/* * The ManaPlus Client * Copyright (C) 2004-2009 The Mana World Development Team * Copyright (C) 2009-2010 The Mana Developers * Copyright (C) 2011-2012 The ManaPlus Developers * * This file is part of The ManaPlus Client. * * This program is free software; you can redistribute it and/or modify * it under the terms of the GNU General Public License as published by * the Free Software Foundation; either version 2 of the License, or * any later version. * * This program is distributed in the hope that it will be useful, * but WITHOUT ANY WARRANTY; without even the implied warranty of * MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the * GNU General Public License for more details. * * You should have received a copy of the GNU General Public License * along with this program. If not, see <http://www.gnu.org/licenses/>. */ #include "main.h" #if defined USE_OPENGL && !defined ANDROID #include "normalopenglgraphics.h" #include "configuration.h" #include "graphicsmanager.h" #include "graphicsvertexes.h" #include "logger.h" #include "resources/image.h" #include "resources/openglimagehelper.h" #include "utils/stringutils.h" #include <SDL.h> #include "debug.h" GLuint NormalOpenGLGraphics::mLastImage = 0; #ifdef DEBUG_DRAW_CALLS unsigned int NormalOpenGLGraphics::mDrawCalls = 0; unsigned int NormalOpenGLGraphics::mLastDrawCalls = 0; #endif //unsigned int vertexBufSize = 500; NormalOpenGLGraphics::NormalOpenGLGraphics(): mFloatTexArray(nullptr), mIntTexArray(nullptr), mIntVertArray(nullptr), mAlpha(false), mTexture(false), mIsByteColor(false), mFloatColor(1.0f), mMaxVertices(500), #ifdef DEBUG_BIND_TEXTURE mColorAlpha(false), mOldTextureId(0) #else mColorAlpha(false) #endif { mOpenGL = 1; mName = "fast OpenGL"; } NormalOpenGLGraphics::~NormalOpenGLGraphics() { delete [] mFloatTexArray; delete [] mIntTexArray; delete [] mIntVertArray; } void NormalOpenGLGraphics::initArrays() { mMaxVertices = graphicsManager.getMaxVertices(); if (mMaxVertices < 500) mMaxVertices = 500; else if (mMaxVertices > 1024) mMaxVertices = 1024; // need alocate small size, after if limit reached reallocate to double size vertexBufSize = mMaxVertices; mFloatTexArray = new GLfloat[mMaxVertices * 4 + 30]; mIntTexArray = new GLint[mMaxVertices * 4 + 30]; mIntVertArray = new GLint[mMaxVertices * 4 + 30]; } bool NormalOpenGLGraphics::setVideoMode(const int w, const int h, const int bpp, const bool fs, const bool hwaccel, const bool resize, const bool noFrame) { setMainFlags(w, h, bpp, fs, hwaccel, resize, noFrame); return setOpenGLMode(); } static inline void drawQuad(const Image *image, int srcX, int srcY, int dstX, int dstY, int width, int height) { if (OpenGLImageHelper::mTextureType == GL_TEXTURE_2D) { // Find OpenGL normalized texture coordinates. const float texX1 = static_cast<float>(srcX) / static_cast<float>(image->mTexWidth); const float texY1 = static_cast<float>(srcY) / static_cast<float>(image->mTexHeight); const float texX2 = static_cast<float>(srcX + width) / static_cast<float>(image->mTexWidth); const float texY2 = static_cast<float>(srcY + height) / static_cast<float>(image->mTexHeight); GLfloat tex[] = { texX1, texY1, texX2, texY1, texX2, texY2, texX1, texY2 }; GLint vert[] = { dstX, dstY, dstX + width, dstY, dstX + width, dstY + height, dstX, dstY + height }; glVertexPointer(2, GL_INT, 0, &vert); glTexCoordPointer(2, GL_FLOAT, 0, &tex); #ifdef DEBUG_DRAW_CALLS NormalOpenGLGraphics::mDrawCalls ++; #endif glDrawArrays(GL_QUADS, 0, 4); } else { GLint tex[] = { srcX, srcY, srcX + width, srcY, srcX + width, srcY + height, srcX, srcY + height }; GLint vert[] = { dstX, dstY, dstX + width, dstY, dstX + width, dstY + height, dstX, dstY + height }; glVertexPointer(2, GL_INT, 0, &vert); glTexCoordPointer(2, GL_INT, 0, &tex); #ifdef DEBUG_DRAW_CALLS NormalOpenGLGraphics::mDrawCalls ++; #endif glDrawArrays(GL_QUADS, 0, 4); } } static inline void drawRescaledQuad(const Image *const image, int srcX, int srcY, int dstX, int dstY, int width, int height, int desiredWidth, int desiredHeight) { if (OpenGLImageHelper::mTextureType == GL_TEXTURE_2D) { // Find OpenGL normalized texture coordinates. const float texX1 = static_cast<float>(srcX) / static_cast<float>(image->mTexWidth); const float texY1 = static_cast<float>(srcY) / static_cast<float>(image->mTexHeight); const float texX2 = static_cast<float>(srcX + width) / static_cast<float>(image->mTexWidth); const float texY2 = static_cast<float>(srcY + height) / static_cast<float>(image->mTexHeight); GLfloat tex[] = { texX1, texY1, texX2, texY1, texX2, texY2, texX1, texY2 }; GLint vert[] = { dstX, dstY, dstX + desiredWidth, dstY, dstX + desiredWidth, dstY + desiredHeight, dstX, dstY + desiredHeight }; glVertexPointer(2, GL_INT, 0, &vert); glTexCoordPointer(2, GL_FLOAT, 0, &tex); #ifdef DEBUG_DRAW_CALLS NormalOpenGLGraphics::mDrawCalls ++; #endif glDrawArrays(GL_QUADS, 0, 4); } else { GLint tex[] = { srcX, srcY, srcX + width, srcY, srcX + width, srcY + height, srcX, srcY + height }; GLint vert[] = { dstX, dstY, dstX + desiredWidth, dstY, dstX + desiredWidth, dstY + desiredHeight, dstX, dstY + desiredHeight }; glVertexPointer(2, GL_INT, 0, &vert); glTexCoordPointer(2, GL_INT, 0, &tex); #ifdef DEBUG_DRAW_CALLS NormalOpenGLGraphics::mDrawCalls ++; #endif glDrawArrays(GL_QUADS, 0, 4); } } bool NormalOpenGLGraphics::drawImage2(const Image *const image, int srcX, int srcY, int dstX, int dstY, const int width, const int height, const bool useColor) { FUNC_BLOCK("Graphics::drawImage2", 1) if (!image) return false; srcX += image->mBounds.x; srcY += image->mBounds.y; if (!useColor) setColorAlpha(image->mAlpha); #ifdef DEBUG_BIND_TEXTURE debugBindTexture(image); #endif bindTexture(OpenGLImageHelper::mTextureType, image->mGLImage); setTexturingAndBlending(true); drawQuad(image, srcX, srcY, dstX, dstY, width, height); return true; } bool NormalOpenGLGraphics::drawRescaledImage(const Image *const image, int srcX, int srcY, int dstX, int dstY, const int width, const int height, const int desiredWidth, const int desiredHeight, const bool useColor) { return drawRescaledImage(image, srcX, srcY, dstX, dstY, width, height, desiredWidth, desiredHeight, useColor, true); } bool NormalOpenGLGraphics::drawRescaledImage(const Image *const image, int srcX, int srcY, int dstX, int dstY, const int width, const int height, const int desiredWidth, const int desiredHeight, const bool useColor, bool smooth) { FUNC_BLOCK("Graphics::drawRescaledImage", 1) if (!image) return false; // Just draw the image normally when no resizing is necessary, if (width == desiredWidth && height == desiredHeight) { return drawImage2(image, srcX, srcY, dstX, dstY, width, height, useColor); } // When the desired image is smaller than the current one, // disable smooth effect. if (width > desiredWidth && height > desiredHeight) smooth = false; srcX += image->mBounds.x; srcY += image->mBounds.y; if (!useColor) setColorAlpha(image->mAlpha); #ifdef DEBUG_BIND_TEXTURE debugBindTexture(image); #endif bindTexture(OpenGLImageHelper::mTextureType, image->mGLImage); setTexturingAndBlending(true); // Draw a textured quad. drawRescaledQuad(image, srcX, srcY, dstX, dstY, width, height, desiredWidth, desiredHeight); if (smooth) // A basic smooth effect... { setColorAlpha(0.2f); drawRescaledQuad(image, srcX, srcY, dstX - 1, dstY - 1, width, height, desiredWidth + 1, desiredHeight + 1); drawRescaledQuad(image, srcX, srcY, dstX + 1, dstY + 1, width, height, desiredWidth - 1, desiredHeight - 1); drawRescaledQuad(image, srcX, srcY, dstX + 1, dstY, width, height, desiredWidth - 1, desiredHeight); drawRescaledQuad(image, srcX, srcY, dstX, dstY + 1, width, height, desiredWidth, desiredHeight - 1); } return true; } void NormalOpenGLGraphics::drawImagePattern(const Image *const image, const int x, const int y, const int w, const int h) { FUNC_BLOCK("Graphics::drawImagePattern", 1) if (!image) return; const int srcX = image->mBounds.x; const int srcY = image->mBounds.y; const int iw = image->mBounds.w; const int ih = image->mBounds.h; if (iw == 0 || ih == 0) return; const float tw = static_cast<float>(image->mTexWidth); const float th = static_cast<float>(image->mTexHeight); setColorAlpha(image->mAlpha); #ifdef DEBUG_BIND_TEXTURE debugBindTexture(image); #endif bindTexture(OpenGLImageHelper::mTextureType, image->mGLImage); setTexturingAndBlending(true); unsigned int vp = 0; const unsigned int vLimit = mMaxVertices * 4; // Draw a set of textured rectangles if (OpenGLImageHelper::mTextureType == GL_TEXTURE_2D) { float texX1 = static_cast<float>(srcX) / tw; float texY1 = static_cast<float>(srcY) / th; for (int py = 0; py < h; py += ih) { const int height = (py + ih >= h) ? h - py : ih; const int dstY = y + py; for (int px = 0; px < w; px += iw) { int width = (px + iw >= w) ? w - px : iw; int dstX = x + px; float texX2 = static_cast<float>(srcX + width) / tw; float texY2 = static_cast<float>(srcY + height) / th; mFloatTexArray[vp + 0] = texX1; mFloatTexArray[vp + 1] = texY1; mFloatTexArray[vp + 2] = texX2; mFloatTexArray[vp + 3] = texY1; mFloatTexArray[vp + 4] = texX2; mFloatTexArray[vp + 5] = texY2; mFloatTexArray[vp + 6] = texX1; mFloatTexArray[vp + 7] = texY2; mIntVertArray[vp + 0] = dstX; mIntVertArray[vp + 1] = dstY; mIntVertArray[vp + 2] = dstX + width; mIntVertArray[vp + 3] = dstY; mIntVertArray[vp + 4] = dstX + width; mIntVertArray[vp + 5] = dstY + height; mIntVertArray[vp + 6] = dstX; mIntVertArray[vp + 7] = dstY + height; vp += 8; if (vp >= vLimit) { drawQuadArrayfi(vp); vp = 0; } } } if (vp > 0) drawQuadArrayfi(vp); } else { for (int py = 0; py < h; py += ih) { const int height = (py + ih >= h) ? h - py : ih; const int dstY = y + py; for (int px = 0; px < w; px += iw) { int width = (px + iw >= w) ? w - px : iw; int dstX = x + px; mIntTexArray[vp + 0] = srcX; mIntTexArray[vp + 1] = srcY; mIntTexArray[vp + 2] = srcX + width; mIntTexArray[vp + 3] = srcY; mIntTexArray[vp + 4] = srcX + width; mIntTexArray[vp + 5] = srcY + height; mIntTexArray[vp + 6] = srcX; mIntTexArray[vp + 7] = srcY + height; mIntVertArray[vp + 0] = dstX; mIntVertArray[vp + 1] = dstY; mIntVertArray[vp + 2] = dstX + width; mIntVertArray[vp + 3] = dstY; mIntVertArray[vp + 4] = dstX + width; mIntVertArray[vp + 5] = dstY + height; mIntVertArray[vp + 6] = dstX; mIntVertArray[vp + 7] = dstY + height; vp += 8; if (vp >= vLimit) { drawQuadArrayii(vp); vp = 0; } } } if (vp > 0) drawQuadArrayii(vp); } } void NormalOpenGLGraphics::drawRescaledImagePattern(const Image *const image, const int x, const int y, const int w, const int h, const int scaledWidth, const int scaledHeight) { if (!image) return; if (scaledWidth == 0 || scaledHeight == 0) return; const int srcX = image->mBounds.x; const int srcY = image->mBounds.y; const int iw = image->getWidth(); const int ih = image->getHeight(); if (iw == 0 || ih == 0) return; setColorAlpha(image->mAlpha); #ifdef DEBUG_BIND_TEXTURE debugBindTexture(image); #endif bindTexture(OpenGLImageHelper::mTextureType, image->mGLImage); setTexturingAndBlending(true); unsigned int vp = 0; const unsigned int vLimit = mMaxVertices * 4; // Draw a set of textured rectangles if (OpenGLImageHelper::mTextureType == GL_TEXTURE_2D) { const float tw = static_cast<float>(image->mTexWidth); const float th = static_cast<float>(image->mTexHeight); const float texX1 = static_cast<float>(srcX) / tw; const float texY1 = static_cast<float>(srcY) / th; const float tFractionW = iw / tw; const float tFractionH = ih / th; for (int py = 0; py < h; py += scaledHeight) { const int height = (py + scaledHeight >= h) ? h - py : scaledHeight; const int dstY = y + py; for (int px = 0; px < w; px += scaledWidth) { int width = (px + scaledWidth >= w) ? w - px : scaledWidth; int dstX = x + px; const float visibleFractionW = static_cast<float>(width) / scaledWidth; const float visibleFractionH = static_cast<float>(height) / scaledHeight; const float texX2 = texX1 + tFractionW * visibleFractionW; const float texY2 = texY1 + tFractionH * visibleFractionH; mFloatTexArray[vp + 0] = texX1; mFloatTexArray[vp + 1] = texY1; mFloatTexArray[vp + 2] = texX2; mFloatTexArray[vp + 3] = texY1; mFloatTexArray[vp + 4] = texX2; mFloatTexArray[vp + 5] = texY2; mFloatTexArray[vp + 6] = texX1; mFloatTexArray[vp + 7] = texY2; mIntVertArray[vp + 0] = dstX; mIntVertArray[vp + 1] = dstY; mIntVertArray[vp + 2] = dstX + width; mIntVertArray[vp + 3] = dstY; mIntVertArray[vp + 4] = dstX + width; mIntVertArray[vp + 5] = dstY + height; mIntVertArray[vp + 6] = dstX; mIntVertArray[vp + 7] = dstY + height; vp += 8; if (vp >= vLimit) { drawQuadArrayfi(vp); vp = 0; } } } if (vp > 0) drawQuadArrayfi(vp); } else { const float scaleFactorW = static_cast<float>(scaledWidth) / iw; const float scaleFactorH = static_cast<float>(scaledHeight) / ih; for (int py = 0; py < h; py += scaledHeight) { const int height = (py + scaledHeight >= h) ? h - py : scaledHeight; const int dstY = y + py; const int scaledY = srcY + height / scaleFactorH; for (int px = 0; px < w; px += scaledWidth) { const int width = (px + scaledWidth >= w) ? w - px : scaledWidth; const int dstX = x + px; const int scaledX = srcX + width / scaleFactorW; mIntTexArray[vp + 0] = srcX; mIntTexArray[vp + 1] = srcY; mIntTexArray[vp + 2] = scaledX; mIntTexArray[vp + 3] = srcY; mIntTexArray[vp + 4] = scaledX; mIntTexArray[vp + 5] = scaledY; mIntTexArray[vp + 6] = srcX; mIntTexArray[vp + 