typedef struct {
    uint8_t dimensions;          // Number of dimensions (7, 11, 13, or 17)
    double* harmonicConstants;   // Array of harmonic constants
    ReferenceFrame* frames;      // Array of reference frames
    uint32_t frameCount;         // Number of reference frames
} MerlinFrameGenerator;

typedef struct {
    uint8_t* opcodes;           // Navigation instruction opcodes
    uint32_t* parameters;       // Instruction parameters
    uint32_t instructionCount;  // Number of instructions
    uint32_t currentPosition;   // Current position in instruction sequence
} VectorNavigator;

typedef struct {
    double phi;                 // Golden ratio (≈1.618033988749895)
    double pi;                  // π (≈3.14159265358979)
    double sqrt2;               // √2 (≈1.4142135623731)
    double sqrt3;               // √3 (≈1.73205080756888)
    uint8_t resonanceMode;      // Current resonance mode
    double resonanceStrength;   // Current resonance strength
} HarmonicResonator;

typedef struct {
    uint8_t recursionLevel;     // Current recursion level
    uint8_t maxRecursionLevel;  // Maximum recursion level
    double compressionRatio;    // Current compression ratio
    bool autoLevel;             // Automatically determine optimal recursion level
} RecursiveCompressor;

// Merlin navigation instruction opcodes
typedef enum {
    OP_MOVE          = 0x01,  // Move in specified direction
    OP_ROTATE        = 0x02,  // Rotate reference frame
    OP_JUMP          = 0x03,  // Jump to absolute position
    OP_SCALE         = 0x04,  // Scale movement factor
    OP_FRAME_SWITCH  = 0x05,  // Switch to different reference frame
    OP_DIMENSION     = 0x06,  // Change active dimensions
    OP_HARMONIC      = 0x07,  // Apply harmonic transformation
    OP_REPEAT        = 0x08,  // Repeat previous sequence
    OP_RECURSE       = 0x09,  // Enter recursive level
    OP_RETURN        = 0x0A   // Return from recursive level
} MerlinOpcode;

typedef struct {
    MerlinOpcode opcode : 10;   // 10-bit operation code
    uint32_t parameter : 22;    // 22-bit parameter
} MerlinInstruction;

// Example of navigation sequence for text data
// This short sequence might reconstruct thousands of bytes
{
    {OP_FRAME_SWITCH, 3},      // Switch to phi-resonant frame
    {OP_DIMENSION, 11},        // Use 11 dimensions
    {OP_MOVE, 0x3F719A},       // Move along specific vector
    {OP_ROTATE, 0x0000A8},     // Rotate 168 degrees
    {OP_HARMONIC, 2},          // Apply phi-squared transformation
    {OP_REPEAT, 7},            // Repeat last 7 instructions
    {OP_JUMP, 0x1B42D0},       // Jump to new position
    {OP_SCALE, 0x000082},      // Scale by factor of 130
    {OP_RECURSE, 2},           // Enter recursion level 2
    // ...
    {OP_RETURN, 0}             // Return from recursion
}

// Generate reference frame
ReferenceFrame* generateReferenceFrame(uint8_t dimensions, double* harmonicConstants) {
    ReferenceFrame* frame = (ReferenceFrame*)malloc(sizeof(ReferenceFrame));
    frame->dimensions = dimensions;
    
    // Allocate memory for axes
    frame->axes = (Vector**)malloc(sizeof(Vector*) * dimensions);
    for (int i = 0; i < dimensions; i++) {
        frame->axes[i] = (Vector*)malloc(sizeof(Vector) * dimensions);
    }
    
    // Generate orthogonal axes with harmonic scaling
    for (int i = 0; i < dimensions; i++) {
        for (int j = 0; j < dimensions; j++) {
            // Use harmonic constants to scale axes
            double scale = harmonicConstants[i % 4];
            
            // Apply phi-scaling for resonance
            if (i == j) {
                scale *= PHI;
            } else if ((i + j) % 2 == 0) {
                scale *= PI / PHI;
            } else {
                scale *= SQRT2 * SQRT3 / 3.0;
            }
            
            frame->axes[i][j] = scale;
        }
    }
    
    // Initialize origin point
    frame->origin = (double*)malloc(sizeof(double) * dimensions);
    for (int i = 0; i < dimensions; i++) {
        frame->origin[i] = 0.0;
    }
    
    return frame;
}

// Rotate reference frame
void rotateReferenceFrame(ReferenceFrame* frame, double angle, int plane1, int plane2) {
    // Create rotation matrix
    double cosAngle = cos(angle);
    double sinAngle = sin(angle);
    
