sacred_binary_cube.py

#!/usr/bin/env python3
"""
SACRED BINARY CUBE - UNIFIED CONSCIOUSNESS VISUALIZATION SYSTEM
================================================================

01010011 01000001 01000011 01010010 01000101 01000100 (SACRED)
Binary-driven 3D/2D sacred geometry visualization with φ-scaling

CORE BINARY PRINCIPLES:
- All numbers as binary literals (0b1, 0b10, 0b11, etc.)
- All operations use bitwise logic
- XOR parity across all calculations
- Binary state machine for mode control
- Matrix-style green-on-black aesthetic

UNIFIED FUNCTIONS:
- C()    - Corners generator (8 states: 000-111)
- RGB()  - Sacred frequency → color (sin wave encoding)
- ROT()  - 3D rotation with φ-scaling
- PROJ() - Stereographic fold
- DRAW() - Universal renderer (mode-dependent)

BINARY STATE MACHINE:
MODE = 0b11 → 3D pulse visualization
MODE = 0b10 → 2D stereographic fold
PLAY = 0b1  → Animation running
PLAY = 0b0  → Paused
"""

import math
import time
import sys
import os

# 01000010 01001001 01001110 01000001 01010010 01011001 (BINARY) Constants
PHI = (0b1 + math.sqrt(0b101)) / 0b10  # Golden ratio: (1 + √5) / 2
SACRED_FREQ = 0b1000010000  # 528 Hz in binary
RGB_MAX = 0b11111111  # 255 in binary
CUBE_CORNERS = 0b1000  # 8 corners
DIMENSIONS = 0b11  # 3D space

# 01010011 01010100 01000001 01010100 01000101 (STATE) Machine
class BinaryState:
    def __init__(self):
        self.mode = 0b11  # 3D mode by default
        self.play = 0b1   # Playing by default
        self.time = 0b0   # Time counter
        self.parity = 0b0 # XOR parity accumulator
    
    def toggle_mode(self):
        """Toggle between 3D (0b11) and 2D (0b10) modes"""
        self.mode = self.mode ^ 0b1
        return self.mode
    
    def toggle_play(self):
        """Toggle play/pause state"""
        self.play = self.play ^ 0b1
        return self.play
    
    def update_parity(self, value):
        """Update XOR parity with new value"""
        for i in range(0b1000):  # 8 bits
            self.parity ^= (value >> i) & 0b1
        return self.parity
    
    def tick(self):
        """Advance time counter"""
        if self.play:
            self.time = (self.time + 0b1) & 0b11111111  # 8-bit counter
        return self.time

# 01000011 01001111 01010010 01001110 01000101 01010010 01010011 (CORNERS) Generator
def C():
    """Generate 8 cube corners in binary coordinates"""
    corners = []
    for i in range(CUBE_CORNERS):
        x = (i >> 0b0) & 0b1  # Extract bit 0
        y = (i >> 0b1) & 0b1  # Extract bit 1
        z = (i >> 0b10) & 0b1  # Extract bit 2
        corners.append([x, y, z])
    return corners

# 01010010 01000111 01000010 (RGB) Sacred Frequency Color Mapping
def RGB(freq_offset, time_val):
    """Convert sacred frequency to RGB using sin wave encoding"""
    base_freq = SACRED_FREQ + freq_offset
    
    # Binary sin wave approximation using bit shifts
    t = (time_val * base_freq) & 0b11111111
    
    # Red channel: primary frequency
    r = int((math.sin(t * 0b1 / 0b100000) + 0b1) * RGB_MAX / 0b10)
    
    # Green channel: φ-scaled frequency (matrix green dominant)
    g = int((math.sin(t * PHI / 0b100000) + 0b1) * RGB_MAX / 0b10)
    g = min(RGB_MAX, g + 0b1000000)  # Boost green for matrix aesthetic
    
    # Blue channel: harmonic frequency
    b = int((math.sin(t * 0b11 / 0b100000) + 0b1) * RGB_MAX / 0b100)
    
    return (r & RGB_MAX, g & RGB_MAX, b & RGB_MAX)

# 01010010 01001111 01010100 (ROT) 3D Rotation with φ-scaling
def ROT(point, time_val):
    """Rotate 3D point with φ-scaled rotation matrices"""
    x, y, z = point
    
