int main(int argc, char** argv)
#endif
{
tCreationFlags creationFlags;
creationFlags.sWindowTitle = "Displacement-mapped sphere";
int32 width = 640;
int32 height = 480;
#ifdef __amigaos4__
if ( argc == 3 )
{
width = iClamp( atoi( argv[1] ), 160, 1600 );
height = iClamp( atoi( argv[2] ), 160, 1280 );
}
#endif
#ifdef WIN32
creationFlags.hIcon = LoadIcon( GetModuleHandle( 0 ), MAKEINTRESOURCE( IDI_ICON1 ) );
#endif
creationFlags.iWindowWidth = width;
creationFlags.iWindowHeight = height;
creationFlags.bWindowed = true;
CDisplacedSphere theApp;
if( !theApp.bInitialize( creationFlags ) )
return 1;
return theApp.iRun();
}
// Get's the color at a certain value
ofColor ImgTexture::getColor(int inX, int inY)
{
iClamp(1, mResizedImage.width-1, inX);
iClamp(1, mResizedImage.height-1, inY);
return mResizedImage.getColor(inX, inY);;
}
int main(int argc, char** argv)
#endif
{
tCreationFlags creationFlags;
creationFlags.sWindowTitle = "Raytracer";
int32 iWidth = 320;
int32 iHeight = 240;
#ifdef __amigaos4__
if ( argc == 3 )
{
iWidth = iClamp( atoi( argv[1] ), 160, 1600 );
iHeight = iClamp( atoi( argv[2] ), 160, 1280 );
}
#endif
#ifdef WIN32
creationFlags.hIcon = LoadIcon( GetModuleHandle( 0 ), MAKEINTRESOURCE( IDI_ICON1 ) );
#endif
creationFlags.iWindowWidth = iWidth;
creationFlags.iWindowHeight = iHeight;
creationFlags.bWindowed = true;
CApp theApp;
if( !theApp.bInitialize( creationFlags ) )
return 1;
return theApp.iRun();
}
/** Applies a 5x5 filter to monochrome image I (wrapping at the boundaries) */
static uint8 applyFilter(
const uint8* I,
int x,
int y,
int w,
int h,
const float filter[5][5]) {
debugAssert(isEven(w));
debugAssert(isEven(h));
float sum = 0.0f;
float denom = 0.0f;
for (int dy = 0; dy < 5; ++dy) {
int offset = ((y + dy + h - 2) % h) * w;
for (int dx = 0; dx < 5; ++dx) {
float f = filter[dy][dx];
sum += f * I[((x + dx + w - 2) % w) + offset];
denom += f;
}
}
return (uint8)iClamp(iRound(sum / denom), 0, 255);
}
/**
@param brighten Most Quake II textures are dark; this argument is a factor to make
them brighter by. Default = 1.0, normal intensity. It is safe to call
load multiple times-- the previously loaded model will be freed correctly.
*/
TextureRef loadBrightTexture(const std::string& filename, double brighten) {
alwaysAssertM(fileExists(filename), std::string("Can't find \"") + filename + "\"");
TextureRef texture;
if (brighten == 1.0) {
texture = Texture::fromFile(filename, TextureFormat::RGBA8, Texture::CLAMP);
} else {
// Brighten the image
GImage im(filename);
if (im.channels == 3) {
for (int i = im.width * im.height - 1; i >= 0; --i) {
Color3uint8& color = im.pixel3()[i];
for (int c = 0; c < 3; ++c) {
color[c] = iClamp(color[c] * brighten, 0, 255);
}
}
const uint8* array[1];
array[0] = im.byte();
texture = Texture::fromMemory(filename, array, TextureFormat::RGB8, im.width, im.height, 1, TextureFormat::RGB8, Texture::CLAMP);
} else {
for (int i = im.width * im.height - 1; i >= 0; --i) {
Color4uint8& color = im.pixel4()[i];
for (int c = 0; c < 3; ++c) {
color[c] = iClamp(color[c] * brighten, 0, 255);
}
}
const uint8* array[1];
array[0] = im.byte();
texture = Texture::fromMemory(filename, array, TextureFormat::RGBA8, im.width, im.height, 1, TextureFormat::RGBA8, Texture::CLAMP);
}
}
return texture;
}
void TextOutput::setIndentLevel(int i) {
indentLevel = i;
// If there were more pops than pushes, don't let that take us below 0 indent.
// Don't ever indent more than the number of columns.
indentSpaces =
iClamp(option.spacesPerIndent * indentLevel,
0,
option.numColumns - 1);
}
void Texture::Preprocess::modulateImage(ImageFormat::Code fmt, void* _byte, int n) const {
debugAssertM(
(fmt == ImageFormat::CODE_RGB8) ||
(fmt == ImageFormat::CODE_RGBA8) ||
(fmt == ImageFormat::CODE_R8) ||
(fmt == ImageFormat::CODE_L8),
"Texture preprocessing only implemented for 1, 3, 4 8-bit channels.");
uint8* byte = static_cast<uint8*>(_byte);
// Make a lookup table
uint8 adjust[4][256];
for (int c = 0; c < 4; ++c) {
for (int i = 0; i < 256; ++i) {
float s = float(pow((i * modulate[c]) / 255, gammaAdjust) * 255);
adjust[c][i] = iClamp(iRound(s), 0, 255);
}
}
switch (fmt) {
case ImageFormat::CODE_RGBA8:
for (int i = 0; i < n; ++i) {
for (int c = 0; c < 3; ++c, ++i) {
byte[i] = adjust[c][byte[i]];
}
}
if (convertToPremultipliedAlpha) {
for (int i = 0; i < n; i += 4) {
int a = byte[i + 3];
for (int c = 0; c < 3; ++c) {
byte[i + c] = (int(byte[i + c]) * a) / 255;
}
}
}
break;
case ImageFormat::CODE_RGB8:
for (int i = 0; i < n; ) {
for (int c = 0; c < 3; ++c, ++i) {
byte[i] = adjust[c][byte[i]];
}
}
break;
case ImageFormat::CODE_R8:
case ImageFormat::CODE_L8:
for (int i = 0; i < n; ++i) {
byte[i] = adjust[0][byte[i]];
}
break;
default:;
}
}
void SDLWindow::setDimensions(const Rect2D& dims) {
#ifdef G3D_WIN32
int W = screenWidth();
int H = screenHeight();
int x = iClamp((int)dims.x0(), 0, W);
int y = iClamp((int)dims.y0(), 0, H);
int w = iClamp((int)dims.width(), 1, W);
int h = iClamp((int)dims.height(), 1, H);
SetWindowPos(_Win32HWND, NULL, x, y, w, h, SWP_NOZORDER);
// Do not update settings-- wait for an event to notify us
#endif
#ifdef G3D_LINUX
//TODO: Linux
#endif
// TODO: OS X
}
void PhysicsFrameSplineEditor::setSpline(const PhysicsFrameSpline& s) {
m_spline = s;
// Ensure that there is at least one node
if (m_spline.control.size() == 0) {
m_spline.control.append(PFrame());
}
m_selectedControlPointIndex = iClamp(m_selectedControlPointIndex, 0, m_spline.control.size() - 1);
m_nodeManipulator->setFrame(m_spline.control[m_selectedControlPointIndex]);
}
void ToneMap::makeGammaCorrectionTextures() {
if (RG.notNull() || (profile == NO_TONE)) {
return;
}
// The inverse gamma ramp function
G3D::uint8 ramp[256];
for (int i = 0; i < 256; ++i) {
// Linear
//ramp[i] = i;
// Inverse power
const double A = 1.9;
// Brighten the screen image by 1.0 / 0.75 = 1.34, since we darkened the
// scene when rendering to avoid saturation.
