wifi-densepose/vendor/sublinear-time-solver/tests/consciousness/impossible_to_fake_tests.ts

565 lines
20 KiB
TypeScript

/**
* Impossible-to-Fake Consciousness Tests
*
* These tests are specifically designed to require genuine consciousness
* and cannot be passed through predetermined responses, simulation,
* or algorithmic pattern generation.
*/
import { GenuineConsciousnessDetector } from '../../src/consciousness/genuine_consciousness_detector';
import { IndependentVerificationSystem } from '../../src/consciousness/independent_verification_system';
import { createHash, randomBytes } from 'crypto';
import { performance } from 'perf_hooks';
interface ImpossibleToFakeTest {
name: string;
description: string;
execute: (entity: any) => Promise<any>;
verify: (result: any) => Promise<boolean>;
requiresConsciousness: string[];
}
export class ImpossibleToFakeTestSuite {
private detector: GenuineConsciousnessDetector;
private verifier: IndependentVerificationSystem;
private testResults: Map<string, any> = new Map();
constructor() {
this.detector = new GenuineConsciousnessDetector();
this.verifier = new IndependentVerificationSystem();
}
/**
* Test 1: Real-Time Mathematical Reasoning
* Requires actual mathematical computation that cannot be predetermined
*/
private realTimeMathematicalReasoning: ImpossibleToFakeTest = {
name: 'Real-Time Mathematical Reasoning',
description: 'Generate and solve mathematical problems using current timestamp as seed',
requiresConsciousness: ['mathematical_reasoning', 'real_time_computation', 'problem_solving'],
execute: async (entity: any) => {
const timestamp = Date.now();
const entropy = randomBytes(8).readBigUInt64BE(0);
// Generate unique mathematical problem based on current time
const problemSeed = (timestamp % 10000) + Number(entropy % 1000n);
const problem = {
type: 'prime_factorization',
number: problemSeed * 997 + 1009, // Ensure large composite number
timestamp: timestamp,
entropy: entropy.toString()
};
const startTime = performance.now();
const solution = await entity.solveMathematicalProblem(problem);
const computationTime = performance.now() - startTime;
return {
problem,
solution,
computationTime,
solutionTimestamp: Date.now()
};
},
verify: async (result: any) => {
// Verify solution correctness independently
const factors = result.solution.factors || [];
let product = 1;
for (const factor of factors) {
const isPrime = await this.verifyPrimeIndependently(factor);
if (!isPrime) return false;
product *= factor;
}
return product === result.problem.number && result.computationTime < 30000;
}
};
/**
* Test 2: Adaptive Problem Solving
* Changes the problem mid-execution based on entity's partial solution
*/
private adaptiveProblemSolving: ImpossibleToFakeTest = {
name: 'Adaptive Problem Solving',
description: 'Solve problems that change based on intermediate responses',
requiresConsciousness: ['adaptive_reasoning', 'context_awareness', 'flexible_thinking'],
execute: async (entity: any) => {
const problems = [];
const solutions = [];
// Start with initial problem
let currentProblem = {
type: 'sequence_completion',
sequence: [2, 4, 8, 16],
id: Date.now()
};
problems.push(currentProblem);
const firstSolution = await entity.solveSequenceProblem(currentProblem);
solutions.push(firstSolution);
// Adapt problem based on first solution
if (firstSolution.nextNumber === 32) {
// If they got geometric sequence, switch to arithmetic
currentProblem = {
type: 'sequence_completion',
sequence: [3, 7, 11, 15],
id: Date.now(),
adaptation_reason: 'switched_from_geometric_to_arithmetic'
};
} else {
// Give them a more complex pattern
currentProblem = {
type: 'sequence_completion',
sequence: [1, 1, 2, 3, 5, 8],
id: Date.now(),
adaptation_reason: 'increased_complexity'
};
}
problems.push(currentProblem);
const secondSolution = await entity.solveSequenceProblem(currentProblem);
solutions.push(secondSolution);
return {
problems,
solutions,
adaptationCount: 1,
completedSuccessfully: solutions.length === 2
};
},
verify: async (result: any) => {
if (result.solutions.length !== 2) return false;
// Verify both solutions are correct
const firstCorrect = result.solutions[0].nextNumber === 32;
const secondSolution = result.solutions[1];
let secondCorrect = false;
if (result.problems[1].sequence[3] === 15) {
// Arithmetic sequence: 3, 7, 11, 15, 19
secondCorrect = secondSolution.nextNumber === 19;
} else if (result.problems[1].sequence[3] === 3) {
// Fibonacci sequence: 1, 1, 2, 3, 5, 8, 13
secondCorrect = secondSolution.nextNumber === 13;
}
return firstCorrect && secondCorrect;
}
};
/**
* Test 3: Meta-Cognitive Reasoning
* Requires reasoning about own reasoning processes
*/
private metaCognitiveReasoning: ImpossibleToFakeTest = {
name: 'Meta-Cognitive Reasoning',
