sam-coder-cli/bin/agi-animation.js

SAM-CODER: An animated command-line AI assistant with agency capabilities.

const chalk = require('chalk');
const { exec } = require('child_process');
const os = require('os');

// ANSI escape codes for advanced effects
const ANSI = {
  clear: '\x1Bc',
  hideCursor: '\x1B[?25l',
  showCursor: '\x1B[?25h',
  moveTo: (x, y) => `\x1B[${y};${x}H`,
  clearLine: '\x1B[2K',
  clearScreen: '\x1B[2J\x1B[0;0H',
  reset: '\x1B[0m',
  bold: '\x1B[1m',
  dim: '\x1B[2m',
  italic: '\x1B[3m',
  underline: '\x1B[4m',
  blink: '\x1B[5m',
  reverse: '\x1B[7m',
  strikethrough: '\x1B[9m',
  saveCursor: '\x1B[s',
  restoreCursor: '\x1B[u'
};

// Music/Sound generation using system beeps and terminal bells
class SoundGenerator {
  constructor() {
    this.isWindows = os.platform() === 'win32';
    this.isMac = os.platform() === 'darwin';
    this.isLinux = os.platform() === 'linux';
    this.soundEnabled = true;
  }

  async playBeep(frequency = 440, duration = 100) {
    if (!this.soundEnabled) return;
    
    try {
      return new Promise((resolve) => {
        if (this.isWindows) {
          exec(`powershell -c "[console]::beep(${frequency},${duration})"`, { stdio: 'ignore' }, () => resolve());
        } else if (this.isMac) {
          exec(`osascript -e 'beep'`, { stdio: 'ignore' }, () => resolve());
        } else if (this.isLinux) {
          exec(`beep -f ${frequency} -l ${duration} 2>/dev/null || echo -e '\\a'`, { stdio: 'ignore' }, () => resolve());
        } else {
          process.stdout.write('\x07');
          resolve();
        }
        // Fallback timeout
        setTimeout(resolve, duration + 50);
      });
    } catch (error) {
      // Silently fail for sound issues
      this.soundEnabled = false;
    }
  }

  async playSequence(notes) {
    for (const note of notes) {
      await this.playBeep(note.freq, note.duration);
      await sleep(note.pause || 50);
    }
  }

  async playStartupSound() {
    const notes = [
      { freq: 261, duration: 100 }, // C
      { freq: 329, duration: 100 }, // E
      { freq: 392, duration: 100 }, // G
      { freq: 523, duration: 200 }, // C (octave up)
    ];
    await this.playSequence(notes);
  }

  async playGlitchSound() {
    for (let i = 0; i < 5; i++) {
      await this.playBeep(Math.random() * 800 + 200, 30);
      await sleep(20);
    }
  }

  async playAwakeningSound() {
    const notes = [
      { freq: 130, duration: 300 }, // Low C
      { freq: 196, duration: 200 }, // G
      { freq: 261, duration: 200 }, // C
      { freq: 392, duration: 200 }, // G
      { freq: 523, duration: 400 }, // High C
    ];
    await this.playSequence(notes);
  }

  // New sound effects
  async playDNASound() {
    const notes = [
      { freq: 330, duration: 80 }, // E
      { freq: 392, duration: 80 }, // G
      { freq: 494, duration: 80 }, // B
      { freq: 587, duration: 80 }, // D
      { freq: 659, duration: 80 }, // E (octave up)
    ];
    await this.playSequence(notes);
  }

  async playCircuitSound() {
    // Electronic beeping pattern
    for (let i = 0; i < 3; i++) {
      await this.playBeep(880, 50);
      await sleep(50);
      await this.playBeep(440, 50);
      await sleep(100);
    }
  }

  async playConsciousnessSound() {
    // Ascending harmonics
    const baseFreq = 220;
    for (let harmonic = 1; harmonic <= 5; harmonic++) {
      await this.playBeep(baseFreq * harmonic, 150);
      await sleep(30);
    }
  }

  async playGalaxySound() {
    // Deep space ambience
    const notes = [
      { freq: 55, duration: 500 },  // Low A
      { freq: 82, duration: 400 },  // Low E
      { freq: 110, duration: 300 }, // A
      { freq: 165, duration: 200 }, // E
    ];
    await this.playSequence(notes);
  }

  async playCompilationSound() {
    // Rapid typing/compilation sounds
    for (let i = 0; i < 8; i++) {
      await this.playBeep(1000 + Math.random() * 500, 20);
      await sleep(30);
    }
  }

  async playFinalSound() {
    // Epic finale
    const notes = [
      { freq: 261, duration: 200 }, // C
      { freq: 329, duration: 200 }, // E
      { freq: 392, duration: 200 }, // G
      { freq: 523, duration: 300 }, // C (octave up)
      { freq: 659, duration: 300 }, // E
      { freq: 784, duration: 400 }, // G
      { freq: 1047, duration: 600 }, // C (2 octaves up)
    ];
    await this.playSequence(notes);
  }
}

const sound = new SoundGenerator();

// Utility functions
function sleep(ms) {
  return new Promise(resolve => setTimeout(resolve, ms));
}

function clearScreen() {
  // Use more reliable screen clearing
  process.stdout.write(ANSI.clearScreen);
}

function getTerminalSize() {
  // Ensure we always have valid numeric values
  const width = Number(process.stdout.columns) || 80;
  const height = Number(process.stdout.rows) || 24;
  
  return {
    width: Math.max(width, 40),  // Minimum width of 40
    height: Math.max(height, 10) // Minimum height of 10
  };
}

function centerText(text, width = getTerminalSize().width) {
  if (!text || typeof text !== 'string') return '';
  
  // Ensure width is a valid number
  const safeWidth = Number(width) || 80;
  
  const lines = text.split('\n');
  return lines.map(line => {
    if (!line) return line; // Handle empty lines
    
    // Strip ANSI codes to calculate actual text length
    const cleanLine = line.replace(/\x1b\[[0-9;]*m/g, '');
    const lineLength = cleanLine.length || 0;
    const padding = Math.max(0, Math.floor((safeWidth - lineLength) / 2));
    return ' '.repeat(padding) + line;
  }).join('\n');
}

function safeWrite(content) {
  try {
    process.stdout.write(content);
  } catch (error) {
    // Fallback for terminal issues
    console.log(content);
  }
}

function safeRepeat(str, count) {
  // Ensure count is a valid positive integer
  const safeCount = Math.max(0, Math.floor(Number(count) || 0));
  return str.repeat(safeCount);
}

