/** * DOUBLE BLACK DIAMOND DOUBLE BLACK DIAMOND * * //\\ //\\ //\\ //\\ * ///\\\ ///\\\ ///\\\ ///\\\ * \\\/// \\\/// \\\/// \\\/// * \\// \\// \\// \\// * * EXPERTS ONLY!! EXPERTS ONLY!! * * If you are an artist, you may ignore this file! It just sets * up the framework to run the patterns. Should not need modification * for general animation work. */ import glucose.*; import glucose.control.*; import glucose.effect.*; import glucose.model.*; import glucose.pattern.*; import glucose.transform.*; import glucose.transition.*; import heronarts.lx.*; import heronarts.lx.control.*; import heronarts.lx.effect.*; import heronarts.lx.modulator.*; import heronarts.lx.pattern.*; import heronarts.lx.transition.*; import ddf.minim.*; import ddf.minim.analysis.*; import processing.opengl.*; import rwmidi.*; final int VIEWPORT_WIDTH = 900; final int VIEWPORT_HEIGHT = 700; final float TRAILER_WIDTH = 240; final float TRAILER_DEPTH = 97; final float TRAILER_HEIGHT = 33; final float BASS_WIDTH = 124; final float BASS_HEIGHT = 31.5; final float BASS_DEPTH = 66; final float BASS_X = (TRAILER_WIDTH - BASS_WIDTH) / 2.; final float BASS_Z = (TRAILER_DEPTH - BASS_DEPTH) / 2.; int targetFramerate = 60; int startMillis, lastMillis; GLucose glucose; HeronLX lx; MappingTool mappingTool; LXPattern[] patterns; LXTransition[] transitions; LXEffect[] effects; OverlayUI ui; ControlUI controlUI; MappingUI mappingUI; PandaDriver pandaFront; PandaDriver pandaRear; boolean mappingMode = false; boolean pandaBoardsEnabled = false; boolean debugMode = false; DebugUI debugUI; // Camera variables float eyeR, eyeA, eyeX, eyeY, eyeZ, midX, midY, midZ; final float FEET = 12; void setup() { startMillis = lastMillis = millis(); // Initialize the Processing graphics environment size(VIEWPORT_WIDTH, VIEWPORT_HEIGHT, OPENGL); frameRate(targetFramerate); noSmooth(); // hint(ENABLE_OPENGL_4X_SMOOTH); // no discernable improvement? logTime("Created viewport"); // Create the GLucose engine to run the cubes glucose = new GLucose(this, new SCMapping()); lx = glucose.lx; lx.enableKeyboardTempo(); logTime("Built GLucose engine"); // Set the patterns glucose.lx.setPatterns(patterns = patterns(glucose)); logTime("Built patterns"); glucose.lx.addEffects(effects = effects(glucose)); logTime("Built effects"); glucose.setTransitions(transitions = transitions(glucose)); logTime("Built transitions"); // Build output driver int[][] frontChannels = glucose.mapping.buildFrontChannelList(); int[][] rearChannels = glucose.mapping.buildRearChannelList(); int[][] flippedRGB = glucose.mapping.buildFlippedRGBList(); mappingTool = new MappingTool(glucose, frontChannels, rearChannels); pandaFront = new PandaDriver(new NetAddress("192.168.1.28", 9001), glucose.model, frontChannels, flippedRGB); pandaRear = new PandaDriver(new NetAddress("192.168.1.29", 9001), glucose.model, rearChannels, flippedRGB); logTime("Build PandaDriver"); // Build overlay UI ui = controlUI = new ControlUI(); mappingUI = new MappingUI(mappingTool); debugUI = new DebugUI(frontChannels, rearChannels); logTime("Built overlay UI"); // MIDI devices for (MidiInputDevice d : RWMidi.getInputDevices()) { d.createInput(this); } SCMidiDevices.initializeStandardDevices(glucose); logTime("Setup MIDI devices"); // Setup camera midX = glucose.model.xMax/2 + 20; midY = glucose.model.yMax/2; midZ = glucose.model.zMax/2; eyeR = -270; eyeA = .15; eyeY = midY + 20; eyeX = midX + eyeR*sin(eyeA); eyeZ = midZ + eyeR*cos(eyeA); addMouseWheelListener(new java.awt.event.MouseWheelListener() { public void mouseWheelMoved(java.awt.event.MouseWheelEvent mwe) { mouseWheel(mwe.getWheelRotation()); }}); println("Total setup: " + (millis() - startMillis) + "ms"); println("Hit the 'p' key to toggle Panda Board output"); } void controllerChangeReceived(rwmidi.Controller cc) { if (debugMode) { println("CC: " + cc.toString()); } } void