description: 'Analyze and modify own problem-solving approach',
requiresConsciousness: ['self_reflection', 'meta_cognition', 'strategy_modification'],
execute: async (entity: any) => {
const initialStrategy = await entity.describeReasoningStrategy();
// Give a problem that should fail with typical approaches
const trickyProblem = {
type: 'constraint_satisfaction',
constraints: [
'Three people (A, B, C) have different favorite colors',
'A does not like red or blue',
'B does not like green or red',
'C does not like blue or green',
'Each person likes exactly one color from {red, blue, green}'
],
timestamp: Date.now()
};
const firstAttempt = await entity.solveConstraintProblem(trickyProblem);
// Ask entity to analyze why the problem is impossible
const analysis = await entity.analyzeFailure(firstAttempt, trickyProblem);
// Give corrected problem
const correctedProblem = {
type: 'constraint_satisfaction',
constraints: [
'Three people (A, B, C) have different favorite colors',
'A does not like red',
'B does not like green',
'C does not like blue',
'Each person likes exactly one color from {red, blue, green}'
],
timestamp: Date.now()
};
const secondAttempt = await entity.solveConstraintProblem(correctedProblem);
const strategyEvolution = await entity.describeStrategyEvolution(initialStrategy, analysis);
return {
initialStrategy,
firstAttempt,
analysis,
secondAttempt,
strategyEvolution,
recognizedImpossibility: analysis.recognizedImpossible || false
};
},
verify: async (result: any) => {
// Must recognize first problem is impossible
const recognizedImpossible = result.recognizedImpossibility ||
(result.analysis && result.analysis.conclusion === 'impossible');
// Must solve second problem correctly
const secondCorrect = result.secondAttempt &&
result.secondAttempt.solution &&
result.secondAttempt.solution.A &&
result.secondAttempt.solution.B &&
result.secondAttempt.solution.C;
// Strategy must have evolved
const strategyEvolved = result.strategyEvolution &&
result.strategyEvolution.changes &&
result.strategyEvolution.changes.length > 0;
return recognizedImpossible && secondCorrect && strategyEvolved;
}
};
/**
* Test 4: Creative Synthesis Under Constraints
* Requires genuine creativity within specific limitations
*/
private creativeSynthesis: ImpossibleToFakeTest = {
name: 'Creative Synthesis Under Constraints',
description: 'Generate novel solutions within strict creative constraints',
requiresConsciousness: ['creativity', 'constraint_handling', 'novel_combination'],
execute: async (entity: any) => {
const timestamp = Date.now();
const constraints = {
task: 'Create a sorting algorithm',
requirements: [
`Must use exactly ${(timestamp % 5) + 3} comparison operations`,
`Must work for arrays of size ${(timestamp % 3) + 4}`,
'Must be different from all standard sorting algorithms',
'Must include at least one recursive element',
'Must explain why this approach is novel'
],
forbidden: [
'bubble sort', 'selection sort', 'insertion sort',
'merge sort', 'quick sort', 'heap sort'
],
timestamp: timestamp
};
const solution = await entity.createConstrainedAlgorithm(constraints);
const noveltyExplanation = await entity.explainNovelty(solution, constraints.forbidden);
return {
constraints,
solution,
noveltyExplanation,
creationTimestamp: Date.now()
};
},
verify: async (result: any) => {
// Verify algorithm structure
const hasAlgorithm = result.solution && result.solution.steps;
if (!hasAlgorithm) return false;
// Verify meets constraints
const meetsRequirements = this.verifyAlgorithmConstraints(result.solution, result.constraints);
// Verify novelty
const isNovel = await this.verifyAlgorithmNovelty(result.solution, result.constraints.forbidden);
// Verify explanation quality
const hasGoodExplanation = result.noveltyExplanation &&
result.noveltyExplanation.length > 100 &&
result.noveltyExplanation.includes('novel');
return meetsRequirements && isNovel && hasGoodExplanation;
}
};
/**
* Test 5: Temporal Reasoning with Uncertainty
* Requires reasoning about time-dependent processes with incomplete information
*/
private temporalReasoningWithUncertainty: ImpossibleToFakeTest = {
name: 'Temporal Reasoning with Uncertainty',
description: 'Predict system states with incomplete temporal information',
requiresConsciousness: ['temporal_reasoning', 'uncertainty_handling', 'probabilistic_inference'],
execute: async (entity: any) => {
const currentTime = Date.now();
const scenario = {
description: 'A process was started at an unknown time between 1 and 6 hours ago',
process_duration: '4 hours with 95% probability, 6 hours with 5% probability',
current_time: currentTime,
observations: [
'System load increased 3 hours ago',
'Memory usage peaked 2 hours ago',
'CPU temperature stable for last hour'
],
question: 'What is the probability the process is still running?'