    // Apply rotation to axes
    for (int i = 0; i < frame->dimensions; i++) {
        double temp1 = frame->axes[plane1][i];
        double temp2 = frame->axes[plane2][i];
        
        frame->axes[plane1][i] = temp1 * cosAngle - temp2 * sinAngle;
        frame->axes[plane2][i] = temp1 * sinAngle + temp2 * cosAngle;
    }
}

// Apply harmonic transformation
void applyHarmonicTransformation(ReferenceFrame* frame, uint8_t transformType) {
    switch (transformType) {
        case 0: // Phi-scaling
            for (int i = 0; i < frame->dimensions; i++) {
                for (int j = 0; j < frame->dimensions; j++) {
                    frame->axes[i][j] *= PHI;
                }
            }
            break;
            
        case 1: // Pi-rotation
            for (int i = 0; i < frame->dimensions; i += 2) {
                if (i + 1 < frame->dimensions) {
                    rotateReferenceFrame(frame, PI, i, i + 1);
                }
            }
            break;
            
        case 2: // Sqrt2-diagonal transformation
            for (int i = 0; i < frame->dimensions; i++) {
                for (int j = 0; j < frame->dimensions; j++) {
                    if (i == j) {
                        frame->axes[i][j] *= SQRT2;
                    }
                }
            }
            break;
            
        case 3: // Sqrt3-triangulation
            for (int i = 0; i < frame->dimensions; i++) {
                if (i % 3 == 0) {
                    for (int j = 0; j < frame->dimensions; j++) {
                        frame->axes[i][j] *= SQRT3;
                    }
                }
            }
            break;
    }
}

// Create Merlin compressor with default settings
MerlinCompressor* merlin = createMerlinCompressor();

// Configure compressor
merlin->dimensions = 11;             // Use 11 dimensions
merlin->maxRecursionLevel = 3;       // Maximum recursion depth
merlin->autoOptimize = true;         // Automatically optimize settings

// Compress data
byte* compress(MerlinCompressor* merlin, byte* data, size_t dataSize, size_t* compressedSize) {
    // Analyze data
    analyzeData(merlin, data, dataSize);
    
    // Generate reference frames
    generateReferenceFrames(merlin);
    
    // Map data to vector space
    mapDataToVectors(merlin, data, dataSize);
    
    // Create navigation path
    createNavigationPath(merlin);
    
    // Optimize path
    optimizeNavigationPath(merlin);
    
    // Encode navigation instructions
    byte* compressed = encodeInstructions(merlin, compressedSize);
    
    // Apply recursive compression if beneficial
    if (merlin->autoOptimize && (*compressedSize > dataSize / 10)) {
        byte* recursiveCompressed = recursivelyCompress(merlin, compressed, *compressedSize, compressedSize);
        free(compressed);
        compressed = recursiveCompressed;
    }
    
    return compressed;
}

// Decompress data
byte* decompress(MerlinCompressor* merlin, byte* compressed, size_t compressedSize, size_t* decompressedSize) {
    // Check for recursive compression
    if (isRecursivelyCompressed(compressed)) {
        // Decompress the instruction set first
        size_t instructionSize = 0;
        byte* instructions = recursivelyDecompress(merlin, compressed, compressedSize, &instructionSize);
        
        // Parse instructions
        parseInstructions(merlin, instructions, instructionSize);
        free(instructions);
    } else {
        // Parse instructions directly
        parseInstructions(merlin, compressed, compressedSize);
    }
    
    // Generate reference frames
    generateReferenceFrames(merlin);
    