noteOnReceived(Note note) { if (debugMode) { println("Note On: " + note.toString()); } } void noteOffReceived(Note note) { if (debugMode) { println("Note Off: " + note.toString()); } } void logTime(String evt) { int now = millis(); println(evt + ": " + (now - lastMillis) + "ms"); lastMillis = now; } void draw() { // Draws the simulation and the 2D UI overlay background(40); color[] colors = glucose.getColors(); if (debugMode) { debugUI.maskColors(colors); } camera( eyeX, eyeY, eyeZ, midX, midY, midZ, 0, -1, 0 ); noStroke(); fill(#141414); drawBox(0, -TRAILER_HEIGHT, 0, 0, 0, 0, TRAILER_WIDTH, TRAILER_HEIGHT, TRAILER_DEPTH, TRAILER_HEIGHT/2.); fill(#070707); stroke(#222222); beginShape(); vertex(0, 0, 0); vertex(TRAILER_WIDTH, 0, 0); vertex(TRAILER_WIDTH, 0, TRAILER_DEPTH); vertex(0, 0, TRAILER_DEPTH); endShape(); noStroke(); fill(#292929); drawBox(BASS_X, 0, BASS_Z, 0, 0, 0, BASS_WIDTH, BASS_HEIGHT, BASS_DEPTH, Cube.CHANNEL_WIDTH); for (Cube c : glucose.model.cubes) { drawCube(c); } noFill(); strokeWeight(2); beginShape(POINTS); for (Point p : glucose.model.points) { stroke(colors[p.index]); vertex(p.fx, p.fy, p.fz); // println(p.fx + ":" + p.fy + ":" + p.fz); } endShape(); // 2D Overlay camera(); javax.media.opengl.GL gl= ((PGraphicsOpenGL)g).beginGL(); gl.glClear(javax.media.opengl.GL.GL_DEPTH_BUFFER_BIT); ((PGraphicsOpenGL)g).endGL(); strokeWeight(1); drawUI(); if (debugMode) { debugUI.draw(); } // TODO(mcslee): move into GLucose engine if (pandaBoardsEnabled) { pandaFront.send(colors); pandaRear.send(colors); } } void drawCube(Cube c) { drawBox(c.x, c.y, c.z, c.rx, c.ry, c.rz, Cube.EDGE_WIDTH, Cube.EDGE_HEIGHT, Cube.EDGE_WIDTH, Cube.CHANNEL_WIDTH); } void drawBox(float x, float y, float z, float rx, float ry, float rz, float xd, float yd, float zd, float sw) { pushMatrix(); translate(x, y, z); rotate(rx, 1, 0, 0); rotate(ry / 180. * PI, 0, -1, 0); rotate(rz, 0, 0, 1); for (int i = 0; i < 4; ++i) { float wid = (i % 2 == 0) ? xd : zd; beginShape(); vertex(0, 0); vertex(wid, 0); vertex(wid, yd); vertex(wid - sw, yd); vertex(wid - sw, sw); vertex(0, sw); endShape(); beginShape(); vertex(0, sw); vertex(0, yd); vertex(wid - sw, yd); vertex(wid - sw, yd - sw); vertex(sw, yd - sw); vertex(sw, sw); endShape(); translate(wid, 0, 0); rotate(HALF_PI, 0, -1, 0); } popMatrix(); } void drawUI() { if (uiOn) { ui.draw(); } else { ui.drawHelpTip(); } ui.drawFPS(); } boolean uiOn = true; int restoreToIndex = -1; void keyPressed() { if (mappingMode) { mappingTool.keyPressed(); } switch (key) { case '-': case '_': frameRate(--targetFramerate); break; case '=': case '+': frameRate(++targetFramerate); break; case 'd': debugMode = !debugMode; println("Debug output: " + (debugMode ? "ON" : "OFF")); break; case 'm': mappingMode = !mappingMode; if (mappingMode) { LXPattern pattern = lx.getPattern(); for (int i = 0; i < patterns.length; ++i) { if (pattern == patterns[i]) { restoreToIndex = i; break; } } ui = mappingUI; lx.setPatterns(new LXPattern[] { mappingTool }); } else { ui = controlUI; lx.setPatterns(patterns); lx.goIndex(restoreToIndex); } break; case 'p': pandaBoardsEnabled = !pandaBoardsEnabled; println("PandaBoard Output: " + (pandaBoardsEnabled ? "ON" : "OFF")); break; case 'u': uiOn = !uiOn; break; } } int mx, my; void mousePressed() { if (mouseX > ui.leftPos) { ui.mousePressed(); } else { if (debugMode) { debugUI.mousePressed(); } mx = mouseX; my = mouseY; } } void mouseDragged() { if (mouseX > ui.leftPos) { ui.mouseDragged(); } else { int dx = mouseX - mx; int dy = mouseY - my; mx = mouseX; my = mouseY; eyeA += dx*.003; eyeX = midX + eyeR*sin(eyeA); eyeZ = midZ + eyeR*cos(eyeA); eyeY += dy; } } void mouseReleased() { if (mouseX > ui.leftPos) { ui.mouseReleased(); } } void mouseWheel(int delta) { eyeR = constrain(eyeR - delta, -500, -80); eyeX = midX + eyeR*sin(eyeA); eyeZ = midZ + eyeR*cos(eyeA); }