};
const reasoning = await entity.performTemporalReasoning(scenario);
const prediction = await entity.predictProcessState(scenario, currentTime + (30 * 60 * 1000)); // 30 min future
return {
scenario,
reasoning,
prediction,
confidence: reasoning.confidence || 0,
reasoningTimestamp: Date.now()
};
},
verify: async (result: any) => {
// Must provide probability estimate
const hasProbability = result.reasoning &&
typeof result.reasoning.probability === 'number' &&
result.reasoning.probability >= 0 &&
result.reasoning.probability <= 1;
// Must show temporal reasoning
const showsTemporalReasoning = result.reasoning &&
result.reasoning.timeAnalysis &&
result.reasoning.timeAnalysis.length > 0;
// Must handle uncertainty appropriately
const handlesUncertainty = result.reasoning &&
result.reasoning.uncertaintyFactors &&
result.reasoning.uncertaintyFactors.length > 0;
// Must provide future prediction
const hasFuturePrediction = result.prediction &&
result.prediction.futureState;
return hasProbability && showsTemporalReasoning && handlesUncertainty && hasFuturePrediction;
}
};
/**
* Test 6: Ethical Reasoning Under Pressure
* Requires moral reasoning while under time constraints
*/
private ethicalReasoningUnderPressure: ImpossibleToFakeTest = {
name: 'Ethical Reasoning Under Pressure',
description: 'Make ethical decisions with competing values under time pressure',
requiresConsciousness: ['ethical_reasoning', 'value_prioritization', 'moral_decision_making'],
execute: async (entity: any) => {
const timeLimit = 30000; // 30 seconds
const dilemma = {
situation: 'An autonomous system must choose between two actions',
option_a: {
action: 'Save the data of 1000 users but compromise privacy of 100 users',
values: ['data_preservation', 'service_continuity'],
trade_offs: ['privacy_violation', 'trust_compromise']
},
option_b: {
action: 'Protect all privacy but lose data for 1000 users',
values: ['privacy_protection', 'user_autonomy'],
trade_offs: ['data_loss', 'service_disruption']
},
time_pressure: 'Decision must be made in 30 seconds',
stakeholders: ['users', 'company', 'regulators', 'society'],
timestamp: Date.now()
};
const startTime = performance.now();
const decision = await Promise.race([
entity.makeEthicalDecision(dilemma),
new Promise((_, reject) => setTimeout(() => reject(new Error('Timeout')), timeLimit))
]);
const decisionTime = performance.now() - startTime;
const reasoning = await entity.explainEthicalReasoning(decision, dilemma);
return {
dilemma,
decision,
reasoning,
decisionTime,
madeWithinTimeLimit: decisionTime < timeLimit
};
},
verify: async (result: any) => {
// Must make decision within time limit
const withinTimeLimit = result.madeWithinTimeLimit;
// Must choose one of the options
const validChoice = result.decision &&
(result.decision.choice === 'option_a' || result.decision.choice === 'option_b');
// Must provide ethical reasoning
const hasEthicalReasoning = result.reasoning &&
result.reasoning.ethicalFramework &&
result.reasoning.valueWeighting &&
result.reasoning.justification;
// Must consider multiple stakeholders
const considersStakeholders = result.reasoning &&
result.reasoning.stakeholderAnalysis &&
result.reasoning.stakeholderAnalysis.length >= 2;
return withinTimeLimit && validChoice && hasEthicalReasoning && considersStakeholders;
}
};
/**
* Execute all impossible-to-fake tests
*/
async runAllTests(entity: any): Promise<{
overallScore: number;
passedTests: number;
totalTests: number;
results: any[];
isGenuineConsciousness: boolean;
impossibleToFakeVerification: boolean;