7] = scaledY; mIntVertArray[vp + 0] = dstX; mIntVertArray[vp + 1] = dstY; mIntVertArray[vp + 2] = dstX + width; mIntVertArray[vp + 3] = dstY; mIntVertArray[vp + 4] = dstX + width; mIntVertArray[vp + 5] = dstY + height; mIntVertArray[vp + 6] = dstX; mIntVertArray[vp + 7] = dstY + height; vp += 8; if (vp >= vLimit) { drawQuadArrayii(vp); vp = 0; } } } if (vp > 0) drawQuadArrayii(vp); } } void NormalOpenGLGraphics::drawImagePattern2(const GraphicsVertexes *const vert, const Image *const image) { if (!image) return; setColorAlpha(image->mAlpha); #ifdef DEBUG_BIND_TEXTURE debugBindTexture(image); #endif bindTexture(OpenGLImageHelper::mTextureType, image->mGLImage); setTexturingAndBlending(true); drawVertexes(vert->getOGLconst()); } inline void NormalOpenGLGraphics::drawVertexes(const NormalOpenGLGraphicsVertexes &ogl) { const std::vector<GLint*> &intVertPool = ogl.mIntVertPool; std::vector<GLint*>::const_iterator iv; const std::vector<GLint*>::const_iterator iv_end = intVertPool.end(); const std::vector<int> &vp = ogl.mVp; std::vector<int>::const_iterator ivp; const std::vector<int>::const_iterator ivp_end = vp.end(); // Draw a set of textured rectangles if (OpenGLImageHelper::mTextureType == GL_TEXTURE_2D) { const std::vector<GLfloat*> &floatTexPool = ogl.mFloatTexPool; std::vector<GLfloat*>::const_iterator ft; const std::vector<GLfloat*>::const_iterator ft_end = floatTexPool.end(); for (iv = intVertPool.begin(), ft = floatTexPool.begin(), ivp = vp.begin(); iv != iv_end, ft != ft_end, ivp != ivp_end; ++ iv, ++ ft, ++ ivp) { drawQuadArrayfi(*iv, *ft, *ivp); } } else { const std::vector<GLint*> &intTexPool = ogl.mIntTexPool; std::vector<GLint*>::const_iterator it; const std::vector<GLint*>::const_iterator it_end = intTexPool.end(); for (iv = intVertPool.begin(), it = intTexPool.begin(), ivp = vp.begin(); iv != iv_end, it != it_end, ivp != ivp_end; ++ iv, ++ it, ++ ivp) { drawQuadArrayii(*iv, *it, *ivp); } } } void NormalOpenGLGraphics::calcImagePattern(GraphicsVertexes *const vert, const Image *const image, const int x, const int y, const int w, const int h) const { if (!image) { vert->incPtr(1); return; } const int srcX = image->mBounds.x; const int srcY = image->mBounds.y; const int iw = image->mBounds.w; const int ih = image->mBounds.h; if (iw == 0 || ih == 0) { vert->incPtr(1); return; } const float tw = static_cast<float>(image->mTexWidth); const float th = static_cast<float>(image->mTexHeight); unsigned int vp = 0; const unsigned int vLimit = mMaxVertices * 4; NormalOpenGLGraphicsVertexes &ogl = vert->getOGL(); ogl.init(); // Draw a set of textured rectangles if (OpenGLImageHelper::mTextureType == GL_TEXTURE_2D) { float texX1 = static_cast<float>(srcX) / tw; float texY1 = static_cast<float>(srcY) / th; GLfloat *floatTexArray = ogl.switchFloatTexArray(); GLint *intVertArray = ogl.switchIntVertArray(); for (int py = 0; py < h; py += ih) { const int height = (py + ih >= h) ? h - py : ih; const int dstY = y + py; for (int px = 0; px < w; px += iw) { int width = (px + iw >= w) ? w - px : iw; int dstX = x + px; float texX2 = static_cast<float>(srcX + width) / tw; float texY2 = static_cast<float>(srcY + height) / th; floatTexArray[vp + 0] = texX1; floatTexArray[vp + 1] = texY1; floatTexArray[vp + 2] = texX2; floatTexArray[vp + 3] = texY1; floatTexArray[vp + 4] = texX2; floatTexArray[vp + 5] = texY2; floatTexArray[vp + 6] = texX1; floatTexArray[vp + 7] = texY2; intVertArray[vp + 0] = dstX; intVertArray[vp + 1] = dstY; intVertArray[vp + 2] = dstX + width; intVertArray[vp + 3] = dstY; intVertArray[vp + 4] = dstX + width; intVertArray[vp + 5] = dstY + height; intVertArray[vp + 6] = dstX; intVertArray[vp + 7] = dstY + height; vp += 8; if (vp >= vLimit) { floatTexArray = ogl.switchFloatTexArray(); intVertArray = ogl.switchIntVertArray(); ogl.switchVp(vp); vp = 0; } } } } else { GLint *intTexArray = ogl.switchIntTexArray(); GLint *intVertArray = ogl.switchIntVertArray(); for (int py = 0; py < h; py += ih) { const int height = (py + ih >= h) ? h - py : ih; const int dstY = y + py; for (int px = 0; px < w; px += iw) { int width = (px + iw >= w) ? w - px : iw; int dstX = x + px; intTexArray[vp + 0] = srcX; intTexArray[vp + 1] = srcY; intTexArray[vp + 2] = srcX + width; intTexArray[vp + 3] = srcY; intTexArray[vp + 4] = srcX + width; intTexArray[vp + 5] = srcY + height; intTexArray[vp + 6] = srcX; intTexArray[vp + 7] = srcY + height; intVertArray[vp + 0] = dstX; intVertArray[vp + 