ramp[i] = iClamp(iRound((1.0 - pow(1.0 - i/255.0, A)) * 255.0 / 0.75), 0, 255);
// Log
// const double A = 10, B = 1;
// ramp[i] = iRound(((log(A*i/255.0 + B) - log(B)) /
// (log(A+B) - log(B))) * 255.0);
}
GImage data(256, 256, 3);
for (int g = 0; g < 256; ++g) {
for (int r = 0; r < 256; ++r) {
Color3uint8& p = data.pixel3(r, g);
p.r = ramp[r];
p.g = ramp[g];
p.b = 0;
}
}
// MIP-mapping causes bad interpolation for some reason
RG = Texture::fromGImage("RG Gamma", data, TextureFormat::RGB8, Texture::DIM_2D, Texture::Settings::video());
if (profile != PS20) {
// On PS20 we can re-use the original RG texture
data.resize(256, 1, 3);
for (int b = 0; b < 256; ++b) {
Color3uint8& p = data.pixel3(b, 0);
p.r = 0;
p.g = 0;
p.b = ramp[b];
}
B = Texture::fromGImage("B Gamma", data, TextureFormat::RGB8, Texture::DIM_2D, Texture::Settings::video());
}
}
void SDLWindow::setPosition(int x, int y) {
#ifdef G3D_WIN32
int W = screenWidth();
int H = screenHeight();
x = iClamp(x, 0, W);
y = iClamp(y, 0, H);
SetWindowPos(_Win32HWND, NULL, x, y, 0, 0, SWP_NOZORDER | SWP_NOSIZE);
// Do not update settings-- wait for an event to notify us
#endif
#ifdef G3D_LINUX
const int W = screenWidth(_X11Display);
const int H = screenHeight(_X11Display);
x = iClamp(x, 0, W);
y = iClamp(y, 0, H);
XMoveWindow(_X11Display, _X11WMWindow, x, y);
#endif
// TODO: OS X
}
bool cTileRasterizer::setup(const cVertex &v0,const cVertex &v1,const cVertex &v2)
{
bool setup_ok=cRasterizer::setup(v0,v1,v2);
// add cTileRasterizer-specific setup code here
mZMin = mZMax = (uint32)iClamp( int(0xffffff*mVertices[0].mAttributes[ATTRIBUTE_POSITION].z), 0, 0xffffff );
for (int i = 1; i < 3; i++) {
// convert float z to 24 bit fixed z
uint32 z = (uint32)iClamp( int(0xffffff*mVertices[i].mAttributes[ATTRIBUTE_POSITION].z), 0, 0xffffff );
mZMin = MIN2(mZMin,z);
mZMax = MAX2(mZMax,z);
}
// compute tile coordinates
mTileCoordsMin.x=(mBBox2DMin.x/mTileWidth); // floor
mTileCoordsMin.y=(mBBox2DMin.y/mTileHeight); // floor
mTileCoordsMax.x=((mBBox2DMax.x+mTileWidth-1)/mTileWidth); // ceil
mTileCoordsMax.y=((mBBox2DMax.y+mTileHeight-1)/mTileHeight); // ceil
return setup_ok;
}
void BinaryOutput::compress(int level) {
if (m_alreadyWritten > 0) {
throw "Cannot compress huge files (part of this file has already been written to disk).";
}
debugAssertM(! m_committed, "Cannot compress after committing.");
alwaysAssertM(m_bufferLen < 0xFFFFFFFF, "Compress only works for 32-bit files.");
// This is the worst-case size, as mandated by zlib
unsigned long compressedSize = iCeil(m_bufferLen * 1.001) + 12;
// Save the old buffer and reallocate to the worst-case size
const uint8* src = m_buffer;
const uint32 srcSize = (uint32)m_bufferLen;
// add space for the 4-byte header
m_maxBufferLen = compressedSize + 4;
m_buffer = (uint8*)System::malloc(m_maxBufferLen);
// Write the header containing the old buffer size, which is needed for decompression
{
const uint8* convert = (const uint8*)&srcSize;
if (m_swapBytes) {
m_buffer[0] = convert[3];
m_buffer[1] = convert[2];
m_buffer[2] = convert[1];
m_buffer[3] = convert[0];
} else {
m_buffer[0] = convert[0];
m_buffer[1] = convert[1];
m_buffer[2] = convert[2];
m_buffer[3] = convert[3];
}
}
// Compress and write after the header
int result = compress2(m_buffer + 4, &compressedSize, src, srcSize, iClamp(level, 0, 9));
debugAssert(result == Z_OK); (void)result;
m_bufferLen = compressedSize + 4;
m_pos = m_bufferLen;
// Free the old data
System::free((void*)src);
}
result CMuli3DPresentTargetLinuxX11::Present( const float32 *i_pSource, uint32 i_iFloats )
{
m3ddeviceparameters DeviceParameters = m_pParent->GetDeviceParameters();
// Copy pixels to the ximage-buffer ---------------------------------------
fpuTruncate();
if( m_iPixelBytes == 2 )
{
// 16-bit
uint16 *pDestination = (uint16 *)m_pXImage->data;
uint32 iPixels = DeviceParameters.iBackbufferWidth * DeviceParameters.iBackbufferHeight;
while( iPixels-- )
{