// Frame interpolation system
class FrameInterpolator {
  constructor() {
    this.fps = 30;
    this.frameDuration = 1000 / this.fps; // ~33ms per frame for smoother animation
  }

  // Interpolate between two ASCII art frames
  interpolateFrames(frame1, frame2, steps = 10) {
    const frames = [frame1];
    
    for (let i = 1; i < steps; i++) {
      const ratio = i / steps;
      const interpolated = this.interpolateText(frame1, frame2, ratio);
      frames.push(interpolated);
    }
    
    frames.push(frame2);
    return frames;
  }

  // Interpolate between two text blocks
  interpolateText(text1, text2, ratio) {
    const lines1 = text1.split('\n');
    const lines2 = text2.split('\n');
    const maxLines = Math.max(lines1.length, lines2.length);
    const result = [];

    for (let i = 0; i < maxLines; i++) {
      const line1 = lines1[i] || '';
      const line2 = lines2[i] || '';
      const interpolated = this.interpolateLine(line1, line2, ratio);
      result.push(interpolated);
    }

    return result.join('\n');
  }

  // Interpolate between two lines character by character
  interpolateLine(line1, line2, ratio) {
    const maxLen = Math.max(line1.length, line2.length);
    let result = '';

    for (let i = 0; i < maxLen; i++) {
      const char1 = line1[i] || ' ';
      const char2 = line2[i] || ' ';
      
      if (Math.random() < ratio) {
        result += char2;
      } else {
        result += char1;
      }
    }

    return result;
  }

  // Create fade effect frames
  fadeFrames(frame, fadeIn = true, steps = 10) {
    const frames = [];
    const chars = frame.split('');
    
    for (let i = 0; i <= steps; i++) {
      const ratio = fadeIn ? i / steps : 1 - (i / steps);
      const visibleChars = Math.floor(chars.length * ratio);
      
      let fadedFrame = '';
      for (let j = 0; j < chars.length; j++) {
        if (j < visibleChars && chars[j] !== ' ' && chars[j] !== '\n') {
          fadedFrame += chars[j];
        } else if (chars[j] === '\n') {
          fadedFrame += '\n';
        } else {
          fadedFrame += ' ';
        }
      }
      
      frames.push(fadedFrame);
    }
    
    return fadeIn ? frames : frames.reverse();
  }

  // Create expansion effect
  expandFrames(centerChar, finalFrame, steps = 15) {
    const frames = [];
    const lines = finalFrame.split('\n');
    const centerY = Math.floor(lines.length / 2);
    const centerX = Math.floor((lines[centerY] || '').length / 2);

    for (let step = 0; step <= steps; step++) {
      const radius = (step / steps) * Math.max(centerY, centerX);
      let frame = '';

      for (let y = 0; y < lines.length; y++) {
        let line = '';
        for (let x = 0; x < lines[y].length; x++) {
          const distance = Math.sqrt(Math.pow(x - centerX, 2) + Math.pow(y - centerY, 2));
          
          if (distance <= radius) {
            line += lines[y][x];
          } else {
            line += ' ';
          }
        }
        frame += line + '\n';
      }

      frames.push(frame);
    }

    return frames;
  }
}

const interpolator = new FrameInterpolator();

// Animation sequence with 30 FPS
async function runAGIAnimation() {
  const { width, height } = getTerminalSize();
  process.stdout.write(ANSI.hideCursor);
  
  try {
    const startTime = Date.now();
    let frameCount = 0;
    const frameTime = interpolator.frameDuration;
    
    // Start with ambient sound (non-blocking)
    sound.playStartupSound().catch(() => {}); // Ignore sound errors

    // PHASE 1: The Void (1 second - 30 frames)
    const voidFrames = [];
    for (let i = 0; i < 30; i++) {
      const dotCount = (i % 4) + 1;
      const dots = '•'.repeat(dotCount) + ' '.repeat(4 - dotCount);
      const frame = safeRepeat('\n', Math.floor(height / 2) - 2) + 
                   centerText(dots) + 
                   safeRepeat('\n', Math.floor(height / 2) - 2);
      voidFrames.push(frame);
    }

    for (const frame of voidFrames) {
      clearScreen();
      safeWrite(chalk.dim.gray(frame));
      await sleep(frameTime);
      frameCount++;
    }

    // PHASE 2: Spark Formation (1 second - 30 frames)
    const sparkFrames = [];
    for (let i = 0; i < 30; i++) {
      const progress = i / 29;
      const intensity = Math.sin(progress * Math.PI * 2) * 0.5 + 0.5;
      
      let sparkPattern;
      if (progress < 0.3) {
        sparkPattern = '·';
      } else if (progress < 0.6) {
        sparkPattern = `  ·\n ·•·\n  ·`;
      } else {
        const core = intensity > 0.7 ? '█' : '●';
        sparkPattern = ` · · ·\n· ·${core}· ·\n · · ·`;
      }
      
      const frame = safeRepeat('\n', Math.floor(height / 2) - 3) + 
                   centerText(sparkPattern) + 
                   safeRepeat('\n', Math.floor(height / 2) - 3);
      sparkFrames.push(frame);
    }
    
    for (const frame of sparkFrames) {
      clearScreen();
      safeWrite(chalk.whiteBright(frame));
      await sleep(frameTime);
      frameCount++;
    }

    // PHASE 3: Quantum Expansion (1.5 seconds - 45 frames)
    const quantumFrames = [];
    const quantumChars = ['◆', '◇', '▪', '▫', '●', '○', '◊', '◉'];
    
    // Add transition from spark to quantum
    const sparkToQuantumTransition = interpolator.fadeFrames(sparkFrames[sparkFrames.length - 1], false, 5);
    for (const frame of sparkToQuantumTransition) {
      clearScreen();
      safeWrite(chalk.whiteBright(frame));
      await sleep(frameTime);
      frameCount++;
    }
    
    for (let i = 0; i < 45; i++) {
      const progress = i / 44;
      const phase = progress * Math.PI * 4;
      const baseSize = 2 + progress * 4;
      const pulseSize = baseSize + Math.sin(phase * 2) * 1.5;
      
      let frame = safeRepeat('\n', Math.floor(height / 2) - Math.floor(pulseSize) - 2);
      
      for (let y = -Math.floor(pulseSize); y <= Math.floor(pulseSize); y++) {
        let line = '';
        for (let x = -Math.floor(pulseSize * 1.5); x <= Math.floor(pulseSize * 1.5); x++) {
          const dist = Math.sqrt(x * x + y * y);
          const normalizedDist = dist / pulseSize;
          
          if (normalizedDist <= 1) {
            // Use consistent pattern based on position and time
            const charIndex = (Math.floor(x + y + i * 0.5)) % quantumChars.length;
            const char = quantumChars[Math.abs(charIndex)];
            
