).
m_looseBinding = true;
}
if (isSoftwareEmulation()) {
if (m_driver < Driver_Llvmpipe) {
// we recommend XRender
m_recommendedCompositor = XRenderCompositing;
// Software emulation does not provide GLSL
m_limitedGLSL = m_supportsGLSL = false;
} else {
// llvmpipe does support GLSL
m_recommendedCompositor = OpenGL2Compositing;
m_limitedGLSL = false;
m_supportsGLSL = true;
}
}
if (m_chipClass == UnknownChipClass && m_driver == Driver_Unknown) {
// we don't know the hardware. Let's be optimistic and assume OpenGL compatible hardware
m_recommendedCompositor = OpenGL2Compositing;
m_supportsGLSL = true;
}
if (isVirtualBox()) {
m_virtualMachine = true;
m_recommendedCompositor = OpenGL2Compositing;
}
if (isVMware()) {
m_virtualMachine = true;
m_recommendedCompositor = OpenGL2Compositing;
}
// and force back to shader supported on gles, we wouldn't have got a context if not supported
if (isGLES()) {
m_supportsGLSL = true;
m_limitedGLSL = false;
}
}