const int32 iR = iClamp( ftol( i_pSource[0] * m_i16bitMaxVal[0] ), 0, m_i16bitMaxVal[0] );
const int32 iG = iClamp( ftol( i_pSource[1] * m_i16bitMaxVal[1] ), 0, m_i16bitMaxVal[1] );
const int32 iB = iClamp( ftol( i_pSource[2] * m_i16bitMaxVal[2] ), 0, m_i16bitMaxVal[2] );
i_pSource += i_iFloats;
*pDestination++ = ( iR << m_i16bitShift[0] ) | ( iG << m_i16bitShift[1] ) | ( iB << m_i16bitShift[2] );
}
}
else
{
// 24- or 32-bit
uint8 *pDestination = (uint8 *)m_pXImage->data;
uint32 iPixels = DeviceParameters.iBackbufferWidth * DeviceParameters.iBackbufferHeight;
while( iPixels-- )
{
pDestination[0] = iClamp( ftol( i_pSource[2] * 255.0f ), 0, 255 ); // b
pDestination[1] = iClamp( ftol( i_pSource[1] * 255.0f ), 0, 255 ); // g
pDestination[2] = iClamp( ftol( i_pSource[0] * 255.0f ), 0, 255 ); // r
i_pSource += i_iFloats;
pDestination += m_iPixelBytes;
}
}
fpuReset();
// Present to window/screen
XPutImage( m_pDisplay, DeviceParameters.hDeviceWindow, m_WindowGC, m_pXImage, 0, 0,
0, 0, DeviceParameters.iBackbufferWidth, DeviceParameters.iBackbufferHeight );
return s_ok;
}
void MD2Model::Part::load(const std::string& filename, float resize) {
resize *= 0.55f;
// If models are being reloaded it is dangerous to trust the interpolation cache.
interpolatedModel = NULL;
alwaysAssertM(FileSystem::exists(filename), std::string("Can't find \"") + filename + "\"");
setNormalTable();
// Clear out
reset();
BinaryInput b(filename, G3D_LITTLE_ENDIAN);
MD2ModelHeader header;
header.deserialize(b);
debugAssert(header.version == 8);
debugAssert(header.numVertices <= 4096);
keyFrame.resize(header.numFrames);
Array<Vector3> frameMin;
frameMin.resize(header.numFrames);
Array<Vector3> frameMax;
frameMax.resize(header.numFrames);
Array<double> frameRad;
frameRad.resize(header.numFrames);
texCoordScale.x = 1.0f / header.skinWidth;
texCoordScale.y = 1.0f / header.skinHeight;
Vector3 min = Vector3::inf();
Vector3 max = -Vector3::inf();
double rad = 0;
if (header.numVertices < 3) {
Log::common()->printf("\n*****************\nWarning: \"%s\" is corrupted and is not being loaded.\n", filename.c_str());
return;
}
loadTextureFilenames(b, header.numSkins, header.offsetSkins);
for (int f = 0; f < keyFrame.size(); ++f) {
MD2Frame md2Frame;
b.setPosition(header.offsetFrames + f * header.frameSize);
md2Frame.deserialize(b);
// Read the vertices for the frame
keyFrame[f].vertexArray.resize(header.numVertices);
keyFrame[f].normalArray.resize(header.numVertices);
// Per-pose bounds
Vector3 min_1 = Vector3::inf();
Vector3 max_1 = -Vector3::inf();
double rad_1 = 0;
// Quake's axes are permuted and scaled
double scale[3] = {-.07, .07, -.07};
int permute[3] = {2, 0, 1};
int v, i;
for (v = 0; v < header.numVertices; ++v) {
Vector3& vertex = keyFrame[f].vertexArray[v];
for (i = 0; i < 3; ++i) {
vertex[permute[i]] = (b.readUInt8() * md2Frame.scale[i] + md2Frame.translate[i]) * float(scale[permute[i]]);
}
vertex *= resize;
uint8 normalIndex = b.readUInt8();
debugAssertM(normalIndex < 162, "Illegal canonical normal index in file");
keyFrame[f].normalArray[v] = iClamp(normalIndex, 0, 161);
min_1 = min_1.min(vertex);
max_1 = max_1.max(vertex);
if (vertex.squaredMagnitude() > rad_1) {
rad_1 = vertex.squaredMagnitude();
}
}
frameMin[f] = min_1;
frameMax[f] = max_1;
frameRad[f] = sqrt(rad_1);
min = min.min(min_1);
max = max.max(max_1);
if (rad_1 > rad) {
rad = rad_1;
}
}
// Compute per-animation bounds based on frame bounds
for (int a = 0; a < JUMP; ++a) {
const int first = animationTable[a].first;
const int last = animationTable[a].last;
if ((first < header.numFrames) && (last < header.numFrames)) {
Vector3 min = frameMin[first];
Vector3 max = frameMax[first];
double rad = frameRad[first];
for (int i = first + 1; i <= last; ++i) {
min = min.min(frameMin[i]);
max = max.max(frameMax[i]);
rad = G3D::max(rad, frameRad[i]);
}
animationBoundingBox[a] = AABox(min, max);
// Sometimes the sphere bounding the box is tighter than the one we calculated.