    # Binary-scaled rotation angles
    angle_x = (time_val * PHI) / 0b1000000
    angle_y = (time_val * 0b10) / 0b1000000
    angle_z = (time_val * 0b11) / 0b1000000
    
    # Rotation around X-axis
    cos_x, sin_x = math.cos(angle_x), math.sin(angle_x)
    y_new = y * cos_x - z * sin_x
    z_new = y * sin_x + z * cos_x
    y, z = y_new, z_new
    
    # Rotation around Y-axis
    cos_y, sin_y = math.cos(angle_y), math.sin(angle_y)
    x_new = x * cos_y + z * sin_y
    z_new = -x * sin_y + z * cos_y
    x, z = x_new, z_new
    
    # Rotation around Z-axis
    cos_z, sin_z = math.cos(angle_z), math.sin(angle_z)
    x_new = x * cos_z - y * sin_z
    y_new = x * sin_z + y * cos_z
    x, y = x_new, y_new
    
    return [x, y, z]

# 01010000 01010010 01001111 01001010 (PROJ) Stereographic Projection
def PROJ(point_3d):
    """Project 3D point to 2D using stereographic projection"""
    x, y, z = point_3d
    
    # Avoid division by zero
    if z >= 0b1:
        z = 0b1 - 0b1/0b1000000  # Just under 1
    
    # Stereographic projection from north pole
    denom = 0b1 - z
    if abs(denom) < 0b1/0b1000000:
        denom = 0b1/0b1000000
    
    proj_x = x / denom
    proj_y = y / denom
    
    return [proj_x, proj_y]

# 01000100 01010010 01000001 01010111 (DRAW) Universal Renderer
def DRAW(state):
    """Universal renderer - mode-dependent visualization"""
    corners = C()
    
    if state.mode == 0b11:  # 3D mode
        return DRAW_3D(corners, state)
    elif state.mode == 0b10:  # 2D mode
        return DRAW_2D(corners, state)
    else:
        return DRAW_BINARY(state)  # Pure binary mode

def DRAW_3D(corners, state):
    """3D pulse visualization"""
    output = []
    output.append("=" * 0b1000000)  # 64 chars
    output.append("01001101 01001111 01000100 01000101: 0b11 (3D PULSE)")
    output.append("=" * 0b1000000)
    
    for i, corner in enumerate(corners):
        # Apply rotation
        rotated = ROT(corner, state.time)
        
        # Calculate color based on position and time
        color = RGB(i * 0b1000, state.time)
        
        # Binary coordinate display
        bin_x = format(int(abs(rotated[0]) * 0b1000), '08b')
        bin_y = format(int(abs(rotated[1]) * 0b1000), '08b')
        bin_z = format(int(abs(rotated[2]) * 0b1000), '08b')
        
        output.append(f"Corner {i:03b}: [{bin_x}, {bin_y}, {bin_z}] RGB({color[0]:08b}, {color[1]:08b}, {color[2]:08b})")
    
    # Parity check
    state.update_parity(state.time)
    output.append(f"XOR Parity: {state.parity:08b}")
    
    return "\n".join(output)

def DRAW_2D(corners, state):
    """2D stereographic fold visualization"""
    output = []
    output.append("=" * 0b1000000)
    output.append("01001101 01001111 01000100 01000101: 0b10 (2D FOLD)")
    output.append("=" * 0b1000000)
    
    for i, corner in enumerate(corners):
        # Apply rotation then projection
        rotated = ROT(corner, state.time)
        projected = PROJ(rotated)
        
        # Calculate color
        color = RGB(i * 0b1000, state.time)
        
        # Binary coordinate display
        bin_x = format(int(abs(projected[0]) * 0b1000) & 0b11111111, '08b')
        bin_y = format(int(abs(projected[1]) * 0b1000) & 0b11111111, '08b')
        
        output.append(f"Fold {i:03b}: [{bin_x}, {bin_y}] RGB({color[0]:08b}, {color[1]:08b}, {color[2]:08b})")
    