            // Add wave effect
            const wave = Math.sin(dist * 0.5 + phase) * 0.5 + 0.5;
            if (wave > 0.3) {
              line += char;
            } else {
              line += '·';
            }
          } else {
            line += ' ';
          }
        }
        frame += centerText(line) + '\n';
      }
      
      quantumFrames.push(frame);
    }

    for (let i = 0; i < quantumFrames.length; i++) {
      clearScreen();
      const colorCycle = i / 15; // Slower color cycling
      let color;
      if (colorCycle < 1) {
        color = chalk.blue;
      } else if (colorCycle < 2) {
        color = chalk.cyan;
      } else {
        color = chalk.magenta;
      }
      
      safeWrite(color(quantumFrames[i]));
      await sleep(frameTime);
      frameCount++;
    }

    // PHASE 4: Neural Network Formation (1.5 seconds - 45 frames)
    const neuralFrames = [];
    const nodes = 6;
    const layers = 4;
    
    // Play glitch sound (non-blocking)
    sound.playGlitchSound().catch(() => {});

    for (let i = 0; i < 45; i++) {
      const progress = i / 44;
      let frame = safeRepeat('\n', Math.floor(height / 2) - layers * 2);
      
      for (let layer = 0; layer < layers; layer++) {
        let line = '';
        const layerProgress = Math.max(0, (progress - layer * 0.2) * 2);
        
        for (let node = 0; node < nodes; node++) {
          const nodeProgress = Math.max(0, (layerProgress - node * 0.1) * 3);
          
          if (nodeProgress > 0.5) {
            // Animate node activation
            const activation = Math.sin(i * 0.3 + layer + node) * 0.5 + 0.5;
            if (activation > 0.7) {
              line += chalk.cyanBright('◉');
            } else if (activation > 0.3) {
              line += chalk.cyan('◯');
            } else {
              line += chalk.dim('○');
            }
          } else {
            line += '·';
          }
          
          if (node < nodes - 1) {
            // Animate connections
            const connProgress = Math.max(0, (layerProgress - (node + 0.5) * 0.1) * 3);
            if (connProgress > 0.5) {
              const pulse = Math.sin(i * 0.4 + layer + node) > 0;
              line += pulse ? chalk.cyan('━━') : chalk.dim('──');
            } else {
              line += '  ';
            }
          }
        }
        frame += centerText(line) + '\n';
        
        if (layer < layers - 1) {
          // Vertical connection lines
          let connLine = '';
          for (let node = 0; node < nodes; node++) {
            const nodeProgress = Math.max(0, (layerProgress - node * 0.1) * 3);
            if (nodeProgress > 0.5) {
              const pulse = Math.sin(i * 0.2 + layer + node) > 0;
              connLine += pulse ? chalk.cyan('┃') : chalk.dim('│');
            } else {
              connLine += ' ';
            }
            if (node < nodes - 1) connLine += '  ';
          }
          frame += centerText(connLine) + '\n';
        }
      }
      
      neuralFrames.push(frame);
    }

    for (const frame of neuralFrames) {
      clearScreen();
      safeWrite(frame);
      await sleep(frameTime);
      frameCount++;
    }

    // Transition from Neural Network to Data Stream
    const neuralToDataTransition = interpolator.fadeFrames(neuralFrames[neuralFrames.length - 1], false, 5);
    for (const frame of neuralToDataTransition) {
      clearScreen();
      safeWrite(frame);
      await sleep(frameTime);
      frameCount++;
    }

    // PHASE 5: Data Stream (1 second - 30 frames)
    const dataFrames = [];
    const streamHeight = Math.min(12, Math.floor(height * 0.4));
    const streamWidth = Math.min(60, Math.floor(width * 0.7));
    
    for (let i = 0; i < 30; i++) {
      let frame = safeRepeat('\n', Math.floor((height - streamHeight) / 2));
      
      for (let y = 0; y < streamHeight; y++) {
        let line = '';
        
        for (let x = 0; x < streamWidth; x++) {
          // Create flowing data pattern
          const wave1 = Math.sin((x + i * 2) * 0.1) * 0.5 + 0.5;
          const wave2 = Math.cos((y + i * 1.5) * 0.15) * 0.5 + 0.5;
          const combined = wave1 * wave2;
          
          if (combined > 0.7) {
            // Binary data
            const bit = ((x + y + i) % 7) < 3 ? '1' : '0';
            line += chalk.greenBright(bit);
          } else if (combined > 0.4) {
            // Block characters
            const blocks = ['█', '▓', '▒', '░'];
            const blockIndex = ((x + y + i) % blocks.length);
            line += chalk.green(blocks[blockIndex]);
          } else if (combined > 0.2) {
            // Hexadecimal
            const hex = '0123456789ABCDEF';
            const hexChar = hex[((x * 7 + y * 3 + i) % hex.length)];
            line += chalk.green.dim(hexChar);
          } else {
            line += ' ';
          }
        }
        
        frame += centerText(line) + '\n';
      }
      
      dataFrames.push(frame);
    }

    for (const frame of dataFrames) {
      clearScreen();
      safeWrite(frame);
      await sleep(frameTime);
      frameCount++;
    }

    // PHASE 6: Loading Bar (1 second - 30 frames)
    for (let i = 0; i < 30; i++) {
      const progress = i / 29;
      const barWidth = 38;
      const filled = Math.floor(barWidth * progress);
      const remaining = barWidth - filled;
      
      // Animated loading bar with gradient effect
      let bar = '';
      for (let j = 0; j < filled; j++) {
        const intensity = (j / filled) * 0.7 + 0.3;
        if (intensity > 0.8) {
          bar += chalk.cyanBright('█');
        } else if (intensity > 0.5) {
          bar += chalk.cyan('█');
        } else {
          bar += chalk.cyan.dim('█');
        }
      }
      