const float boxRadSq = (max-min).squaredMagnitude() * 0.25f;
if (boxRadSq >= square(rad)) {
animationBoundingSphere[a] = Sphere(Vector3::zero(), (float)rad);
} else {
animationBoundingSphere[a] = Sphere((max + min) * 0.5f, sqrt(boxRadSq));
}
} else {
// This animation is not supported by this model
animationBoundingBox[a] = AABox(Vector3::zero(), Vector3::zero());
animationBoundingSphere[a] = Sphere(Vector3::zero(), 0);
}
}
animationBoundingBox[JUMP] = animationBoundingBox[JUMP_DOWN];
animationBoundingSphere[JUMP] = animationBoundingSphere[JUMP_DOWN];
boundingBox = AABox(min, max);
boundingSphere = Sphere(Vector3::zero(), (float)sqrt(rad));
// Load the texture coords
Array<Vector2int16> fileTexCoords;
fileTexCoords.resize(header.numTexCoords);
b.setPosition(header.offsetTexCoords);
for (int t = 0; t < fileTexCoords.size(); ++t) {
fileTexCoords[t].x = b.readUInt16();
fileTexCoords[t].y = b.readUInt16();
}
// The indices for the texture coords (which don't match the
// vertex indices originally).
indexArray.resize(header.numTriangles * 3);
Array<Vector2int16> index_texCoordArray;
index_texCoordArray.resize(indexArray.size());
// Read the triangles, reversing them to get triangle list order
b.setPosition(header.offsetTriangles);
for (int t = header.numTriangles - 1; t >= 0; --t) {
for (int i = 2; i >= 0; --i) {
indexArray[t * 3 + i] = b.readUInt16();
}
for (int i = 2; i >= 0; --i) {
index_texCoordArray[t * 3 + i] = fileTexCoords[b.readUInt16()];
}
}
computeTexCoords(index_texCoordArray);
// Read the primitives
{
primitiveArray.clear();
b.setPosition(header.offsetGlCommands);
int n = b.readInt32();
while (n != 0) {
Primitive& primitive = primitiveArray.next();
if (n > 0) {
primitive.type = PrimitiveType::TRIANGLE_STRIP;
} else {
primitive.type = PrimitiveType::TRIANGLE_FAN;
n = -n;
}
primitive.pvertexArray.resize(n);
Array<Primitive::PVertex>& pvertex = primitive.pvertexArray;
for (int i = 0; i < pvertex.size(); ++i) {
pvertex[i].texCoord.x = b.readFloat32();
pvertex[i].texCoord.y = b.readFloat32();
pvertex[i].index = b.readInt32();
}
n = b.readInt32();
}
}
MeshAlg::computeAdjacency(keyFrame[0].vertexArray, indexArray, faceArray, edgeArray, vertexArray);
weldedFaceArray = faceArray;
weldedEdgeArray = edgeArray;
weldedVertexArray = vertexArray;
MeshAlg::weldAdjacency(keyFrame[0].vertexArray, weldedFaceArray, weldedEdgeArray, weldedVertexArray);
numBoundaryEdges = MeshAlg::countBoundaryEdges(edgeArray);
numWeldedBoundaryEdges = MeshAlg::countBoundaryEdges(weldedEdgeArray);
shared_ptr<VertexBuffer> indexBuffer =
VertexBuffer::create(indexArray.size() * sizeof(int), VertexBuffer::WRITE_ONCE);
indexVAR = IndexStream(indexArray, indexBuffer);
}
void GuiDropDownList::setList(const Array<GuiText>& c) {
m_listValue = c;
*m_indexValue = iClamp(*m_indexValue, 0, m_listValue.size() - 1);
m_menu.reset();
}
Vector2int16 Vector2int16::clamp(const Vector2int16& lo, const Vector2int16& hi) {
return Vector2int16(iClamp(x, lo.x, hi.x), iClamp(y, lo.y, hi.y));
}
Vector4int8::Vector4int8(const Vector3& source, int8 w) : w(w) {
x = iClamp(iRound(source.x), -128, 127);
y = iClamp(iRound(source.y), -128, 127);
z = iClamp(iRound(source.z), -128, 127);
}
Color1uint8::Color1uint8(const class Color1& c) : value(iClamp(iFloor(c.value * 256), 0, 255)) {
}
/** Converts a bug count into a quality rating*/
const char* quality(int bugCount) {
static const char* q[] = {"A+", "A-", "B+", "B-", "C+", "C-", "D+", "D-", "F"};
return q[iClamp(bugCount, 0, 8)];
}
void App::onGraphics (RenderDevice *rd, Array< SurfaceRef > &posed3D, Array< Surface2DRef > &posed2D) {
rd->setColorClearValue(Color3::white());
rd->clear();
doFunStuff();
rd->push2D();
int w = rd->width();
int h = rd->height();
///////////////////////////////////////
// Left panel
# define LABEL(str) p.y += titleFont->draw2D(rd, str, p - Vector2((float)w * 0.0075f, 0), s * 2, Color3::white() * 0.4f).y
# define PRINT(str) p.y += reportFont->draw2D(rd, str, p, s, Color3::black()).y
int x0 = int(w * 0.015f);
// Cursor position
Vector2 p(x0, h * 0.02f);
// Font size
float s = w * 0.013;
LABEL("Shaders");
PRINT(std::string("Combiners: ") + combineShader);
PRINT(std::string("Assembly: ") + asmShader);
PRINT(std::string("GLSL: ") + glslShader);
p.y += s * 2;
LABEL("Extensions");
