/* Copyright (C) 2007, 2010 - Bit-Blot This file is part of Aquaria. Aquaria 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 (at your option) 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, write to the Free Software Foundation, Inc., 59 Temple Place - Suite 330, Boston, MA 02111-1307, USA. */ #include "Quad.h" #include "Core.h" #include "RenderBase.h" #include "RenderGrid.h" #include Quad::Quad(const std::string &tex, const Vector &pos) : RenderObject() { initQuad(); renderBorderColor = Vector(1,1,1); position = pos; setTexture(tex); } Quad::Quad() : RenderObject() { initQuad(); } Quad::~Quad() { deleteGrid(); } void Quad::initQuad() { addType(SCO_QUAD); borderAlpha = 0.5; repeatToFillScale = Vector(1,1); renderBorder = false; renderCenter = true; texcoordOverride = false; width = 2; height = 2; texcoords.setStandard(); renderQuad = true; grid = NULL; } void Quad::deleteGrid() { delete grid; grid = NULL; } void Quad::destroy() { deleteGrid(); RenderObject::destroy(); } DynamicRenderGrid *Quad::setSegs(int x, int y, float dgox, float dgoy, float dgmx, float dgmy, float dgtm, bool dgo) { DynamicRenderGrid *g = createGrid(x, y); if(g) g->setSegs(dgox, dgoy, dgmx, dgmy, dgtm, dgo); return g; } DynamicRenderGrid *Quad::createGrid(int xd, int yd) { delete grid; grid = NULL; if(xd && yd) { grid = new DynamicRenderGrid(); grid->init(xd, yd, texcoords); } return grid; } void Quad::setDrawGridAlpha(size_t x, size_t y, float alpha) { if(grid) grid->setAlpha(x, y, alpha); } void Quad::setStripPoints(bool vert, const Vector *points, size_t n) { if(grid) grid->setStripPoints(vert, points, n); } void Quad::resetGrid() { if(grid) grid->reset(); } void Quad::_renderBorder(const RenderState& rs, Vector color, float borderalpha) const { glBindTexture(GL_TEXTURE_2D, 0); glColor4f(color.x, color.y, color.z, borderalpha*alpha.x*alphaMod); core->getDefaultQuadBorderBuf()->apply(); if (rs.forceRenderCenter || renderCenter) { glPointSize(16); glDrawArrays(GL_POINTS, 4, 1); } glLineWidth(2); glDrawArrays(GL_LINE_LOOP, 0, 4); RenderObject::lastTextureApplied = 0; } bool Quad::isCoordinateInside(Vector coord, int minSize) const { Vector realscale = getRealScale(); int hw = fabsf((width)*realscale.x)*0.5f; int hh = fabsf((height)*realscale.y)*0.5f; if (hw < minSize) hw = minSize; if (hh < minSize) hh = minSize; Vector pos = getRealPosition(); if (coord.x >= pos.x - hw && coord.x <= pos.x + hw) { if (coord.y >= pos.y - hh && coord.y <= pos.y + hh) { return true; } } return false; } bool Quad::isCoordinateInsideWorld(const Vector &coord, int minSize) const { int hw = fabsf((width)*getRealScale().x)*0.5f; int hh = fabsf((height)*getRealScale().y)*0.5f; if (hw < minSize) hw = minSize; if (hh < minSize) hh = minSize; Vector pos = getWorldPosition(); if (coord.x >= pos.x + offset.x - hw && coord.x <= pos.x + offset.x + hw) { if (coord.y >= pos.y + offset.y - hh && coord.y <= pos.y + offset.y + hh) { return true; } } return false; } bool Quad::isCoordinateInsideWorldRect(const Vector &coord, int w, int h) const { int hw = w*0.5f; int hh = h*0.5f; Vector pos = getWorldPosition(); if (coord.x >= pos.x + offset.x - hw && coord.x <= pos.x + offset.x + hw) { if (coord.y >= pos.y + offset.y - hh && coord.y <= pos.y + offset.y + hh) { return true; } } return false; } void Quad::renderGrid(const RenderState& rs) const { RenderState rx(rs); rx.color = rs.color * this->color; rx.alpha = rs.alpha * this->alpha.x * this->alphaMod; grid->render(rx); // debug points if (RenderObject::renderCollisionShape) { glBindTexture(GL_TEXTURE_2D, 0); grid->renderDebugPoints(rs); RenderObject::lastTextureApplied = 