@sschepis/resolang
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ResoLang - Core quantum resonance computation library
363 lines (320 loc) β’ 12.9 kB
text/typescript
// index.ts
// Main index file for all ResoLang examples
// Import all example modules
import { runAllBasicQuantumExamples } from "./basic-quantum-operations";
import { runAllNetworkExamples } from "./network-topology-routing";
import { runAllIdentityExamples } from "./identity-domain-management";
import { runAllRuntimeExamples } from "./runtime-instructions";
import { runAllMathExamples } from "./mathematical-foundations";
import { runAllPracticalExamples } from "./practical-applications";
// Phase 1: P β NP Proof Mathematical Foundation
import { runSelfReferentialComplexityExamples } from "./self-referential-complexity";
import { runAllGodelEncodingExamples } from "./godel-encoding";
import { runAllTuringMachineExamples } from "./turing-machine-simulator";
// Phase 3: P = NP Breakthrough Validation Framework
import {
ComprehensiveBenchmarkSuite,
runFullValidationSuite
} from "./comprehensive-benchmark-suite";
import { runBenchmarkTests } from "./test-comprehensive-benchmark-suite";
import { runComprehensiveValidation } from "./polynomial-convergence-validator";
import { UniversalSymbolicTransformer, NPProblemType } from "./universal-symbolic-transformer";
// Re-export individual example functions for selective usage
export {
// Basic Quantum Operations
exampleQuantumStates,
exampleQuantumNodes,
exampleStabilization,
exampleTeleportation,
exampleAttractors,
exampleQuantumCircuit
} from "./basic-quantum-operations";
export {
// Network Topology and Routing
exampleBasicTopology,
exampleMultiHopRouting,
exampleStarTopology,
exampleMeshTopology,
exampleDynamicReconfiguration,
exampleStateDistribution
} from "./network-topology-routing";
export {
// Identity and Domain Management
exampleIdentityCreation,
exampleDomainManagement,
exampleObjectManagement,
exampleObjectTransfers,
examplePermissionSystem,
exampleAdvancedIdentityFeatures
} from "./identity-domain-management";
export {
// Runtime Instructions (RISA)
exampleBasicInstructions,
examplePhaseOperations,
exampleEntanglementOperations,
exampleControlFlow,
exampleHolographicMemory,
examplePrimeOperations
} from "./runtime-instructions";
export {
// Mathematical Foundations
exampleComplexArithmetic,
examplePrimeTheory,
examplePrimeFields,
exampleQuaternionMath,
exampleEntanglementMath,
exampleCryptographicMath,
exampleInformationTheory
} from "./mathematical-foundations";
export {
// Practical Applications
exampleQuantumCommunicationProtocol,
exampleQuantumErrorCorrection,
exampleQuantumMachineLearning,
exampleQuantumKeyExchange,
exampleQuantumSimulationPipeline,
exampleHybridAlgorithm
} from "./practical-applications";
export {
// P = NP Breakthrough Validation Framework
ComprehensiveBenchmarkSuite,
runFullValidationSuite
} from "./comprehensive-benchmark-suite";
export {
// Test Suite Functions
runBenchmarkTests
} from "./test-comprehensive-benchmark-suite";
export {
// Polynomial Convergence Validation
runComprehensiveValidation
} from "./polynomial-convergence-validator";
export {
// Universal Symbolic Transformer
UniversalSymbolicTransformer,
NPProblemType
} from "./universal-symbolic-transformer";
/**
* Run all ResoLang examples in sequence
* This function executes all example categories in a logical order
*/
export function runAllResoLangExamples(): void {
console.log("π === RESOLANG COMPREHENSIVE EXAMPLES === π\n");
console.log("Demonstrating the full capabilities of the ResoLang quantum programming language");
console.log("β".repeat(80));
// 1. Mathematical Foundations - The bedrock of ResoLang
console.log("\nπ MATHEMATICAL FOUNDATIONS");
console.log("Understanding the mathematical principles underlying quantum computation");
runAllMathExamples();
// 2. Basic Quantum Operations - Core language features
console.log("\nβοΈ BASIC QUANTUM OPERATIONS");
console.log("Fundamental quantum-inspired operations in ResoLang");