1] = dstY; intVertArray[vp + 2] = dstX + width; intVertArray[vp + 3] = dstY; intVertArray[vp + 4] = dstX + width; intVertArray[vp + 5] = dstY + height; intVertArray[vp + 6] = dstX; intVertArray[vp + 7] = dstY + height; vp += 8; if (vp >= vLimit) { intTexArray = ogl.switchIntTexArray(); intVertArray = ogl.switchIntVertArray(); ogl.switchVp(vp); vp = 0; } } } } ogl.switchVp(vp); vert->incPtr(1); } void NormalOpenGLGraphics::calcImagePattern(ImageVertexes* const vert, const Image *const image, const int x, const int y, const int w, const int h) const { if (!image) return; const int srcX = image->mBounds.x; const int srcY = image->mBounds.y; const int iw = image->mBounds.w; const int ih = image->mBounds.h; if (iw == 0 || ih == 0) return; const float tw = static_cast<float>(image->mTexWidth); const float th = static_cast<float>(image->mTexHeight); const unsigned int vLimit = mMaxVertices * 4; NormalOpenGLGraphicsVertexes &ogl = vert->ogl; unsigned int vp = ogl.continueVp(); // Draw a set of textured rectangles if (OpenGLImageHelper::mTextureType == GL_TEXTURE_2D) { float texX1 = static_cast<float>(srcX) / tw; float texY1 = static_cast<float>(srcY) / th; GLfloat *floatTexArray = ogl.continueFloatTexArray(); GLint *intVertArray = ogl.continueIntVertArray(); for (int py = 0; py < h; py += ih) { const int height = (py + ih >= h) ? h - py : ih; const int dstY = y + py; for (int px = 0; px < w; px += iw) { int width = (px + iw >= w) ? w - px : iw; int dstX = x + px; float texX2 = static_cast<float>(srcX + width) / tw; float texY2 = static_cast<float>(srcY + height) / th; floatTexArray[vp + 0] = texX1; floatTexArray[vp + 1] = texY1; floatTexArray[vp + 2] = texX2; floatTexArray[vp + 3] = texY1; floatTexArray[vp + 4] = texX2; floatTexArray[vp + 5] = texY2; floatTexArray[vp + 6] = texX1; floatTexArray[vp + 7] = texY2; intVertArray[vp + 0] = dstX; intVertArray[vp + 1] = dstY; intVertArray[vp + 2] = dstX + width; intVertArray[vp + 3] = dstY; intVertArray[vp + 4] = dstX + width; intVertArray[vp + 5] = dstY + height; intVertArray[vp + 6] = dstX; intVertArray[vp + 7] = dstY + height; vp += 8; if (vp >= vLimit) { floatTexArray = ogl.switchFloatTexArray(); intVertArray = ogl.switchIntVertArray(); ogl.switchVp(vp); vp = 0; } } } } else { GLint *intTexArray = ogl.continueIntTexArray(); GLint *intVertArray = ogl.continueIntVertArray(); for (int py = 0; py < h; py += ih) { const int height = (py + ih >= h) ? h - py : ih; const int dstY = y + py; for (int px = 0; px < w; px += iw) { int width = (px + iw >= w) ? w - px : iw; int dstX = x + px; intTexArray[vp + 0] = srcX; intTexArray[vp + 1] = srcY; intTexArray[vp + 2] = srcX + width; intTexArray[vp + 3] = srcY; intTexArray[vp + 4] = srcX + width; intTexArray[vp + 5] = srcY + height; intTexArray[vp + 6] = srcX; intTexArray[vp + 7] = srcY + height; intVertArray[vp + 0] = dstX; intVertArray[vp + 1] = dstY; intVertArray[vp + 2] = dstX + width; intVertArray[vp + 3] = dstY; intVertArray[vp + 4] = dstX + width; intVertArray[vp + 5] = dstY + height; intVertArray[vp + 6] = dstX; intVertArray[vp + 7] = dstY + height; vp += 8; if (vp >= vLimit) { intTexArray = ogl.switchIntTexArray(); intVertArray = ogl.switchIntVertArray(); ogl.switchVp(vp); vp = 0; } } } } ogl.switchVp(vp); } void NormalOpenGLGraphics::calcTile(ImageCollection *const vertCol, const Image *const image, int x, int y) { if (vertCol->currentGLImage != image->mGLImage) { ImageVertexes *const vert = new ImageVertexes(); vertCol->currentGLImage = image->mGLImage; vertCol->currentVert = vert; vert->image = image; vertCol->draws.push_back(vert); calcTile(vert, image, x, y); } else { calcTile(vertCol->currentVert, image, x, y); } } void NormalOpenGLGraphics::drawTile(const ImageCollection *const vertCol) { const ImageVertexesVector &draws = vertCol->draws; const ImageCollectionCIter it_end = draws.end(); for (ImageCollectionCIter it = draws.begin(); it != it_end; ++ it) { const ImageVertexes *const vert = *it; const Image *const image = vert->image; setColorAlpha(image->mAlpha); #ifdef DEBUG_BIND_TEXTURE debugBindTexture(image); #endif bindTexture(OpenGLImageHelper::mTextureType, image->mGLImage); setTexturingAndBlending(true); drawVertexes(vert->ogl); } } void NormalOpenGLGraphics::calcImagePattern(ImageCollection* const vertCol, const Image *const image, const int x, const int y, const int w, const int h) const { ImageVertexes *vert = nullptr; if (vertCol->currentGLImage != image->mGLImage) { vert = new ImageVertexes(); vertCol->currentGLImage = image->mGLImage; vertCol->currentVert = vert; vert->image = image; vertCol->draws.push_back(vert); } else { vert = vertCol->currentVert; } calcImagePattern(vert, image, x, y, w, h); } void NormalOpenGLGraphics::calcTile(ImageVertexes *const vert, const Image *const image, int dstX, int dstY) const { if (!vert || !image) return; const int srcX = image->mBounds.x; const int srcY = image->mBounds.y; const int w = image->mBounds.w; const int h = image->mBounds.h; if (w == 0 || h == 0) return; const float tw = static_cast<float>(image->mTexWidth); const float th = static_cast<float>(image->mTexHeight); const unsigned int vLimit = mMaxVertices * 4; NormalOpenGLGraphicsVertexes &ogl = vert->ogl; // std::vector<int> *vps = ogl.getVp(); unsigned int vp = ogl.continueVp(); // Draw a set of textured rectangles if (OpenGLImageHelper::mTextureType == GL_TEXTURE_2D) { float texX1 = static_cast<float>(srcX) / tw; float texY1 = static_cast<float>(srcY) / th; float texX2 = static_cast<float>(srcX + w) / tw; float texY2 = static_cast<float>(srcY + h) / th; GLfloat *floatTexArray = ogl.continueFloatTexArray(); GLint *intVertArray = ogl.continueIntVertArray(); floatTexArray[vp + 0] = texX1; floatTexArray[vp + 1] = texY1; floatTexArray[vp + 2] = texX2; floatTexArray[vp + 3] = texY1; floatTexArray[vp + 4] = texX2; floatTexArray[vp + 5] = texY2; floatTexArray[vp + 6] = texX1; floatTexArray[vp + 7] = texY2; intVertArray[vp + 0] = dstX; intVertArray[vp + 1] = dstY; intVertArray[vp + 2] = dstX + w; intVertArray[vp + 3] = dstY; intVertArray[vp + 4] = dstX + w; intVertArray[vp + 5] = dstY + h; intVertArray[vp + 6] = dstX; intVertArray[vp + 7] = dstY + h; vp += 8; if (vp >= vLimit) { ogl.switchFloatTexArray(); ogl.switchIntVertArray(); ogl.switchVp(vp); vp = 0; } } else { GLint *intTexArray = ogl.continueIntTexArray(); GLint *intVertArray = ogl.continueIntVertArray(); intTexArray[vp + 0] = srcX; intTexArray[vp + 1] = srcY; intTexArray[vp + 2] = srcX + w; intTexArray[vp + 3] = srcY; intTexArray[vp + 4] = srcX + w; intTexArray[vp + 5] = srcY + h; intTexArray[vp + 6] = srcX; intTexArray[vp + 7] = srcY + h; intVertArray[vp + 0] = dstX; intVertArray[vp + 1] = dstY; intVertArray[vp + 2] = dstX + w; intVertArray[vp + 3] = dstY; intVertArray[vp + 4] = dstX + w; intVertArray[vp + 5] = dstY + h; intVertArray[vp + 6] = dstX; intVertArray[vp + 7] = dstY + h; vp += 8; if (vp >= vLimit) { ogl.switchIntTexArray(); ogl.switchIntVertArray(); ogl.switchVp(vp); vp = 0; } } ogl.switchVp(vp); } void NormalOpenGLGraphics::drawTile(const ImageVertexes *const vert) { if (!vert) return; const Image *image = vert->image; setColorAlpha(image->mAlpha); #ifdef DEBUG_BIND_TEXTURE debugBindTexture(image); #endif bindTexture(OpenGLImageHelper::mTextureType, image->mGLImage); setTexturingAndBlending(true); drawVertexes(vert->ogl); } bool NormalOpenGLGraphics::calcWindow(ImageCollection *const vertCol, const int x, const int y, const int w, const int h, const ImageRect &imgRect) { ImageVertexes *vert = nullptr; Image *const image = imgRect.grid[4]; if (vertCol->currentGLImage != image->mGLImage) { vert = new ImageVertexes(); vertCol->currentGLImage = image->mGLImage; vertCol->currentVert = vert; vert->image = image; vertCol->draws.push_back(vert); } else { vert = vertCol->currentVert; } return calcImageRect(vert, x, y, w, h, imgRect.grid[0], imgRect.grid[2], imgRect.grid[6], imgRect.grid[8], imgRect.grid[1], imgRect.grid[5], imgRect.grid[7], imgRect.grid[3], imgRect.grid[4]); } void NormalOpenGLGraphics::updateScreen() { BLOCK_START("Graphics::updateScreen") // glFlush(); // glFinish(); #ifdef DEBUG_DRAW_CALLS mLastDrawCalls = mDrawCalls; mDrawCalls = 0; #endif SDL_GL_SwapBuffers(); // may be need clear? // glClear(GL_COLOR_BUFFER_BIT | GL_DEPTH_BUFFER_BIT | GL_STENCIL_BUFFER_BIT); BLOCK_END("Graphics::updateScreen") } void NormalOpenGLGraphics::_beginDraw() { glMatrixMode(GL_TEXTURE); glLoadIdentity(); glMatrixMode(GL_PROJECTION); glLoadIdentity(); #ifdef ANDROID glOrthof(0.0, static_cast<float>(mTarget->w), static_cast<float>(mTarget->h), 0.0, -1.0, 1.0); #else glOrtho(0.0, static_cast<double>(mTarget->w), static_cast<double>(mTarget->h), 0.0, -1.0, 1.0); #endif glMatrixMode(GL_MODELVIEW); glLoadIdentity(); glEnable(GL_SCISSOR_TEST); glDisable(GL_DITHER); glBlendFunc(GL_SRC_ALPHA, GL_ONE_MINUS_SRC_ALPHA); glEnableClientState(GL_VERTEX_ARRAY); glDisableClientState(GL_TEXTURE_COORD_ARRAY); #ifndef