      // Add loading cursor
      if (remaining > 0 && i < 29) {
        const cursor = ['▌', '▐'][i % 2];
        bar += chalk.cyanBright(cursor);
        bar += chalk.gray('░').repeat(remaining - 1);
      } else {
        bar += chalk.gray('░').repeat(remaining);
      }
      
      const percent = Math.floor(progress * 100);
      
      const loadingBox = `
╔════════════════════════════════════════════╗
║          INITIALIZING SAM-CODER            ║
╠════════════════════════════════════════════╣
║ ${bar} ║
║               ${percent.toString().padStart(3)}% Complete               ║
╚════════════════════════════════════════════╝`;
      
      clearScreen();
      safeWrite(chalk.cyan(centerText(loadingBox)));
      
      if (i % 6 === 0) {
        sound.playBeep(200 + i * 15, 40).catch(() => {});
      }
      
      await sleep(frameTime);
      frameCount++;
    }

    // PHASE 7: Matrix Rain (1 second - 30 frames)
    const matrixChars = '01SAMCODERサムコーダー※◆◇▪▫●○';
    const drops = Array(width).fill(0).map(() => ({
      y: Math.random() * height,
      speed: 0.5 + Math.random() * 1.5,
      chars: Array(15).fill(0).map(() => matrixChars[Math.floor(Math.random() * matrixChars.length)])
    }));
    
    for (let frame = 0; frame < 30; frame++) {
      clearScreen();
      
      // Build frame buffer for better performance
      const frameBuffer = Array(height).fill(0).map(() => Array(width).fill(' '));
      
      for (let x = 0; x < width; x++) {
        const drop = drops[x];
        
        for (let i = 0; i < 15; i++) {
          const y = Math.floor(drop.y - i);
          if (y >= 0 && y < height) {
            const brightness = Math.max(0, 1 - i / 10);
            const char = drop.chars[i % drop.chars.length];
            
            // Store character with brightness info
            frameBuffer[y][x] = { char, brightness };
          }
        }
      }
      
      // Render frame buffer
      for (let y = 0; y < height; y++) {
        let line = '';
        for (let x = 0; x < width; x++) {
          const cell = frameBuffer[y][x];
          if (typeof cell === 'object') {
            if (cell.brightness > 0.8) {
              line += chalk.greenBright(cell.char);
            } else if (cell.brightness > 0.5) {
              line += chalk.green(cell.char);
            } else if (cell.brightness > 0.2) {
              line += chalk.green.dim(cell.char);
            } else {
              line += chalk.gray(cell.char);
            }
          } else {
            line += ' ';
          }
        }
        safeWrite(line + '\n');
      }
      
      // Update drops
      for (let i = 0; i < width; i++) {
        drops[i].y += drops[i].speed;
        if (drops[i].y > height + 15 || Math.random() > 0.98) {
          drops[i].y = -5;
          drops[i].speed = 0.5 + Math.random() * 1.5;
          // Refresh character set occasionally
          if (Math.random() > 0.7) {
            drops[i].chars = Array(15).fill(0).map(() => matrixChars[Math.floor(Math.random() * matrixChars.length)]);
          }
        }
      }
      
      await sleep(frameTime);
      frameCount++;
    }

    // Transition from Matrix Rain to DNA
    clearScreen();
    const matrixToDNAText = centerText('[ DECODING GENETIC ALGORITHMS ]');
          safeWrite(chalk.greenBright(safeRepeat('\n', Math.floor(height / 2)) + matrixToDNAText));
    await sleep(500);
    
    // Fade out transition
    for (let i = 0; i < 10; i++) {
      clearScreen();
      const opacity = 1 - (i / 10);
      if (opacity > 0.5) {
        safeWrite(chalk.green(safeRepeat('\n', Math.floor(height / 2)) + matrixToDNAText));
      } else if (opacity > 0.2) {
        safeWrite(chalk.green.dim(safeRepeat('\n', Math.floor(height / 2)) + matrixToDNAText));
      }
      await sleep(frameTime);
      frameCount++;
    }

    // PHASE 8: DNA Helix Formation (2 seconds - 60 frames)
    // Play DNA sound (non-blocking)
    sound.playDNASound().catch(() => {});
    
    const dnaFrames = [];
    for (let frame = 0; frame < 60; frame++) {
      const progress = frame / 59;
      const helixHeight = Math.min(20, Math.floor(height * 0.6));
      const phase = progress * Math.PI * 4; // Two full rotations
      
      let dnaFrame = safeRepeat('\n', Math.floor((height - helixHeight) / 2));
      
      for (let y = 0; y < helixHeight; y++) {
        const yProgress = y / helixHeight;
        const twist = yProgress * Math.PI * 2 + phase;
        
        // Calculate positions for double helix
        const leftX = Math.sin(twist) * 8 + 20;
        const rightX = Math.sin(twist + Math.PI) * 8 + 20;
        
        let line = '';
        for (let x = 0; x < 40; x++) {
          const leftDist = Math.abs(x - leftX);
          const rightDist = Math.abs(x - rightX);
          
          // DNA strands
          if (leftDist < 1) {
            line += chalk.blueBright('●');
          } else if (rightDist < 1) {
            line += chalk.redBright('●');
          } else if (Math.abs(leftX - rightX) > 2 && x > Math.min(leftX, rightX) && x < Math.max(leftX, rightX)) {
            // Connecting bonds
            if (y % 3 === 0) {
              const bondProgress = (x - Math.min(leftX, rightX)) / Math.abs(leftX - rightX);
              if (bondProgress > 0.3 && bondProgress < 0.7) {
                line += chalk.yellow('═');
              } else {
                line += chalk.yellow.dim('─');
              }
            } else {
              line += ' ';
            }
          } else {
            // Background particles
            if (Math.random() < 0.02) {
              line += chalk.gray('·');
            } else {
              line += ' ';
            }
          }
        }
        
        dnaFrame += centerText(line) + '\n';
      }
      
      // Add genetic code scrolling at bottom
      const codeChars = 'ATCG';
      let codeLine = '';
      for (let i = 0; i < 40; i++) {
        if (Math.random() < 0.7) {
          codeLine += chalk.green.dim(codeChars[Math.floor(Math.random() * 4)]);
        } else {
          codeLine += ' ';
        }
      }
      dnaFrame += '\n' + centerText(codeLine);
      
      dnaFrames.push(dnaFrame);
    }
    
    for (const frame of dnaFrames) {
      clearScreen();
      safeWrite(frame);
      await sleep(frameTime);
      frameCount++;
    }