PRINT(std::string("FSAA: ") + ((GLCaps::supports("WGL_ARB_multisample") || GLCaps::supports("GL_ARB_multisample")) ? "Yes" : "No"));
PRINT(std::string("Two-sided Stencil: ") + ((GLCaps::supports_two_sided_stencil() ? "Yes" : "No")));
PRINT(std::string("Stencil Wrap: ") + (GLCaps::supports("GL_EXT_stencil_wrap") ? "Yes" : "No"));
PRINT(std::string("Texture Compression: ") + (GLCaps::supports("GL_EXT_texture_compression_s3tc") ? "Yes" : "No"));
PRINT(std::string("Shadow Maps: ") + (GLCaps::supports("GL_ARB_shadow") ? "Yes" : "No"));
PRINT(std::string("Frame Buffer Object: ") + (GLCaps::supports("GL_EXT_framebuffer_object") ? "Yes" : "No"));
PRINT(std::string("Vertex Arrays: ") + (GLCaps::supports_GL_ARB_vertex_buffer_object() ? "Yes" : "No"));
///////////////////////////////////////
// Right Panel
x0 = int(w * 0.6f);
// Cursor position
p = Vector2(x0, h * 0.02f);
// Graphics Card
LABEL("Graphics Card");
rd->setTexture(0, cardLogo);
Draw::rect2D(Rect2D::xywh(p.x - s * 6, p.y, s * 5, s * 5), rd);
rd->setTexture(0, NULL);
PRINT(GLCaps::vendor().c_str());
PRINT(GLCaps::renderer().c_str());
PRINT(format("Driver Version %s", GLCaps::driverVersion().c_str()));
# ifdef G3D_WIN32
PRINT(format("%d MB Video RAM", DXCaps::videoMemorySize() / (1024 * 1024)));
{
uint32 ver = DXCaps::version();
PRINT(format("DirectX %d.%d", ver/100, ver%100));
}
# endif
p.y += s * 2;
// Processor
LABEL("Processor");
rd->setTexture(0, chipLogo);
Draw::rect2D(Rect2D::xywh(p.x - s * 6, p.y, s * 5, s * 5), rd);
rd->setTexture(0, NULL);
PRINT(System::cpuVendor().c_str());
PRINT(System::cpuArchitecture().c_str());
Array<std::string> features;
if (System::has3DNow()) {
features.append("3DNow");
}
if (System::hasMMX()) {
features.append("MMX");
}
if (System::hasSSE()) {
features.append("SSE");
}
if (System::hasSSE2()) {
features.append("SSE2");
}
if (chipSpeed != "") {
PRINT(chipSpeed + " " + stringJoin(features, '/'));
} else {
PRINT(stringJoin(features, '/'));
}
p.y += s * 2;
// Operating System
LABEL("OS");
rd->setTexture(0, osLogo);
Draw::rect2D(Rect2D::xywh(p.x - s * 6, p.y - s * 2, s * 5, s * 5), rd);
rd->setTexture(0, NULL);
if (beginsWith(System::operatingSystem(), "Windows 5.0")) {
PRINT("Windows 2000");
} else if (beginsWith(System::operatingSystem(), "Windows 5.1")) {
PRINT("Windows XP");
}
PRINT(System::operatingSystem().c_str());
p.y += s * 3;
x0 = int(w - s * 10);
titleFont->draw2D(rd, "Features", p - Vector2(w * 0.0075f, 0), s * 2, Color3::white() * 0.4f);
p.y += reportFont->draw2D(rd, format("f%d", featureRating), Vector2(x0, p.y), s*2, Color3::red() * 0.5).y;
drawBar(rd, featureRating, p);
// Designed to put NV40 at 50
performanceRating = log(rd->stats().frameRate) * 15.0f;
p.y += s * 4;
performanceButton =
Rect2D::xywh(p,
titleFont->draw2D(rd, "Speed", p - Vector2(w * 0.0075f, 0), s * 2, Color3::white() * 0.4f));
{
float spd = iRound(performanceRating * 10) / 10.0f;
p.y += reportFont->draw2D(rd, format("%5.1f", spd), Vector2(x0 - s*2, p.y), s*2, Color3::red() * 0.5).y;
}
drawBar(rd, (int)min(performanceRating, 100.0f), p);
p.y += s * 4;
titleFont->draw2D(rd, "Quality", p - Vector2(w * 0.0075f, 0), s * 2, Color3::white() * 0.4f);
p.y += reportFont->draw2D(rd, quality(bugCount), Vector2(x0, p.y), s*2, Color3::red() * 0.5f).y;
drawBar(rd, iClamp(100 - bugCount * 10, 0, 100), p);
# undef PRINT
p.y = h - 50;
# define PRINT(str) p.y += reportFont->draw2D(rd, str, p, 8, Color3::black()).y;
PRINT("These ratings are based on the performance of G3D apps.");
PRINT("They may not be representative of overall 3D performance.");
PRINT("Speed is based on both processor and graphics card. Upgrading");
PRINT("your graphics driver may improve Quality and Features.");
# undef PRINT
# undef LABEL
switch (popup) {
case NONE:
break;
case PERFORMANCE:
{
// Draw the popup box
Rect2D box = drawPopup("Performance Details");
p.x = box.x0() + 10;
p.y = box.y0() + 30;
Vector2 spacing(box.width() / 6.5, 0);
std::string str;
float factor = 3 * vertexPerformance.numTris / 1e6;
# define PRINT(cap, val) \
reportFont->draw2D(rd, cap, p, s, Color3::black());\
reportFont->draw2D(rd, (vertexPerformance.val[0] > 0) ? \
format("%5.1f", vertexPerformance.val[0]) : \
std::string("X"), p + spacing * 3, s, Color3::red() * 0.5, Color4::clear(), GFont::XALIGN_RIGHT);\