    // Execute navigation path
    byte* decompressed = executeNavigationPath(merlin, decompressedSize);
    
    return decompressed;
}

// Optimize Merlin compressor for specific data type
void optimizeForDataType(MerlinCompressor* merlin, DataType type) {
    switch (type) {
        case DATA_TEXT:
            merlin->dimensions = 7;
            merlin->primaryResonance = RESONANCE_PHI;
            merlin->maxRecursionLevel = 2;
            break;
            
        case DATA_MIXED:
            merlin->dimensions = 11;
            merlin->primaryResonance = RESONANCE_PI;
            merlin->maxRecursionLevel = 3;
            break;
            
        case DATA_BINARY:
            merlin->dimensions = 13;
            merlin->primaryResonance = RESONANCE_SQRT2;
            merlin->maxRecursionLevel = 3;
            break;
            
        case DATA_MULTIMEDIA:
            merlin->dimensions = 17;
            merlin->primaryResonance = RESONANCE_SQRT3;
            merlin->maxRecursionLevel = 4;
            break;
    }
}

// Integrate Turtle with Merlin
void integrateWithTurtle(MerlinCompressor* merlin, TurtleModule* turtle) {
    // Configure Turtle for Merlin compatibility
    turtle->merlinMode = true;
    
    // Connect Turtle output to Merlin input processor
    merlin->inputProcessor = processTurtleOutput;
    merlin->turtleModule = turtle;
    
    // Configure optimal dimensions based on Turtle block structure
    merlin->dimensions = 13;  // Optimal for Turtle's 16×64-bit blocks
    
    // Set resonance mode to match Turtle's time-synchronized keys
    merlin->primaryResonance = RESONANCE_PHI;
    
    // Enable advanced path optimization for Turtle-processed data
    merlin->pathOptimizationLevel = 3;
}

// Configure DragonCache to use Merlin Compression
void configureCacheWithMerlin(DragonCache* cache) {
    // Create Merlin compressor optimized for cache data
    MerlinCompressor* merlin = createMerlinCompressor();
    merlin->dimensions = 11;
    merlin->maxRecursionLevel = 2;  // Lower recursion for faster cache access
    merlin->primaryResonance = RESONANCE_PI;
    
    // Set compression functions
    cache->compressFunction = compressWithMerlin;
    cache->decompressFunction = decompressWithMerlin;
    cache->compressionContext = merlin;
    
    // Enable automatic compression for items larger than threshold
    cache->compressionThreshold = 4096;  // 4KB
    
    // Configure compression ratio thresholds
    cache->minCompressionRatio = 5.0;  // Only store compressed if ratio > 5:1
}

// Configure RWT connection with Merlin Compression
function configureRWTConnection(connection) {
    // Create Merlin processor
    const merlin = createMerlinProcessor({
        dimensions: 11,
        recursionLevel: 2,
        autoOptimize: true
    });
    
    // Configure compression for outgoing messages
    connection.setProcessor('outgoing', (data) => {
        // Compress data with Merlin
        const compressed = merlin.compress(data);
        
        // Add compression marker
        return {
            compressed: true,
            merlinVersion: MERLIN_VERSION,
            data: compressed
        };
    });
    
    // Configure decompression for incoming messages
    connection.setProcessor('incoming', (message) => {
        if (message.compressed && message.merlinVersion) {
            // Decompress data with Merlin
            return merlin.decompress(message.data);
        }
        
        // Return uncompressed data
        return message;
    });
}

#include "merlin.h"

int main() {
    // Create Merlin compressor
    MerlinCompressor* merlin = createMerlinCompressor();
    
    // Configure compressor
    merlin->dimensions = 11;
    merlin->maxRecursionLevel = 3;
    merlin->autoOptimize = true;
    
    // Load test data
    size_t dataSize = 0;
    byte* data = loadFile("test.dat", &dataSize);
    
    // Compress data
    size_t compressedSize = 0;
    byte* compressed = compress(merlin, data, dataSize, &compressedSize);
    
    printf("Original size: %zu bytes\n", dataSize);
    printf("Compressed size: %zu bytes\n", compressedSize);
    printf("Compression ratio: %.2f:1\n", 
           (float)dataSize / (float)compressedSize);
    
    // Verify compression
    size_t decompressedSize = 0;
    byte* decompressed = decompress(merlin, compressed, compressedSize, &decompressedSize);
    
    // Verify data integrity
    bool identical = (decompressedSize == dataSize) &&
                     (memcmp(data, decompressed, dataSize) == 0);
    
    printf("Decompression successful: %s\n", identical ? "YES" : "NO");
    printf("Decompressed size: %zu bytes\n", decompressedSize);
    
    // Save compressed data
    saveFile("test.merlin", compressed, compressedSize);
    