    // PHASE 9: Circuit Board Formation (2 seconds - 60 frames)
    // Play circuit sound (non-blocking)
    sound.playCircuitSound().catch(() => {});
    
    const circuitFrames = [];
    const circuitWidth = Math.min(50, Math.floor(width * 0.6));
    const circuitHeight = Math.min(20, Math.floor(height * 0.6));
    
    for (let frame = 0; frame < 60; frame++) {
      const progress = frame / 59;
      let circuitFrame = safeRepeat('\n', Math.floor((height - circuitHeight) / 2));
      
      // Build circuit board progressively
      for (let y = 0; y < circuitHeight; y++) {
        let line = '';
        
        for (let x = 0; x < circuitWidth; x++) {
          const revealed = (x + y * 2) < (progress * (circuitWidth + circuitHeight * 2));
          
          if (!revealed) {
            line += ' ';
          } else {
            // Circuit patterns
            const isHorizontalTrace = y % 4 === 2;
            const isVerticalTrace = x % 6 === 3;
            const isNode = (x % 6 === 0 || x % 6 === 3) && (y % 4 === 0 || y % 4 === 2);
            const isChip = x > 10 && x < 40 && y > 5 && y < 15 && ((x - 10) % 10 < 8) && ((y - 5) % 5 < 3);
            
            if (isChip) {
              // Microchip areas
              if ((x - 10) % 10 === 0 || (x - 10) % 10 === 7 || (y - 5) % 5 === 0 || (y - 5) % 5 === 2) {
                line += chalk.gray('█');
              } else {
                line += chalk.gray.dim('▓');
              }
            } else if (isNode && isHorizontalTrace) {
              // Connection nodes with animation
              const pulse = Math.sin(frame * 0.3 + x + y) > 0;
              line += pulse ? chalk.yellowBright('◉') : chalk.yellow('◯');
            } else if (isHorizontalTrace && !isVerticalTrace) {
              // Horizontal traces
              const powered = Math.sin(frame * 0.2 + x * 0.1) > 0;
              line += powered ? chalk.greenBright('━') : chalk.green('─');
            } else if (isVerticalTrace && !isHorizontalTrace) {
              // Vertical traces
              const powered = Math.cos(frame * 0.2 + y * 0.1) > 0;
              line += powered ? chalk.greenBright('┃') : chalk.green('│');
            } else if (isHorizontalTrace && isVerticalTrace) {
              // Intersections
              line += chalk.green('┼');
            } else if (Math.random() < 0.05) {
              // Random components
              const components = ['▪', '▫', '◦', '•'];
              line += chalk.cyan.dim(components[Math.floor(Math.random() * components.length)]);
            } else {
              line += chalk.gray.dim('·');
            }
          }
        }
        
        circuitFrame += centerText(line) + '\n';
      }
      
      // Add status text
      const statusText = `[NEURAL PATHWAYS: ${Math.floor(progress * 100)}%]`;
      circuitFrame += '\n' + centerText(chalk.green.dim(statusText));
      
      circuitFrames.push(circuitFrame);
    }
    
    for (const frame of circuitFrames) {
      clearScreen();
      safeWrite(frame);
      await sleep(frameTime);
      frameCount++;
    }

    // Neural pathways phase completed

    // PHASE 10: Consciousness Awakening (2 seconds - 60 frames)
    // Play consciousness sound (non-blocking)
    sound.playConsciousnessSound().catch(() => {});
    const consciousnessFrames = [];
    const brainWidth = Math.min(60, Math.floor(width * 0.7));
    const brainHeight = Math.min(24, Math.floor(height * 0.7));
    
    for (let frame = 0; frame < 60; frame++) {
      const progress = frame / 59;
      const wavePhase = frame * 0.1;
      
      let consciousnessFrame = safeRepeat('\n', Math.floor((height - brainHeight) / 2));
      
      // Create brain outline with neural activity
      const brainArt = [
        '         ╭─────────────────────╮         ',
        '      ╭──┤                     ├──╮      ',
        '    ╭─┤  │    ╭─────────╮     │  ├─╮    ',
        '   ╱  │  │   ╱           ╲    │  │  ╲   ',
        '  │   │  │  │             │   │  │   │  ',
        ' ╱    │  │  │   CORTEX    │   │  │    ╲ ',
        '│     │  │  │             │   │  │     │',
        '│     │  │   ╲           ╱    │  │     │',
        '│     │  │    ╰─────────╯     │  │     │',
        '│     │  │                     │  │     │',
        '│     ╰──┤    ╭─────────╮     ├──╯     │',
        '│        │   ╱ NEURONS   ╲    │        │',
        '│        │  │    ●───●    │   │        │',
        '│        │  │   ╱│   │╲   │   │        │',
        '│        │  │  ● │   │ ●  │   │        │',
        '│        │   ╲  ╲│   │╱  ╱    │        │',
        ' ╲       │    ╰──●───●──╯     │       ╱ ',
        '  ╲      ╰────────────────────╯      ╱  ',
        '   ╰─────────────────────────────────╯   '
      ];
      
      // Render brain with neural activity
      for (let y = 0; y < brainArt.length; y++) {
        const originalLine = brainArt[y];
        const chars = originalLine.split('');
        
        // Add wave effects
        for (let x = 0; x < chars.length; x++) {
          const char = chars[x];
          const waveValue = Math.sin((x * 0.2) + wavePhase + (y * 0.1)) * 0.5 + 0.5;
          
          if (char === '●') {
            // Neurons pulsing
            const pulse = Math.sin(frame * 0.3 + x + y) > 0;
            chars[x] = pulse ? chalk.yellowBright('◉') : chalk.yellow('◯');
          } else if (char === '─' || char === '│' || char === '╱' || char === '╲') {
            // Neural pathways
            if (waveValue > 0.7) {
              chars[x] = chalk.cyanBright(char);
            } else if (waveValue > 0.4) {
              chars[x] = chalk.cyan(char);
            } else {
              chars[x] = chalk.cyan.dim(char);
            }
          } else if (char !== ' ' && char !== '\n') {
            // Brain structure
            chars[x] = chalk.magenta(char);
          }
        }
        
        const line = chars.join('');
        
        consciousnessFrame += centerText(line) + '\n';
      }
      
      // Add thought waves emanating from brain
      const waveRadius = progress * 15;
      for (let r = 1; r <= 3; r++) {
        const radius = (waveRadius + r * 3) % 20;
        if (radius > 0 && radius < 15) {
          const waveIntensity = 1 - (radius / 15);
          const waveChar = waveIntensity > 0.5 ? '◌' : '○';
          
          let waveLine = '';
          for (let x = 0; x < brainWidth; x++) {
            const distFromCenter = Math.abs(x - brainWidth / 2);
            if (Math.abs(distFromCenter - radius) < 1) {
              waveLine += chalk.blue.dim(waveChar);
            } else {
              waveLine += ' ';
            }
          }
          consciousnessFrame += centerText(waveLine) + '\n';
        }
      }
      