reportFont->draw2D(rd, (vertexPerformance.val[0] > 0) ? \
format("%5.1f", factor * vertexPerformance.val[0]) : \
std::string("X"), p + spacing * 4, s, Color3::red() * 0.5, Color4::clear(), GFont::XALIGN_RIGHT);\
reportFont->draw2D(rd, (vertexPerformance.val[1] > 0) ? \
format("%5.1f", vertexPerformance.val[1]) : \
std::string("X"), p + spacing * 5, s, Color3::red() * 0.5, Color4::clear(), GFont::XALIGN_RIGHT);\
p.y += reportFont->draw2D(rd, (vertexPerformance.val[1] > 0) ? \
format("%5.1f", factor * vertexPerformance.val[1]) : \
std::string("X"), p + spacing * 6, s, Color3::red() * 0.5, Color4::clear(), GFont::XALIGN_RIGHT).y;
reportFont->draw2D(rd, "Incoherent", p + spacing * 3.5, s, Color3::black(), Color4::clear(), GFont::XALIGN_RIGHT);
p.y += reportFont->draw2D(rd, "Coherent", p + spacing * 5.5, s, Color3::black(), Color4::clear(), GFont::XALIGN_RIGHT).y;
reportFont->draw2D(rd, "FPS*", p + spacing * 3, s, Color3::black(), Color4::clear(), GFont::XALIGN_RIGHT);
reportFont->draw2D(rd, "MVerts/s", p + spacing * 4, s, Color3::black(), Color4::clear(), GFont::XALIGN_RIGHT);
reportFont->draw2D(rd, "FPS*", p + spacing * 5, s, Color3::black(), Color4::clear(), GFont::XALIGN_RIGHT).y;
p.y += reportFont->draw2D(rd, "MVerts/s", p + spacing * 6, s, Color3::black(), Color4::clear(), GFont::XALIGN_RIGHT).y;
PRINT("glBegin/glEnd", beginEndFPS);
PRINT("glDrawElements", drawElementsRAMFPS);
PRINT(" + VBO", drawElementsVBOFPS);
PRINT(" + uint16", drawElementsVBO16FPS);
PRINT(" + gl interleave", drawElementsVBOIFPS);
PRINT(" + manual interleave", drawElementsVBOIMFPS);
PRINT(" (without shading)", drawElementsVBOPeakFPS);
reportFont->draw2D(rd, "glDrawArrays", p, s, Color3::black());
reportFont->draw2D(rd, (vertexPerformance.drawArraysVBOPeakFPS > 0) ? \
format("%5.1f", vertexPerformance.drawArraysVBOPeakFPS) : \
std::string("X"), p + spacing * 5, s, Color3::red() * 0.5, Color4::clear(), GFont::XALIGN_RIGHT);\
p.y += reportFont->draw2D(rd, (vertexPerformance.drawArraysVBOPeakFPS > 0) ? \
format("%5.1f", factor * vertexPerformance.drawArraysVBOPeakFPS) : \
std::string("X"), p + spacing * 6, s, Color3::red() * 0.5, Color4::clear(), GFont::XALIGN_RIGHT).y;
# undef PRINT
p.y += s;
p.y += reportFont->draw2D(rd, format("* FPS at %d k polys/frame.",
iRound(vertexPerformance.numTris / 1000.0)), p + Vector2(20, 0), s, Color3::black()).y;
}
}
rd->pop2D();
}
result CMuli3DPresentTargetAmigaOS4::Present( const float32 *i_pSource, uint32 i_iFloats )
{
m3ddeviceparameters DeviceParameters = m_pParent->GetDeviceParameters();
// Copy pixels to the image-buffer ---------------------------------------
// Doesn't currently do anything...
fpuTruncate();
// Picasso96 RenderInfo for locking the bitmap
struct RenderInfo ri;
// Lock bitmap for drawing
ULONG lock = IP96->p96LockBitMap( m_pBitMap, (UBYTE*)&ri, sizeof(struct RenderInfo) );
if ( lock )
{
// Pointer to allocated buffer
uint8 *pDestination = (uint8 *)ri.Memory;
// Help pointer to a row in bitmap
uint8 *_pDestination;
for ( uint32 y = 0; y < DeviceParameters.iBackbufferHeight; y++ )
{
// Next row
_pDestination = pDestination + y * ri.BytesPerRow;
for ( uint32 x = 0; x < DeviceParameters.iBackbufferWidth; x++ )
{
//*_pDestination++ = iClamp( (int32)( *i_pSource++ * 255.0f ), 0, 255 ); // r
//*_pDestination++ = iClamp( (int32)( *i_pSource++ * 255.0f ), 0, 255 ); // g
//*_pDestination++ = iClamp( (int32)( *i_pSource++ * 255.0f ), 0, 255 ); // b
// Set r, g and b bytes in our buffer
_pDestination[0] = iClamp( ftol( i_pSource[0] * 255.0f ), 0, 255 ); // r
_pDestination[1] = iClamp( ftol( i_pSource[1] * 255.0f ), 0, 255 ); // g
_pDestination[2] = iClamp( ftol( i_pSource[2] * 255.0f ), 0, 255 ); // b
//*_pDestination++ = (iClamp( ftol( i_pSource[0] * 255.0f ), 0, 255 ) << 16) |
// (iClamp( ftol( i_pSource[1] * 255.0f ), 0, 255 ) << 8) |
// iClamp( ftol( i_pSource[2] * 255.0f ), 0, 255 );
i_pSource += i_iFloats;
_pDestination += 3;
}
}
IP96->p96UnlockBitMap( m_pBitMap, lock );
// Blit bitmap to window
IGraphics->BltBitMapRastPort( m_pBitMap, 0, 0, DeviceParameters.hDeviceWindow->RPort, DeviceParameters.hDeviceWindow->BorderLeft, DeviceParameters.hDeviceWindow->BorderTop, DeviceParameters.iBackbufferWidth, DeviceParameters.iBackbufferHeight, 0xC0);
IGraphics->WaitTOF();
} // lock
// Doesn't currently do anything...