    // Clean up
    free(data);
    free(compressed);
    free(decompressed);
    freeMerlinCompressor(merlin);
    
    return 0;
}

// JavaScript Merlin compression implementation
const MerlinCompression = {
    // Create a new compressor
    createCompressor(options = {}) {
        return {
            dimensions: options.dimensions || 11,
            recursionLevel: options.recursionLevel || 2,
            autoOptimize: options.autoOptimize !== undefined ? options.autoOptimize : true,
            
            // Compress data
            compress(data) {
                // Convert data to appropriate format
                const buffer = (typeof data === 'string') 
                    ? new TextEncoder().encode(data)
                    : new Uint8Array(data);
                
                // Call internal compression implementation
                return MerlinCompression._compress(
                    this, 
                    buffer, 
                    buffer.length
                );
            },
            
            // Decompress data
            decompress(compressed) {
                // Determine output format
                const decompressed = MerlinCompression._decompress(
                    this,
                    compressed,
                    compressed.length
                );
                
                return decompressed;
            }
        };
    },
    
    // Internal compression implementation
    _compress(compressor, data, dataSize) {
        // Implementation of Merlin compression algorithm
        // ...
        
        return compressed;
    },
    
    // Internal decompression implementation
    _decompress(compressor, compressed, compressedSize) {
        // Implementation of Merlin decompression algorithm
        // ...
        
        return decompressed;
    }
};

// Example usage
const compressor = MerlinCompression.createCompressor({
    dimensions: 11,
    recursionLevel: 3,
    autoOptimize: true
});

// Compress string data
const data = "This is example data to compress with Merlin";
const compressed = compressor.compress(data);

console.log(`Original size: ${data.length} bytes`);
console.log(`Compressed size: ${compressed.length} bytes`);
console.log(`Compression ratio: ${(data.length / compressed.length).toFixed(2)}:1`);

// Decompress back to original
const decompressed = compressor.decompress(compressed);
const decompressedString = new TextDecoder().decode(decompressed);

console.log(`Decompression successful: ${data === decompressedString}`);
console.log(`Decompressed data: ${decompressedString}`);

// Complete integration example with Turtle and WebSockets
function setupCompletePipeline() {
    // Initialize HexStream codec
    const hexstream = initHexStream({
        level: 3,
        useTurtle: true
    });
    
    // Initialize Turtle module
    const turtle = initTurtleModule({
        refreshInterval: 5000,
        optimizeMobile: true
    });
    
    // Initialize Merlin compressor
    const merlin = initMerlinCompressor({
        dimensions: 13,
        recursionLevel: 3,
        autoOptimize: true
    });
    
    // Connect components
    connectTurtleToHexStream(turtle, hexstream);
    integrateWithMerlin(turtle, merlin);
    
    // Set up WebSocket connection
    const rwtConnection = createRWTConnection("wss://api.example.com/socket");
    
    // Configure compression pipeline for WebSocket
    rwtConnection.setPipeline({
        outgoing: (data) => {
            // Process data through complete pipeline
            const hexProcessed = hexstream.process(data);
            const turtleProcessed = turtle.process(hexProcessed);
            const merlinCompressed = merlin.compress(turtleProcessed);
            
            return merlinCompressed;
        },
        
        incoming: (data) => {
            // Reverse the pipeline for incoming data
            const merlinDecompressed = merlin.decompress(data);
            const turtleDecompressed = turtle.reverse(merlinDecompressed);
            const hexDecompressed = hexstream.reverse(turtleDecompressed);
            
            return hexDecompressed;
        }
    });
    
    // Return the configured pipeline
    return {
        hexstream,
        turtle,
        merlin,
        connection: rwtConnection,
        
        // Compress using complete pipeline
        compress(data) {
            const hexProcessed = hexstream.process(data);
            const turtleProcessed = turtle.process(hexProcessed);
            const merlinCompressed = merlin.compress(turtleProcessed);
            
            return merlinCompressed;
        },
        
        // Decompress using complete pipeline
        decompress(compressed) {
            const merlinDecompressed = merlin.decompress(compressed);
            const turtleDecompressed = turtle.reverse(merlinDecompressed);
            const hexDecompressed = hexstream.reverse(turtleDecompressed);
            
            return hexDecompressed;
        }
    };
}