0; } } void Quad::repeatTextureToFill(bool on) { repeatTexture = on; updateTexCoords(); } void Quad::setRepeatScale(const Vector& repscale) { repeatToFillScale = repscale; updateTexCoords(); } void Quad::setRepeatOffset(const Vector& repoffs) { texOff = repoffs; updateTexCoords(); } void Quad::onRender(const RenderState& rs) const { if (!renderQuad) return; // previously, vertical flip was implemented by texcoord inversion. // ie. child objects were never affected. not sure if this is desirable behavior but it'll stay like // this for now. should probably make it affect children as well. glPushMatrix(); if(_fv) glRotatef(180, 1, 0, 0); glScalef(width, height, 1); if (!grid) { core->getDefaultQuadGrid()->render(rs); } else { renderGrid(rs); } if(renderBorder) _renderBorder(rs, renderBorderColor, borderAlpha); else if(rs.forceRenderBorder) _renderBorder(rs, rs.renderBorderColor, rs.renderBorderAlpha); glPopMatrix(); } void Quad::updateTexCoords() { if(texcoordOverride) goto setgrid; if (repeatTexture && texture) { texcoords.u1 = texOff.x; texcoords.v1 = texOff.y; texcoords.u2 = (width*scale.x*repeatToFillScale.x)/texture->width + texOff.x; texcoords.v2 = (height*scale.y*repeatToFillScale.y)/texture->height + texOff.y; setgrid: if(!grid) { createGrid(2, 2)->gridType = GRID_UNDEFINED; } grid->setTexCoords(texcoords); } else { texcoords.setStandard(); // don't delete when a wavy effect is going on, for example if(grid && grid->gridType == GRID_UNDEFINED) deleteGrid(); } } void Quad::setOverrideTexCoords(const TexCoordBox & tc) { texcoordOverride = true; texcoords = tc; updateTexCoords(); } void Quad::clearOverrideTexCoords() { texcoordOverride = false; updateTexCoords(); } void Quad::reloadDevice() { RenderObject::reloadDevice(); } void Quad::onUpdate(float dt) { RenderObject::onUpdate(dt); if (grid && alpha.x > 0 && alphaMod > 0) { grid->update(dt); } } void Quad::setWidthHeight(float w, float h) { if (h == -1) height = w; else height = h; width = w; updateTexCoords(); } void Quad::setWidth(float w) { width = w; updateTexCoords(); } void Quad::setHeight(float h) { height = h; updateTexCoords(); } void Quad::onSetTexture() { if (texture) { width = this->texture->width; height = this->texture->height; } else { width = 64; height = 64; } updateTexCoords(); } PauseQuad::PauseQuad() : Quad(), pauseLevel(0), positionSnapTo(0), autoWidth(0), autoHeight(0) { addType(SCO_PAUSEQUAD); } PauseQuad::~PauseQuad() { } void PauseQuad::onUpdate(float dt) { if(autoWidth || autoHeight) { float w = width, h = height; if (autoWidth == AUTO_VIRTUALWIDTH) w = core->getVirtualWidth(); else if (autoWidth == AUTO_VIRTUALHEIGHT) w = core->getVirtualHeight(); if (autoHeight == AUTO_VIRTUALWIDTH) h = core->getVirtualWidth(); else if (autoHeight == AUTO_VIRTUALHEIGHT) h = core->getVirtualHeight(); if(w != width || h != height) { width = w; height = h; updateTexCoords(); } } if (positionSnapTo) this->position = *positionSnapTo; if (core->particlesPaused <= pauseLevel) { Quad::onUpdate(dt); } } void PauseQuad::setPositionSnapTo(InterpolatedVector *positionSnapTo) { this->positionSnapTo = positionSnapTo; } CollideQuad::CollideQuad() : collideRadius(0) { addType(SCO_COLLIDE_QUAD); } CollideQuad::~CollideQuad() { } void CollideQuad::renderCollision(const RenderState& rs) const { if (collideRadius > 0) { glPushMatrix(); glLoadIdentity(); core->setupRenderPositionAndScale(); glBindTexture(GL_TEXTURE_2D, 0); glTranslatef(position.x+offset.x, position.y+offset.y, 0); glTranslatef(internalOffset.x, internalOffset.y, 0); rs.gpu.setBlend(BLEND_DEFAULT); glColor4f(1,0,0,0.5); drawCircle(collideRadius, 8); glPopMatrix(); } }