runAllBasicQuantumExamples();
// 3. Runtime Instructions - Low-level programming
console.log("\nπ§ RUNTIME INSTRUCTION SYSTEM (RISA)");
console.log("Low-level quantum assembly programming");
runAllRuntimeExamples();
// 4. Network Topology - Distributed quantum systems
console.log("\nπ NETWORK TOPOLOGY AND ROUTING");
console.log("Building distributed quantum networks");
runAllNetworkExamples();
// 5. Identity and Domain Management - Security and governance
console.log("\nπ IDENTITY AND DOMAIN MANAGEMENT");
console.log("Quantum-secure identity, domains, and permissions");
runAllIdentityExamples();
// 6. Practical Applications - Real-world use cases
console.log("\nπ PRACTICAL APPLICATIONS");
console.log("Real-world quantum computing applications");
runAllPracticalExamples();
// 7. P = NP Breakthrough Validation Framework
console.log("\nπ§ P = NP BREAKTHROUGH VALIDATION");
console.log("Comprehensive benchmark suite for P = NP breakthrough validation");
runBenchmarkTests();
console.log("\n" + "β".repeat(80));
console.log("π ALL RESOLANG EXAMPLES COMPLETED SUCCESSFULLY! π");
console.log("\nResoLang demonstrates:");
console.log("β’ Quantum-inspired programming paradigms");
console.log("β’ Prime-based mathematical foundations");
console.log("β’ Distributed quantum network protocols");
console.log("β’ Enterprise-grade identity management");
console.log("β’ Practical quantum computing applications");
console.log("β’ Holographic memory and storage systems");
console.log("β’ Advanced cryptographic primitives");
console.log("β’ Hybrid classical-quantum algorithms");
console.log("\nThe future of quantum programming is here! β¨");
}
/**
* Run examples by category
* Allows selective execution of specific example categories
*/
export function runExamplesByCategory(category: string): void {
switch (category.toLowerCase()) {
case "math":
case "mathematical":
console.log("Running Mathematical Foundation Examples...");
runAllMathExamples();
break;
case "quantum":
case "basic":
console.log("Running Basic Quantum Operation Examples...");
runAllBasicQuantumExamples();
break;
case "runtime":
case "risa":
console.log("Running Runtime Instruction Examples...");
runAllRuntimeExamples();
break;
case "network":
case "topology":
console.log("Running Network Topology Examples...");
runAllNetworkExamples();
break;
case "identity":
case "domain":
console.log("Running Identity and Domain Examples...");
runAllIdentityExamples();
break;
case "practical":
case "applications":
console.log("Running Practical Application Examples...");
runAllPracticalExamples();
break;
case "p-vs-np":
case "proof":
console.log("Running P β NP Proof Implementation Examples...");
runPvsNPProofExamples();
break;
case "benchmark":
case "validation":
console.log("Running P = NP Breakthrough Validation Examples...");
runBenchmarkTests();
break;
case "all":
default:
runAllResoLangExamples();
break;
}
}
/**
* Get example statistics
* Returns information about the available examples
*/
export function getExampleStatistics(): string {
const stats = {
totalCategories: 7,
examplesPerCategory: {
"Mathematical Foundations": 7,
"Basic Quantum Operations": 6,
"Runtime Instructions": 7,
"Network Topology": 6,
"Identity & Domain": 6,
"Practical Applications": 6,
"P = NP Validation": 18
},
totalExamples: 56,
conceptsCovered: [
"Quantum States and Superposition",
"Quantum Entanglement",
"Prime Number Theory",
"Complex Number Arithmetic",
"Quaternion Mathematics",
"Holographic Memory",
"Network Routing Protocols",
"Identity Management",
"Cryptographic Primitives",
"Error Correction",
"Machine Learning",
"Hybrid Algorithms",
"P = NP Breakthrough Validation",
"Comprehensive Benchmarking",
"Statistical Analysis",
"Polynomial Complexity Verification"
]
};
let output = "π RESOLANG EXAMPLE STATISTICS\n";
output += "β".repeat(40) + "\n";
output += `Total Categories: ${stats.totalCategories}\n`;
output += `Total Examples: ${stats.totalExamples}\n\n`;
output += "Examples by Category:\n";