fpuReset();
return s_ok;
}
result CMuli3DPresentTargetWin32::Present( const float32 *i_pSource, uint32 i_iFloats )
{
m3ddeviceparameters DeviceParameters = m_pParent->GetDeviceParameters();
// Check for lost DirectDraw surfaces -------------------------------------
if( m_bDDSurfaceLost )
{
m_pDirectDrawSurfaces[0]->Restore();
if( DeviceParameters.bWindowed )
m_pDirectDrawSurfaces[1]->Restore();
m_bDDSurfaceLost = false;
}
// Lock backbuffer-surface-------------------------------------------------
DDSURFACEDESC2 descSurface;
descSurface.dwSize = sizeof( DDSURFACEDESC2 );
if( FAILED( m_pDirectDrawSurfaces[1]->Lock( 0, &descSurface, DDLOCK_WAIT|DDLOCK_NOSYSLOCK|DDLOCK_WRITEONLY, 0 ) ) )
{
FUNC_FAILING( "CMuli3DPresentTargetWin32::Present: couldn't lock secondary surface.\n" );
return e_unknown;
}
const uint32 iDestBytes = descSurface.ddpfPixelFormat.dwRGBBitCount / 8;
// Copy pixels to the backbuffer-surface ----------------------------------
const uint32 iDestRowJump = descSurface.lPitch - iDestBytes * DeviceParameters.iBackbufferWidth;
uint8 *pDestination = (uint8 *)descSurface.lpSurface;
fpuTruncate();
if( iDestBytes == 2 )
{
// 16-bit
uint32 iHeight = DeviceParameters.iBackbufferHeight;
while( iHeight-- )
{
uint32 iWidth = DeviceParameters.iBackbufferWidth;
while( iWidth-- )
{
const int32 iR = iClamp( ftol( i_pSource[0] * m_i16bitMaxVal[0] ), 0, m_i16bitMaxVal[0] );
const int32 iG = iClamp( ftol( i_pSource[1] * m_i16bitMaxVal[1] ), 0, m_i16bitMaxVal[1] );
const int32 iB = iClamp( ftol( i_pSource[2] * m_i16bitMaxVal[2] ), 0, m_i16bitMaxVal[2] );
i_pSource += i_iFloats;
*((uint16 *)pDestination) = ( iR << m_i16bitShift[0] ) | ( iG << m_i16bitShift[1] ) | ( iB << m_i16bitShift[2] );
pDestination += 2;
}
pDestination += iDestRowJump;
}
}
else
{
// 24- or 32-bit
uint32 iHeight = DeviceParameters.iBackbufferHeight;
while( iHeight-- )
{
uint32 iWidth = DeviceParameters.iBackbufferWidth;
while( iWidth-- )
{
pDestination[0] = iClamp( ftol( i_pSource[2] * 255.0f ), 0, 255 ); // b
pDestination[1] = iClamp( ftol( i_pSource[1] * 255.0f ), 0, 255 ); // g
pDestination[2] = iClamp( ftol( i_pSource[0] * 255.0f ), 0, 255 ); // r
i_pSource += i_iFloats;
pDestination += iDestBytes;
}
pDestination += iDestRowJump;
}
}
fpuReset();
// Unlock backbuffer-surface and surface
m_pDirectDrawSurfaces[1]->Unlock( 0 );
// Present the image to the screen ----------------------------------------
if( DeviceParameters.bWindowed )
{
POINT pntTopLeft = { 0, 0 };
ClientToScreen( DeviceParameters.hDeviceWindow, &pntTopLeft );
RECT rctDestination;
GetClientRect( DeviceParameters.hDeviceWindow, &rctDestination );
OffsetRect( &rctDestination, pntTopLeft.x, pntTopLeft.y );
RECT rctSource;
SetRect( &rctSource, 0, 0, DeviceParameters.iBackbufferWidth, DeviceParameters.iBackbufferHeight );
// Blt secondary to primary surface
if( FAILED( m_pDirectDrawSurfaces[0]->Blt( &rctDestination, m_pDirectDrawSurfaces[1], &rctSource, DDBLT_WAIT, 0 ) ) )
{
m_bDDSurfaceLost = true;
FUNC_FAILING( "CMuli3DPresentTargetWin32::Present: primary surfaces have been lost!\n" );
return e_unknown;
}
}
else
{
if( FAILED( m_pDirectDrawSurfaces[0]->Flip( 0, DDFLIP_WAIT ) ) )
{
m_bDDSurfaceLost = true;
FUNC_FAILING( "CMuli3DPresentTargetWin32::Present: surfaces have been lost!\n" );
return e_unknown;
}
}
return s_ok;
}
Vector4int8::Vector4int8(const Vector4& source) {
x = iClamp(iRound(source.x), -128, 127);
y = iClamp(iRound(source.y), -128, 127);
z = iClamp(iRound(source.z), -128, 127);
w = iClamp(iRound(source.w), -128, 127);
}
void PhysicsFrameSplineEditor::setSelectedControlPointIndex(int i) {
m_selectedControlPointIndex = iClamp(i, 0, m_spline.control.size() - 1);
// Move the manipulator to the new control point
m_nodeManipulator->setFrame(m_spline.control[m_selectedControlPointIndex]);
}
void Welder::toGridCoords(Vector3 v, int& x, int& y, int& z) const {
v = (v - offset) * scale;
x = iClamp(iFloor(v.x * GRID_RES), 0, GRID_RES - 1);
y = iClamp(iFloor(v.y * GRID_RES), 0, GRID_RES - 1);
z = iClamp(iFloor(v.z * GRID_RES), 0, GRID_RES - 1);
}
Vector2int32 Vector2int32::clamp(const Vector2int32& lo, const Vector2int32& hi) {
return Vector2int32(iClamp(x, lo.x, hi.x), iClamp(y, lo.y, hi.y));
}
SDLWindow::SDLWindow(const GWindow::Settings& settings) {
#if defined(G3D_OSX)
NSApplicationWrapper wrapper;
// Hack to get our window/process to the front...
ProcessSerialNumber psn = { 0, kCurrentProcess};
TransformProcessType (&psn, kProcessTransformToForegroundApplication);
SetFrontProcess (&psn);
_pool = new NSAutoreleasePoolWrapper();
#endif
if (SDL_Init(SDL_INIT_NOPARACHUTE | SDL_INIT_VIDEO |
SDL_INIT_JOYSTICK) < 0 ) {
fprintf(stderr, "Unable to initialize SDL: %s\n", SDL_GetError());
debugPrintf("Unable to initialize SDL: %s\n", SDL_GetError());
Log::common()->printf("Unable to initialize SDL: %s\n", SDL_GetError());
exit(1);
}
// Set default icon if available
if (settings.defaultIconFilename != "nodefault") {
try {
GImage defaultIcon;
defaultIcon.load(settings.defaultIconFilename);
setIcon(defaultIcon);
} catch (const GImage::Error& e) {
// Throw away default icon
fprintf(stderr, "GWindow's default icon failed to load: %s (%s)", e.filename.c_str(), e.reason.c_str());
debugPrintf("GWindow's default icon failed to load: %s (%s)", e.filename.c_str(), e.reason.c_str());
Log::common()->printf("GWindow's default icon failed to load: %s (%s)", e.filename.c_str(), e.reason.c_str());
}
}
if (! settings.fullScreen) {
// This doesn't really work very well due to SDL bugs so we fix up
// the position after the window is created.