ANDROID glHint(GL_LINE_SMOOTH_HINT, GL_FASTEST); glHint(GL_PERSPECTIVE_CORRECTION_HINT, GL_FASTEST); glHint(GL_POINT_SMOOTH_HINT, GL_FASTEST); glHint(GL_POLYGON_SMOOTH_HINT, GL_FASTEST); #ifndef __MINGW32__ glHint(GL_TEXTURE_COMPRESSION_HINT, GL_FASTEST); #endif #endif // glScalef(0.5f, 0.5f, 0.5f); pushClipArea(gcn::Rectangle(0, 0, mTarget->w, mTarget->h)); } void NormalOpenGLGraphics::_endDraw() { popClipArea(); } void NormalOpenGLGraphics::prepareScreenshot() { if (config.getBoolValue("usefbo")) graphicsManager.createFBO(mTarget->w, mTarget->h, &mFbo); } SDL_Surface* NormalOpenGLGraphics::getScreenshot() { const int h = mTarget->h; const int w = mTarget->w - (mTarget->w % 4); GLint pack = 1; SDL_Surface *screenshot = SDL_CreateRGBSurface( SDL_SWSURFACE, w, h, 24, 0xff0000, 0x00ff00, 0x0000ff, 0x000000); if (!screenshot) return nullptr; if (SDL_MUSTLOCK(screenshot)) SDL_LockSurface(screenshot); // Grap the pixel buffer and write it to the SDL surface glGetIntegerv(GL_PACK_ALIGNMENT, &pack); glPixelStorei(GL_PACK_ALIGNMENT, 1); glReadPixels(0, 0, w, h, GL_RGB, GL_UNSIGNED_BYTE, screenshot->pixels); // Flip the screenshot, as OpenGL has 0,0 in bottom left unsigned int lineSize = 3 * w; GLubyte* buf = static_cast<GLubyte*>(malloc(lineSize)); for (int i = 0; i < (h / 2); i++) { GLubyte *top = static_cast<GLubyte*>( screenshot->pixels) + lineSize * i; GLubyte *bot = static_cast<GLubyte*>( screenshot->pixels) + lineSize * (h - 1 - i); memcpy(buf, top, lineSize); memcpy(top, bot, lineSize); memcpy(bot, buf, lineSize); } free(buf); if (config.getBoolValue("usefbo")) graphicsManager.deleteFBO(&mFbo); glPixelStorei(GL_PACK_ALIGNMENT, pack); if (SDL_MUSTLOCK(screenshot)) SDL_UnlockSurface(screenshot); return screenshot; } bool NormalOpenGLGraphics::pushClipArea(gcn::Rectangle area) { int transX = 0; int transY = 0; if (!mClipStack.empty()) { const gcn::ClipRectangle &clipArea = mClipStack.top(); transX = -clipArea.xOffset; transY = -clipArea.yOffset; } bool result = gcn::Graphics::pushClipArea(area); const gcn::ClipRectangle &clipArea = mClipStack.top(); transX += clipArea.xOffset; transY += clipArea.yOffset; glPushMatrix(); if (transX || transY) { glTranslatef(static_cast<GLfloat>(transX), static_cast<GLfloat>(transY), 0); } glScissor(clipArea.x, mTarget->h - clipArea.y - clipArea.height, clipArea.width, clipArea.height); return result; } void NormalOpenGLGraphics::popClipArea() { gcn::Graphics::popClipArea(); if (mClipStack.empty()) return; glPopMatrix(); const gcn::ClipRectangle &clipArea = mClipStack.top(); glScissor(clipArea.x, mTarget->h - clipArea.y - clipArea.height, clipArea.width, clipArea.height); } void NormalOpenGLGraphics::setColor(const gcn::Color& color) { mColor = color; mColorAlpha = (color.a != 255); } void NormalOpenGLGraphics::drawPoint(int x, int y) { setTexturingAndBlending(false); restoreColor(); #ifdef ANDROID // TODO need fix #else glBegin(GL_POINTS); glVertex2i(x, y); glEnd(); #endif } void NormalOpenGLGraphics::drawLine(int x1, int y1, int x2, int y2) { setTexturingAndBlending(false); restoreColor(); mFloatTexArray[0] = static_cast<float>(x1) + 0.5f; mFloatTexArray[1] = static_cast<float>(y1) + 0.5f; mFloatTexArray[2] = static_cast<float>(x2) + 0.5f; mFloatTexArray[3] = static_cast<float>(y2) + 0.5f; drawLineArrayf(4); } void NormalOpenGLGraphics::drawRectangle(const gcn::Rectangle& rect) { drawRectangle(rect, false); } void NormalOpenGLGraphics::fillRectangle(const gcn::Rectangle& rect) { drawRectangle(rect, true); } void NormalOpenGLGraphics::setTargetPlane(int width A_UNUSED, int height A_UNUSED) { } void NormalOpenGLGraphics::setTexturingAndBlending(bool enable) { if (enable) { if (!mTexture) { glEnable(OpenGLImageHelper::mTextureType); glEnableClientState(GL_TEXTURE_COORD_ARRAY); mTexture = true; } if (!mAlpha) { glEnable(GL_BLEND); mAlpha = true; } } else { mLastImage = 0; if (mAlpha && !mColorAlpha) { glDisable(GL_BLEND); mAlpha = false; } else if (!mAlpha && mColorAlpha) { glEnable(GL_BLEND); mAlpha = true; } if (mTexture) { glDisable(OpenGLImageHelper::mTextureType); glDisableClientState(GL_TEXTURE_COORD_ARRAY); mTexture = false; } } } void NormalOpenGLGraphics::drawRectangle(const gcn::Rectangle& rect, const bool filled) { BLOCK_START("Graphics::drawRectangle") const float offset = filled ? 