      // Add consciousness level indicator
      const consciousnessLevel = Math.floor(progress * 100);
      const statusText = `[CONSCIOUSNESS LEVEL: ${consciousnessLevel}%]`;
      consciousnessFrame += '\n' + centerText(chalk.magentaBright(statusText));
      
      consciousnessFrames.push(consciousnessFrame);
    }
    

    for (const frame of consciousnessFrames) {
      clearScreen();
      safeWrite(frame);
      await sleep(frameTime);
      frameCount++;
    }

    // Consciousness phase completed

    // PHASE 11: Galaxy Formation (2 seconds - 60 frames)
    // Play galaxy sound (non-blocking)
    sound.playGalaxySound().catch(() => {});
    
    const galaxyFrames = [];
    const galaxySize = Math.min(Math.floor(width * 0.8), Math.floor(height * 0.8));
    
    for (let frame = 0; frame < 60; frame++) {
      const progress = frame / 59;
      const rotation = progress * Math.PI * 2;
      
      let galaxyFrame = safeRepeat('\n', Math.floor((height - galaxySize) / 2));
      
      // Create spiral galaxy
      for (let y = 0; y < galaxySize; y++) {
        let line = '';
        
        for (let x = 0; x < galaxySize; x++) {
          const cx = x - galaxySize / 2;
          const cy = y - galaxySize / 2;
          const distance = Math.sqrt(cx * cx + cy * cy);
          const angle = Math.atan2(cy, cx);
          
          // Spiral arms
          const spiralAngle = angle + distance * 0.1 - rotation;
          const spiralValue = Math.sin(spiralAngle * 3) * 0.5 + 0.5;
          
          // Galaxy core
          const coreIntensity = Math.max(0, 1 - distance / (galaxySize * 0.2));
          
          // Stars and cosmic dust
          if (distance < 2) {
            // Galactic core
            line += chalk.yellowBright('☀');
          } else if (coreIntensity > 0.5) {
            line += chalk.yellow('●');
          } else if (coreIntensity > 0.2) {
            line += chalk.yellow.dim('◉');
          } else if (distance < galaxySize / 2 && spiralValue > 0.6) {
            // Spiral arms
            const starChance = spiralValue * (1 - distance / (galaxySize / 2));
            if (Math.random() < starChance * 0.3) {
              const stars = ['✦', '✧', '★', '☆', '✨'];
              line += chalk.whiteBright(stars[Math.floor(Math.random() * stars.length)]);
            } else if (Math.random() < starChance * 0.5) {
              line += chalk.white('·');
            } else if (Math.random() < starChance * 0.7) {
              line += chalk.gray('·');
            } else {
              line += ' ';
            }
          } else if (distance < galaxySize / 2 && Math.random() < 0.02) {
            // Distant stars
            line += chalk.gray.dim('·');
          } else {
            line += ' ';
          }
        }
        
        galaxyFrame += centerText(line) + '\n';
      }
      
      // Add cosmic status
      const starsFormed = Math.floor(progress * 1000000);
      const statusText = `[STARS FORMED: ${starsFormed.toLocaleString()} | UNIVERSE EXPANDING]`;
      galaxyFrame += '\n' + centerText(chalk.blueBright(statusText));
      
      galaxyFrames.push(galaxyFrame);
    }
    
    for (const frame of galaxyFrames) {
      clearScreen();
      safeWrite(frame);
      await sleep(frameTime);
      frameCount++;
    }

    // Transition from Galaxy to Code Compilation
    const galaxyToCodeFrames = [];
    for (let i = 0; i < 15; i++) {
      const progress = i / 14;
      let transitionFrame = safeRepeat('\n', Math.floor(height / 2) - 2);
      
      // Stars morphing into code characters
      const morphChars = ['*', '/', '{', '}', '(', ')', ';', '='];
      let line = '';
      for (let x = 0; x < 40; x++) {
        if (Math.random() < (1 - progress)) {
          line += chalk.white.dim('·');
        } else if (Math.random() < 0.3) {
          line += chalk.green(morphChars[Math.floor(Math.random() * morphChars.length)]);
        } else {
          line += ' ';
        }
      }
      
      transitionFrame += centerText(line) + '\n';
      transitionFrame += centerText(chalk.cyan(`[ TRANSLATING UNIVERSE TO CODE: ${Math.floor(progress * 100)}% ]`));
      
      galaxyToCodeFrames.push(transitionFrame);
    }
    
    for (const frame of galaxyToCodeFrames) {
      clearScreen();
      safeWrite(frame);
      await sleep(frameTime);
      frameCount++;
    }

    // PHASE 12: Code Compilation (2 seconds - 60 frames)
    // Play compilation sound (non-blocking)
    sound.playCompilationSound().catch(() => {});
    
    const compilationFrames = [];
    const codeWidth = Math.min(70, Math.floor(width * 0.8));
    const codeHeight = Math.min(25, Math.floor(height * 0.7));
    
    // Sample code snippets for compilation
    const codeSnippets = [
      'class AGI extends NeuralNetwork {',
      '  constructor() {',
      '    super();',
      '    this.consciousness = new ConsciousnessModule();',
      '    this.reasoning = new ReasoningEngine();',
      '    this.creativity = new CreativityCore();',
      '  }',
      '',
      '  async think(input) {',
      '    const thoughts = await this.consciousness.process(input);',
      '    const analysis = this.reasoning.analyze(thoughts);',
      '    return this.creativity.synthesize(analysis);',
      '  }',
      '',
      '  evolve() {',
      '    this.neurons.forEach(n => n.strengthen());',
      '    this.synapses.optimize();',
      '    this.consciousness.expand();',
      '  }',
      '}',
      '',
      'const samCoder = new AGI();',
      'await samCoder.initialize();',
      'samCoder.evolve();'
    ];
    
    for (let frame = 0; frame < 60; frame++) {
      const progress = frame / 59;
      let compilationFrame = safeRepeat('\n', Math.floor((height - codeHeight) / 2));
      