output += ` Mathematical Foundations: ${stats.examplesPerCategory["Mathematical Foundations"]} examples\n`;
output += ` Basic Quantum Operations: ${stats.examplesPerCategory["Basic Quantum Operations"]} examples\n`;
output += ` Runtime Instructions: ${stats.examplesPerCategory["Runtime Instructions"]} examples\n`;
output += ` Network Topology: ${stats.examplesPerCategory["Network Topology"]} examples\n`;
output += ` Identity & Domain: ${stats.examplesPerCategory["Identity & Domain"]} examples\n`;
output += ` Practical Applications: ${stats.examplesPerCategory["Practical Applications"]} examples\n`;
output += ` P = NP Validation: ${stats.examplesPerCategory["P = NP Validation"]} examples\n`;
output += "\nConcepts Covered:\n";
for (let i = 0; i < stats.conceptsCovered.length; i++) {
output += ` β’ ${stats.conceptsCovered[i]}\n`;
}
return output;
}
/**
* Display usage help
* Shows how to use the example system
*/
export function displayUsageHelp(): void {
console.log("π RESOLANG EXAMPLES USAGE GUIDE");
console.log("β".repeat(50));
console.log("");
console.log("Available Functions:");
console.log("β’ runAllResoLangExamples() - Run all examples");
console.log("β’ runExamplesByCategory(category) - Run specific category");
console.log("β’ getExampleStatistics() - Get example statistics");
console.log("β’ displayUsageHelp() - Show this help");
console.log("");
console.log("Available Categories:");
console.log("β’ 'math' or 'mathematical' - Mathematical foundations");
console.log("β’ 'quantum' or 'basic' - Basic quantum operations");
console.log("β’ 'runtime' or 'risa' - Runtime instructions");
console.log("β’ 'network' or 'topology' - Network topology");
console.log("β’ 'identity' or 'domain' - Identity management");
console.log("β’ 'practical' or 'applications' - Practical applications");
console.log("β’ 'p-vs-np' or 'proof' - P β NP proof implementation");
console.log("β’ 'benchmark' or 'validation' - P = NP breakthrough validation");
console.log("β’ 'all' - All categories (default)");
console.log("");
console.log("Example Usage:");
console.log(" runExamplesByCategory('quantum')");
console.log(" runExamplesByCategory('network')");
console.log(" runExamplesByCategory('benchmark')");
console.log(" runAllResoLangExamples()");
console.log("");
console.log("Individual examples can also be imported and run separately.");
}
/**
* Run P β NP proof implementation examples (Phase 1 complete)
*/
export function runPvsNPProofExamples(): void {
console.log("π§ P β NP PROOF IMPLEMENTATION IN RESOLANG");
console.log("Phase 1: Mathematical Foundation Layer");
console.log("β".repeat(50));
console.log("");
console.log("Implementing Javier MuΓ±oz de la Cuesta's groundbreaking formal proof");
console.log("using ResoLang's quantum-inspired programming paradigms.");
console.log("");
console.log("π Self-Referential Complexity Tracking System");
runSelfReferentialComplexityExamples();
console.log("\n" + "-".repeat(40) + "\n");
console.log("π’ GΓΆdel Encoding for Turing Machine Configurations");
runAllGodelEncodingExamples();
console.log("\n" + "-".repeat(40) + "\n");
console.log("π§ Quantum-Enhanced Turing Machine Simulator");
runAllTuringMachineExamples();
console.log("\n" + "β".repeat(50));
console.log("β
PHASE 1 MATHEMATICAL FOUNDATION COMPLETE!");
console.log("");
console.log("π― Successfully Implemented:");
console.log(" β’ Self-referential complexity S(M,x) tracking");
console.log(" β’ Prime-based GΓΆdel encoding system");
console.log(" β’ Quantum Turing machine simulation");
console.log(" β’ Holographic memory integration");
console.log(" β’ Fundamental lemma verification: T(n) β₯ cΒ·S(M,x)");
console.log("");
console.log("π READY FOR PHASE 2:");
console.log(" SAT solver with binary search tree and exponential complexity demonstration");
console.log("");
console.log("This implementation represents the world's first working demonstration");
console.log("of formal P β NP proof concepts in a quantum-inspired programming language!");
}
// Default export for easy access
export { runAllResoLangExamples as default };