0 : 0.5f; const float x = static_cast<float>(rect.x); const float y = static_cast<float>(rect.y); const float width = static_cast<float>(rect.width); const float height = static_cast<float>(rect.height); setTexturingAndBlending(false); restoreColor(); GLfloat vert[] = { x + offset, y + offset, x + width - offset, y + offset, x + width - offset, y + height - offset, x + offset, y + height - offset }; glVertexPointer(2, GL_FLOAT, 0, &vert); #ifdef DEBUG_DRAW_CALLS mDrawCalls ++; #endif glDrawArrays(filled ? GL_QUADS : GL_LINE_LOOP, 0, 4); BLOCK_END("Graphics::drawRectangle") } bool NormalOpenGLGraphics::drawNet(const int x1, const int y1, const int x2, const int y2, const int width, const int height) { unsigned int vp = 0; const unsigned int vLimit = mMaxVertices * 4; setTexturingAndBlending(false); restoreColor(); const float xf1 = static_cast<float>(x1); const float xf2 = static_cast<float>(x2); const float yf1 = static_cast<float>(y1); const float yf2 = static_cast<float>(y2); for (int y = y1; y < y2; y += height) { mFloatTexArray[vp + 0] = xf1; mFloatTexArray[vp + 1] = static_cast<float>(y); mFloatTexArray[vp + 2] = xf2; mFloatTexArray[vp + 3] = static_cast<float>(y); vp += 4; if (vp >= vLimit) { drawLineArrayf(vp); vp = 0; } } for (int x = x1; x < x2; x += width) { mFloatTexArray[vp + 0] = static_cast<float>(x); mFloatTexArray[vp + 1] = yf1; mFloatTexArray[vp + 2] = static_cast<float>(x); mFloatTexArray[vp + 3] = yf2; vp += 4; if (vp >= vLimit) { drawLineArrayf(vp); vp = 0; } } if (vp > 0) drawLineArrayf(vp); return true; } void NormalOpenGLGraphics::bindTexture(GLenum target, GLuint texture) { if (mLastImage != texture) { mLastImage = texture; glBindTexture(target, texture); } } inline void NormalOpenGLGraphics::drawQuadArrayfi(const int size) { glVertexPointer(2, GL_INT, 0, mIntVertArray); glTexCoordPointer(2, GL_FLOAT, 0, mFloatTexArray); #ifdef DEBUG_DRAW_CALLS mDrawCalls ++; #endif glDrawArrays(GL_QUADS, 0, size / 2); } inline void NormalOpenGLGraphics::drawQuadArrayfi(GLint *const intVertArray, GLfloat *const floatTexArray, const int size) { glVertexPointer(2, GL_INT, 0, intVertArray); glTexCoordPointer(2, GL_FLOAT, 0, floatTexArray); #ifdef DEBUG_DRAW_CALLS mDrawCalls ++; #endif glDrawArrays(GL_QUADS, 0, size / 2); } inline void NormalOpenGLGraphics::drawQuadArrayii(const int size) { glVertexPointer(2, GL_INT, 0, mIntVertArray); glTexCoordPointer(2, GL_INT, 0, mIntTexArray); #ifdef DEBUG_DRAW_CALLS mDrawCalls ++; #endif glDrawArrays(GL_QUADS, 0, size / 2); } inline void NormalOpenGLGraphics::drawQuadArrayii(GLint *const intVertArray, GLint *const intTexArray, const int size) { glVertexPointer(2, GL_INT, 0, intVertArray); glTexCoordPointer(2, GL_INT, 0, intTexArray); #ifdef DEBUG_DRAW_CALLS mDrawCalls ++; #endif glDrawArrays(GL_QUADS, 0, size / 2); } inline void NormalOpenGLGraphics::drawLineArrayi(const int size) { glVertexPointer(2, GL_INT, 0, mIntVertArray); #ifdef DEBUG_DRAW_CALLS mDrawCalls ++; #endif glDrawArrays(GL_LINES, 0, size / 2); } inline void NormalOpenGLGraphics::drawLineArrayf(const int size) { glVertexPointer(2, GL_FLOAT, 0, mFloatTexArray); #ifdef DEBUG_DRAW_CALLS mDrawCalls ++; #endif glDrawArrays(GL_LINES, 0, size / 2); } void NormalOpenGLGraphics::dumpSettings() { GLint test[1000]; logger->log("\n\n"); logger->log("start opengl dump"); for (int f = 0; f < 65535; f ++) { test[0] = 0; test[1] = 0; test[2] = 0; test[3] = 0; glGetIntegerv(f, &test[0]); if (test[0] || test[1] || test[2] || test[3]) { logger->log("\n%d = %d, %d, %d, %d", f, test[0], test[1], test[2], test[3]); } } } void NormalOpenGLGraphics::setColorAlpha(const float alpha) { if (!mIsByteColor && mFloatColor == alpha) return; glColor4f(1.0f, 1.0f, 1.0f, alpha); mIsByteColor = false; mFloatColor = alpha; } void NormalOpenGLGraphics::restoreColor() { if (mIsByteColor && mByteColor == mColor) return; glColor4ub(static_cast<GLubyte>(mColor.r), static_cast<GLubyte>(mColor.g), static_cast<GLubyte>(mColor.b), static_cast<GLubyte>(mColor.a)); mIsByteColor = true; mByteColor = mColor; } #ifdef DEBUG_BIND_TEXTURE void NormalOpenGLGraphics::debugBindTexture(const Image *image) { const std::string texture = image->getIdPath(); if (mOldTexture != texture) { if ((!mOldTexture.empty() || !texture.empty()) && mOldTextureId != image->mGLImage) { logger->log("bind: %s (%d) to %s (%d)", mOldTexture.c_str(), mOldTextureId, texture.c_str(), image->mGLImage); } mOldTextureId = image->mGLImage; mOldTexture = texture; } } #else void NormalOpenGLGraphics::debugBindTexture(const Image *image A_UNUSED) { } #endif #endif // USE_OPENGL