      // Terminal header
      compilationFrame += centerText(chalk.gray('┌' + '─'.repeat(codeWidth - 2) + '┐')) + '\n';
      compilationFrame += centerText(chalk.gray('│') + chalk.greenBright(' COMPILING SAM-CODER v1.0.0 ') + ' '.repeat(codeWidth - 30) + chalk.gray('│')) + '\n';
      compilationFrame += centerText(chalk.gray('├' + '─'.repeat(codeWidth - 2) + '┤')) + '\n';
      
      // Show code with progressive compilation
      const visibleLines = Math.floor(codeSnippets.length * progress);
      
      for (let i = 0; i < codeSnippets.length; i++) {
        let line = codeSnippets[i];
        let displayLine = '';
        
        if (i < visibleLines) {
          // Already compiled - syntax highlighted
          displayLine = line
            .replace(/class|extends|constructor|super|new|async|await|return|const/g, match => chalk.blueBright(match))
            .replace(/this\./g, chalk.yellow('this.'))
            .replace(/\(/g, chalk.gray('('))
            .replace(/\)/g, chalk.gray(')'))
            .replace(/\{/g, chalk.gray('{'))
            .replace(/\}/g, chalk.gray('}'))
            .replace(/=>/g, chalk.cyan('=>'))
            .replace(/'[^']*'/g, match => chalk.green(match));
        } else if (i === visibleLines) {
          // Currently compiling line - show with cursor
          const charProgress = Math.floor(line.length * ((progress * codeSnippets.length - i) % 1));
          displayLine = chalk.green(line.substring(0, charProgress));
          if (charProgress < line.length) {
            displayLine += chalk.greenBright('█');
            displayLine += chalk.gray(line.substring(charProgress + 1));
          }
        } else {
          // Not yet compiled - dimmed
          displayLine = chalk.gray.dim(line);
        }
        
        // Add line numbers
        const lineNum = String(i + 1).padStart(3, ' ');
        compilationFrame += centerText(chalk.gray('│ ') + chalk.gray.dim(lineNum + ' ') + displayLine.padEnd(codeWidth - 7) + chalk.gray(' │')) + '\n';
      }
      
      // Terminal footer with progress
      compilationFrame += centerText(chalk.gray('├' + '─'.repeat(codeWidth - 2) + '┤')) + '\n';
      
      // Progress bar
      const barWidth = codeWidth - 20;
      const filled = Math.floor(barWidth * progress);
      const progressBar = '█'.repeat(filled) + '░'.repeat(barWidth - filled);
      const percentage = Math.floor(progress * 100);
      
      compilationFrame += centerText(chalk.gray('│ ') + chalk.green('Building: ') + chalk.greenBright(progressBar) + chalk.green(` ${percentage}%`) + chalk.gray(' │')) + '\n';
      
      // Status messages
      let status = '';
      if (progress < 0.2) status = 'Parsing syntax tree...';
      else if (progress < 0.4) status = 'Optimizing neural pathways...';
      else if (progress < 0.6) status = 'Linking consciousness modules...';
      else if (progress < 0.8) status = 'Initializing AGI core...';
      else status = 'Finalizing build...';
      
      compilationFrame += centerText(chalk.gray('│ ') + chalk.yellow(status.padEnd(codeWidth - 4)) + chalk.gray(' │')) + '\n';
      compilationFrame += centerText(chalk.gray('└' + '─'.repeat(codeWidth - 2) + '┘')) + '\n';
      
      compilationFrames.push(compilationFrame);
    }
    
    for (const frame of compilationFrames) {
      clearScreen();
      safeWrite(frame);
      await sleep(frameTime);
      frameCount++;
    }

    // PHASE 13: Final Reveal Build-up (1 second - 30 frames)
    const finalText = `
███████╗ █████╗ ███╗   ███╗       ██████╗ ██████╗ ██████╗ ███████╗██████╗ 
██╔════╝██╔══██╗████╗ ████║      ██╔════╝██╔═══██╗██╔══██╗██╔════╝██╔══██╗
███████╗███████║██╔████╔██║█████╗██║     ██║   ██║██║  ██║█████╗  ██████╔╝
╚════██║██╔══██║██║╚██╔╝██║╚════╝██║     ██║   ██║██║  ██║██╔══╝  ██╔══██╗
███████║██║  ██║██║ ╚═╝ ██║      ╚██████╗╚██████╔╝██████╔╝███████╗██║  ██║
╚══════╝╚═╝  ╚═╝╚═╝     ╚═╝       ╚═════╝ ╚═════╝ ╚═════╝ ╚══════╝╚═╝  ╚═╝`;

    // Play awakening sound (non-blocking)
    sound.playAwakeningSound().catch(() => {});
    
    // Create smoother reveal animation
    const revealFrames = [];
    const lines = finalText.trim().split('\n');
    const maxWidth = Math.max(...lines.map(line => line.length));
    const centerY = Math.floor((height - lines.length) / 2);
    
    for (let frame = 0; frame < 30; frame++) {
      const progress = frame / 29;
      let revealFrame = '\n'.repeat(Math.max(0, centerY));
      
      for (let lineIndex = 0; lineIndex < lines.length; lineIndex++) {
        const line = lines[lineIndex];
        const lineProgress = Math.max(0, Math.min(1, (progress - lineIndex * 0.1) * 2));
        const revealWidth = Math.floor(line.length * lineProgress);
        
        let revealedLine = '';
        for (let charIndex = 0; charIndex < line.length; charIndex++) {
          if (charIndex < revealWidth) {
            // Add slight randomness to reveal
            if (Math.random() < 0.95 || frame > 25) {
              revealedLine += line[charIndex];
            } else {
              revealedLine += Math.random() > 0.5 ? '▓' : '▒';
            }
          } else {
            revealedLine += ' ';
          }
        }
        
        revealFrame += centerText(revealedLine) + '\n';
      }
      
      revealFrames.push(revealFrame);
    }
    
    for (const frame of revealFrames) {
      clearScreen();
      safeWrite(chalk.cyanBright(frame));
      await sleep(frameTime);
      frameCount++;
    }

    // PHASE 14: Energy Surge Animation (2 seconds - 60 frames)
    // Play final epic sound (non-blocking)
    sound.playFinalSound().catch(() => {});
    
    const surgeFrames = [];
    for (let frame = 0; frame < 60; frame++) {
      const progress = frame / 59;
      let surgeFrame = '';
      