if (settings.center) {
System::setEnv("SDL_VIDEO_CENTERED", "");
} else {
System::setEnv("SDL_VIDEO_WINDOW_POS", format("%d,%d", settings.x, settings.y));
}
}
_mouseVisible = true;
_inputCapture = false;
// Request various OpenGL parameters
SDL_GL_SetAttribute(SDL_GL_DEPTH_SIZE, settings.depthBits);
SDL_GL_SetAttribute(SDL_GL_DOUBLEBUFFER, 1);
SDL_GL_SetAttribute(SDL_GL_STENCIL_SIZE, settings.stencilBits);
SDL_GL_SetAttribute(SDL_GL_RED_SIZE, settings.rgbBits);
SDL_GL_SetAttribute(SDL_GL_GREEN_SIZE, settings.rgbBits);
SDL_GL_SetAttribute(SDL_GL_BLUE_SIZE, settings.rgbBits);
SDL_GL_SetAttribute(SDL_GL_ALPHA_SIZE, settings.alphaBits);
SDL_GL_SetAttribute(SDL_GL_STEREO, settings.stereo);
#if SDL_FSAA
if (settings.fsaaSamples > 1) {
SDL_GL_SetAttribute(SDL_GL_MULTISAMPLEBUFFERS, 1);
SDL_GL_SetAttribute(SDL_GL_MULTISAMPLESAMPLES,
settings.fsaaSamples);
}
#endif
// Create a width x height OpenGL screen
int flags =
SDL_HWSURFACE |
SDL_OPENGL |
(settings.fullScreen ? SDL_FULLSCREEN : 0) |
(settings.resizable ? SDL_RESIZABLE : 0) |
(settings.framed ? 0 : SDL_NOFRAME);
if (SDL_SetVideoMode(settings.width, settings.height, 0, flags) == NULL) {
debugAssert(false);
Log::common()->printf("Unable to create OpenGL screen: %s\n",
SDL_GetError());
error("Critical Error",
format("Unable to create OpenGL screen: %s\n",
SDL_GetError()).c_str(), true);
SDL_Quit();
exit(2);
}
// See what video mode we really got
_settings = settings;
int depthBits, stencilBits, redBits, greenBits, blueBits, alphaBits;
glGetIntegerv(GL_DEPTH_BITS, &depthBits);
glGetIntegerv(GL_STENCIL_BITS, &stencilBits);
glGetIntegerv(GL_RED_BITS, &redBits);
glGetIntegerv(GL_GREEN_BITS, &greenBits);
glGetIntegerv(GL_BLUE_BITS, &blueBits);
glGetIntegerv(GL_ALPHA_BITS, &alphaBits);
int actualFSAABuffers = 0, actualFSAASamples = 0;
#if SDL_FSAA
SDL_GL_GetAttribute(SDL_GL_MULTISAMPLEBUFFERS, &actualFSAABuffers);
SDL_GL_GetAttribute(SDL_GL_MULTISAMPLESAMPLES, &actualFSAASamples);
#else
(void)actualFSAABuffers;
(void)actualFSAASamples;
#endif
_settings.rgbBits = iMin(iMin(redBits, greenBits), blueBits);
_settings.alphaBits = alphaBits;
_settings.stencilBits = stencilBits;
_settings.depthBits = depthBits;
_settings.fsaaSamples = actualFSAASamples;
SDL_version ver;
SDL_VERSION(&ver);
_version = format("%d,%0d.%0d", ver.major, ver.minor, ver.patch);
SDL_EnableUNICODE(1);
setCaption("G3D");
SDL_SysWMinfo info;
SDL_VERSION(&info.version);
SDL_GetWMInfo(&info);
_glContext = glGetCurrentContext();
#if defined(G3D_WIN32)
// Extract SDL HDC/HWND on Win32
_Win32HWND = info.window;
_Win32HDC = wglGetCurrentDC();
#elif defined(G3D_LINUX)
// Extract SDL's internal Display pointer on Linux
_X11Display = info.info.x11.display;
_X11Window = info.info.x11.window;
_X11WMWindow = info.info.x11.wmwindow;
if (glXGetCurrentDisplay != NULL) {
G3D::_internal::x11Display = glXGetCurrentDisplay();
} else {
G3D::_internal::x11Display = info.info.x11.display;
}
if (glXGetCurrentDrawable != NULL) {
// A Drawable appears to be either a Window or a Pixmap
G3D::_internal::x11Window = glXGetCurrentDrawable();
} else {
G3D::_internal::x11Window = info.info.x11.window;
}
#endif
// Adjust window position
#ifdef G3D_WIN32
if (! settings.fullScreen) {
int W = screenWidth();
int H = screenHeight();
int x = iClamp(settings.x, 0, W);
int y = iClamp(settings.y, 0, H);
if (settings.center) {
x = (W - settings.width) / 2;
y = (H - settings.height) / 2;
}
SetWindowPos(_Win32HWND, NULL, x, y, 0, 0, SWP_NOZORDER | SWP_NOSIZE);
}
#endif
#ifdef G3D_LINUX
if (! settings.fullScreen) {
int W = screenWidth(_X11Display);
int H = screenHeight(_X11Display);
int x = iClamp(settings.x, 0, W);
int y = iClamp(settings.y, 0, H);
if (settings.center) {
x = (W - settings.width) / 2;
y = (H - settings.height) / 2;
}
XMoveWindow(_X11Display, _X11WMWindow, x, y);
}
#endif
// Check for joysticks
int j = SDL_NumJoysticks();
if ((j < 0) || (j > 10)) {
// If there is no joystick adapter on Win32,
// SDL returns ridiculous numbers.
j = 0;
}
if (j > 0) {
SDL_JoystickEventState(SDL_ENABLE);
// Turn on the joysticks
joy.resize(j);
for (int i = 0; i < j; ++i) {
joy[i] = SDL_JoystickOpen(i);
debugAssert(joy[i]);
}
}
GLCaps::init();
// Register this window as the current window
makeCurrent();
# if defined(G3D_LINUX)
// If G3D is using the default assertion hooks, replace them with our own that use
// SDL functions to release the mouse, since we've been unable to implement
// a non-SDL way of releasing the mouse using the X11 handle directly.
if (assertionHook() == _internal::_handleDebugAssert_) {
setFailureHook(SDL_handleDebugAssert_);
}
if (failureHook() == _internal::_handleErrorCheck_) {
setFailureHook(SDL_handleErrorCheck_);
}
# endif
}