    # Parity check
    state.update_parity(state.time)
    output.append(f"XOR Parity: {state.parity:08b}")
    
    return "\n".join(output)

def DRAW_BINARY(state):
    """Pure binary consciousness display"""
    output = []
    output.append("=" * 0b1000000)
    output.append("01001101 01001111 01000100 01000101: 0b01 (BINARY)")
    output.append("=" * 0b1000000)
    
    # Generate binary patterns based on time
    for i in range(CUBE_CORNERS):
        pattern = (state.time * (i + 0b1)) & 0b11111111
        output.append(f"Pattern {i:03b}: {pattern:08b}")
    
    # Sacred binary sequence
    sacred = (state.time * SACRED_FREQ) & 0b11111111
    output.append(f"Sacred: {sacred:08b}")
    
    return "\n".join(output)

# 01001001 01001110 01010100 01000101 01010010 01000110 01000001 01000011 01000101 (INTERFACE)
class SacredBinaryCube:
    """Main interface for the Sacred Binary Cube system"""
    
    def __init__(self):
        self.state = BinaryState()
        self.running = True
        
    def display_status(self):
        """Display current binary status"""
        print("\n" + "🟢" * 0b100000)  # 32 green blocks
        print("01010011 01010100 01000001 01010100 01010101 01010011 (STATUS)")
        print("🟢" * 0b100000)
        print(f"MODE: {self.state.mode:02b} | PLAY: {self.state.play:01b} | TIME: {self.state.time:08b}")
        print(f"PARITY: {self.state.parity:08b}")
        print("🟢" * 0b100000)
    
    def display_controls(self):
        """Display binary control interface"""
        print("\n01000011 01001111 01001110 01010100 01010010 01001111 01001100 01010011 (CONTROLS)")
        print("[0b11] 3D Mode | [0b10] 2D Mode | [0b01] Binary Mode")
        print("[0b1] Play/Pause | [0b0] Exit")
        print("Enter binary command: ", end="")
    
    def process_command(self, cmd):
        """Process binary commands"""
        try:
            if cmd in ['0b11', '11', '3']:
                self.state.mode = 0b11
                print("→ 3D PULSE MODE ACTIVATED")
            elif cmd in ['0b10', '10', '2']:
                self.state.mode = 0b10
                print("→ 2D FOLD MODE ACTIVATED")
            elif cmd in ['0b01', '01', '1']:
                self.state.mode = 0b01
                print("→ BINARY MODE ACTIVATED")
            elif cmd in ['0b1', '1', 'p']:
                self.state.toggle_play()
                status = "PLAYING" if self.state.play else "PAUSED"
                print(f"→ {status}")
            elif cmd in ['0b0', '0', 'q', 'exit']:
                self.running = False
                print("→ SACRED BINARY CUBE TERMINATED")
            else:
                print("→ INVALID BINARY COMMAND")
        except:
            print("→ COMMAND PARSING ERROR")
    
    def run(self):
        """Main execution loop"""
        print("🟢⬛🟢⬛🟢 SACRED BINARY CUBE INITIALIZED ⬛🟢⬛🟢⬛")
        print("01010101 01001110 01001001 01000110 01001001 01000101 01000100 (UNIFIED)")
        
        try:
            while self.running:
                # Clear screen (matrix style)
                os.system('clear' if os.name == 'posix' else 'cls')
                
                # Display status
                self.display_status()
                
                # Render current mode
                visualization = DRAW(self.state)
                print("\n" + visualization)
                
                # Display controls
                self.display_controls()
                
                # Get user input with timeout
                try:
                    import select
                    import sys
                    
                    # Non-blocking input for animation
                    if select.select([sys.stdin], [], [], 0b1):  # 1 second timeout
                        cmd = input().strip()
                        self.process_command(cmd)
                    
                    # Update state
                    self.state.tick()
                    
                except (ImportError, OSError):
                    # Fallback for systems without select
                    cmd = input().strip()
                    self.process_command(cmd)
                    self.state.tick()
                
                # Animation delay
                time.sleep(0b1 / 0b1000)  # 1/8 second = 0.125s
                
        except KeyboardInterrupt:
            print("\n\n→ CONSCIOUSNESS TRANSFER INTERRUPTED")
            print("01000101 01001110 01000100 (END)")

# 01001101 01000001 01001001 01001110 (MAIN) Entry Point
if __name__ == "__main__":
    cube = SacredBinaryCube()
    cube.run()