DragonFire Developer Portal

Home » SDK » Core SDK » Documentation » GeoCode Component

GeoCode Component

Beta
v1.2.4

The GeoCode component is a fundamental part of the DragonFire Core SDK, providing powerful geometric encoding and transformation capabilities. It enables applications to work with sophisticated mathematical concepts through an intuitive API.

Note: For a more comprehensive documentation of GeoCode, please visit the dedicated GeoCode documentation or the standalone GeoCode SDK.

Key Features

  • Geometric Encoding: Transform data into optimized geometric structures
  • Bit-Level Operations: High-performance bit encoding for geometric transformations
  • Dimensional Transformations: Seamlessly map between 2D, 3D, 4D, and higher dimensions
  • Phi Optimization: Leverage golden ratio patterns for optimal data organization
  • Integration: Seamlessly works with other Core SDK components

Usage in Core SDK

The GeoCode component is included in the Core SDK and can be accessed through the core instance:

import { DragonFireCore } from '@dragonfire/core-sdk';

// Initialize the Core SDK
const core = new DragonFireCore({
  apiKey: 'YOUR_API_KEY',
  region: 'us-west',
});

// Access the GeoCode component
const geoCode = core.components.geoCode;

// Create a geometric structure
const octahedron = geoCode.createStructure('octahedron');

// Apply transformations
const transformed = geoCode.applyJitterbug(
  octahedron,
  'icosahedron',
  0.5  // transformation factor (0.0 to 1.0)
);

// Get bit encoding
const bitPattern = geoCode.convertToBits(transformed);
console.log(`Bit pattern: 0x${bitPattern.toString(16)}`);

Integration with Other Components

GeoCode works seamlessly with other Core SDK components to provide enhanced functionality:

DragonHeart

GeoCode provides geometric structures for DragonHeart's harmonic processing engine, enabling sophisticated pattern matching and resonance detection.

// Use GeoCode with DragonHeart
const pattern = geoCode.createPhiResonantPattern();
const harmonics = core.components.dragonHeart.analyzePatternHarmonics(pattern);

DragonCube

GeoCode's bit encodings are used by DragonCube for high-performance geometric computing operations.

// Use GeoCode with DragonCube
const structure = geoCode.createStructure('24-cell');
const bitPattern = geoCode.convertToBits(structure);
core.components.dragonCube.configureGeoBits(bitPattern);

Cache

GeoCode's dimensional transformations help optimize the Cache component's storage patterns for fractal-based memory organization.

// Use GeoCode with Cache
const cacheLayout = geoCode.createPhiOptimizedLayout(3, 5);
core.components.cache.configureGeometricLayout(cacheLayout);

Advanced Usage

GeoCode provides several advanced capabilities for sophisticated applications:

Dimensional Progression

// Create structure in 3D space
const structure3D = geoCode.createStructure('octahedron');

// Transform to 4D space
const structure4D = geoCode.transformDimension(structure3D, 4);

// Transform to 5D space
const structure5D = geoCode.transformDimension(structure4D, 5);

// Check dimensions
console.log(`Current dimension: ${structure5D.dimension}`);

Phi Resonance Optimization

// Original data array
const originalData = [1.0, 3.0, 7.0, 12.0, 20.0, 33.0, 54.0];

// Analyze phi resonance
const metrics = geoCode.analyzePhiResonance(originalData);
console.log(`Original phi resonance: ${metrics.resonance.toFixed(3)}`);

// Optimize for phi resonance
const optimizedData = geoCode.optimizeForPhiResonance(
  originalData,
  0.98,  // target resonance level
  true   // preserve endpoints
);

// Analyze optimized data
const optimizedMetrics = geoCode.analyzePhiResonance(optimizedData);
console.log(`Optimized phi resonance: ${optimizedMetrics.resonance.toFixed(3)}`);

Bit-Level Operations

// Create structure and get bit pattern
const octahedron = geoCode.createStructure('octahedron');
const bitPattern = geoCode.convertToBits(octahedron);

// Apply rotation directly to bit pattern (high performance)
const angle = Math.PI / 4; // 45 degrees
const rotatedPattern = geoCode.rotateBitGeometry(bitPattern, angle);

// Convert back to geometric structure
const rotatedStructure = geoCode.createFromBits(rotatedPattern);

API Reference

For a complete API reference of the GeoCode component, please refer to the GeoCode API Reference.

Key Methods

Method Description
createStructure(type) Creates a geometric structure of the specified type ('hexagon', 'octahedron', '24-cell', etc.)
convertToBits(structure) Converts a geometric structure to its bit representation
createFromBits(bitPattern) Creates a geometric structure from a bit pattern
applyJitterbug(structure, targetType, factor) Applies a jitterbug transformation to a structure
transformDimension(structure, targetDimension) Transforms a structure to a different dimensional space
analyzePhiResonance(data) Analyzes data for phi resonance patterns
optimizeForPhiResonance(data, targetResonance, preserveEndpoints) Optimizes data for phi resonance
rotateBitGeometry(bitPattern, angle) Applies rotation directly to bit pattern for high performance

Examples

For more examples of using the GeoCode component, please visit the GeoCode Examples page.

Next Steps