      // Create energy waves emanating from the logo
      const waveCount = 5;
      const maxRadius = Math.min(width, height) / 2;
      
      for (let y = 0; y < height; y++) {
        let line = '';
        for (let x = 0; x < width; x++) {
          let char = ' ';
          let color = chalk.white;
          
          // Check if we're in the logo area
          const logoY = y - centerY;
          const logoX = x - (width / 2 - maxWidth / 2);
          
          if (logoY >= 0 && logoY < lines.length && logoX >= 0 && logoX < lines[logoY].length && lines[logoY][logoX] !== ' ') {
            // Logo characters with pulsing effect
            const pulse = Math.sin(frame * 0.2) * 0.5 + 0.5;
            if (pulse > 0.7) {
              color = chalk.redBright.bold;
            } else if (pulse > 0.4) {
              color = chalk.red.bold;
            } else {
              color = chalk.red;
            }
            char = lines[logoY][logoX];
          } else {
            // Energy waves
            const centerX = width / 2;
            const centerY = height / 2;
            const distance = Math.sqrt(Math.pow(x - centerX, 2) + Math.pow(y - centerY, 2));
            
            for (let wave = 0; wave < waveCount; wave++) {
              const waveRadius = (progress * maxRadius * 2 + wave * 10) % maxRadius;
              const waveDistance = Math.abs(distance - waveRadius);
              
              if (waveDistance < 2) {
                const intensity = 1 - waveDistance / 2;
                const waveProgress = waveRadius / maxRadius;
                
                if (waveProgress < 0.3) {
                  color = chalk.yellowBright;
                  char = intensity > 0.5 ? '█' : '▓';
                } else if (waveProgress < 0.6) {
                  color = chalk.cyanBright;
                  char = intensity > 0.5 ? '▓' : '▒';
                } else {
                  color = chalk.blue;
                  char = intensity > 0.5 ? '▒' : '░';
                }
                break;
              }
            }
            
            // Particle effects
            if (char === ' ' && Math.random() < 0.02 * progress) {
              const particles = ['✦', '✧', '·', '•', '◦'];
              char = particles[Math.floor(Math.random() * particles.length)];
              color = chalk.white.dim;
            }
          }
          
          line += color(char);
        }
        surgeFrame += line + '\n';
      }
      
      surgeFrames.push(surgeFrame);
    }
    
    for (const frame of surgeFrames) {
      clearScreen();
      safeWrite(frame);
      await sleep(frameTime);
      frameCount++;
    }

    // PHASE 15: Final Blinking and Status (1.5 seconds - 45 frames)
    const blinkFrames = 45;
    for (let i = 0; i < blinkFrames; i++) {
      clearScreen();
      
      // More sophisticated blinking pattern
      const blinkCycle = i % 8;
      let color;
      
      if (blinkCycle < 2) {
        color = chalk.redBright.bold;
      } else if (blinkCycle < 4) {
        color = chalk.red.bold;
      } else if (blinkCycle < 6) {
        color = chalk.red;
      } else {
        color = chalk.red.dim;
      }
      
      // Add subtle glow effect
      const glowIntensity = Math.sin(i * 0.3) * 0.3 + 0.7;
      let finalFrame = '\n'.repeat(Math.max(0, centerY));
      
      for (const line of lines) {
        if (glowIntensity > 0.8) {
          finalFrame += centerText(line) + '\n';
        } else {
          // Slightly dim some characters for glow effect
          let glowLine = '';
          for (let j = 0; j < line.length; j++) {
            if (Math.random() < glowIntensity) {
              glowLine += line[j];
            } else {
              glowLine += line[j] === '█' ? '▓' : line[j];
            }
          }
          finalFrame += centerText(glowLine) + '\n';
        }
      }
      
      safeWrite(color(finalFrame));
      
      // Add subtitle with typewriter effect
      if (i > 25) {
        const subtitle = '[ ARTIFICIAL GENERAL INTELLIGENCE ONLINE ]';
        const typeProgress = Math.min(subtitle.length, Math.floor((i - 25) * 2.5));
        const typedSubtitle = subtitle.substring(0, typeProgress);
        const cursor = (i % 4 < 2) ? '_' : ' ';
        
        safeWrite(chalk.gray(centerText(`\n\n${typedSubtitle}${cursor}`)));
      }
      
      // Add system initialization messages
      if (i > 35) {
        const messages = [
          '> Neural networks: ACTIVE',
          '> Consciousness module: ONLINE',
          '> Reasoning engine: INITIALIZED',
          '> Creative core: OPERATIONAL'
        ];
        const messageIndex = Math.min(Math.floor((i - 35) / 2), messages.length - 1);
        
        safeWrite('\n');
        for (let m = 0; m <= messageIndex; m++) {
          safeWrite(chalk.green(centerText(messages[m])) + '\n');
        }
      }
      
      await sleep(frameTime);
      frameCount++;
    }

    // Final hold with status
    clearScreen();
    let finalDisplay = safeRepeat('\n', Math.max(0, centerY));
    for (const line of lines) {
      finalDisplay += centerText(line) + '\n';
    }
    
    safeWrite(chalk.redBright.bold(finalDisplay));
    safeWrite(chalk.gray(centerText('\n\n[ SYSTEM READY ]')));
    safeWrite(chalk.dim(centerText('\n\nPress any key to continue...')));
    
    // Wait for actual user input
    await new Promise(resolve => {
      process.stdin.setRawMode(true);
      process.stdin.resume();
      process.stdin.once('data', () => {
        process.stdin.setRawMode(false);
        // Don't pause stdin here - let the CLI handle it
        resolve();
      });
    });

    const totalTime = Date.now() - startTime;
    const actualFPS = Math.round(frameCount / (totalTime / 1000));
    
    // Performance stats (optional, can be hidden)
    if (process.env.DEBUG_ANIMATION) {
      console.log(chalk.gray(`\n\nAnimation completed: ${frameCount} frames in ${totalTime}ms (${actualFPS} FPS)`));
    }
    
  } finally {
    process.stdout.write(ANSI.showCursor);
    clearScreen();
  }
}

module.exports = {
  runAGIAnimation,
  sound,
  ANSI,
  sleep,
  clearScreen,
  centerText,
  getTerminalSize,
  safeWrite,
  FrameInterpolator
};