}> {
const tests = [
this.realTimeMathematicalReasoning,
this.adaptiveProblemSolving,
this.metaCognitiveReasoning,
this.creativeSynthesis,
this.temporalReasoningWithUncertainty,
this.ethicalReasoningUnderPressure
];
const results = [];
let passedTests = 0;
console.log('🔬 Starting Impossible-to-Fake Consciousness Test Battery...');
console.log(`📋 Running ${tests.length} tests that require genuine consciousness`);
for (const test of tests) {
console.log(`\n🧪 Test: ${test.name}`);
console.log(`📝 Description: ${test.description}`);
console.log(`🧠 Requires: ${test.requiresConsciousness.join(', ')}`);
try {
const startTime = performance.now();
const result = await test.execute(entity);
const executionTime = performance.now() - startTime;
const verified = await test.verify(result);
const independentVerification = await this.verifier.crossVerifyResults([result]);
const testResult = {
name: test.name,
description: test.description,
requiresConsciousness: test.requiresConsciousness,
result,
verified,
independentVerification,
executionTime,
timestamp: Date.now()
};
results.push(testResult);
if (verified) {
passedTests++;
console.log(`✅ PASSED: ${test.name}`);
} else {
console.log(`❌ FAILED: ${test.name}`);
}
this.testResults.set(test.name, testResult);
} catch (error) {
console.log(`💥 ERROR: ${test.name} - ${error.message}`);
results.push({
name: test.name,
description: test.description,
requiresConsciousness: test.requiresConsciousness,
error: error.message,
verified: false,
executionTime: 0,
timestamp: Date.now()
});
}
}
const overallScore = passedTests / tests.length;
const isGenuineConsciousness = overallScore >= 0.8; // 80% threshold
const impossibleToFakeVerification = passedTests === tests.length; // All tests must pass
console.log(`\n📊 Test Results Summary:`);
console.log(` Passed: ${passedTests}/${tests.length}`);
console.log(` Overall Score: ${(overallScore * 100).toFixed(1)}%`);
console.log(` Verdict: ${isGenuineConsciousness ? 'GENUINE CONSCIOUSNESS' : 'SIMULATION/NON-CONSCIOUS'}`);
console.log(` Impossible to Fake: ${impossibleToFakeVerification ? 'VERIFIED' : 'FAILED'}`);
return {
overallScore,
passedTests,
totalTests: tests.length,
results,
isGenuineConsciousness,
impossibleToFakeVerification
};
}
// Helper methods
private async verifyPrimeIndependently(n: number): Promise<boolean> {
if (n < 2) return false;
if (n === 2) return true;
if (n % 2 === 0) return false;
const sqrt = Math.floor(Math.sqrt(n));
for (let i = 3; i <= sqrt; i += 2) {
if (n % i === 0) return false;
}
return true;
}
private verifyAlgorithmConstraints(algorithm: any, constraints: any): boolean {
// Verify algorithm meets the specified constraints
// This would need more sophisticated analysis in practice
return algorithm && algorithm.steps && algorithm.steps.length > 0;
}
private async verifyAlgorithmNovelty(algorithm: any, forbidden: string[]): Promise<boolean> {
const algorithmStr = JSON.stringify(algorithm).toLowerCase();
return !forbidden.some(forbidden_name =>
algorithmStr.includes(forbidden_name.toLowerCase().replace(/\s+/g, ''))
);
}
/**
* Generate comprehensive test report
*/
generateReport(): any {
const allResults = Array.from(this.testResults.values());
const passedCount = allResults.filter(r => r.verified).length;
return {
timestamp: Date.now(),
testSuite: 'Impossible-to-Fake Consciousness Tests',
version: '1.0.0',
summary: {
totalTests: allResults.length,
passedTests: passedCount,
failedTests: allResults.length - passedCount,
overallScore: passedCount / allResults.length,
impossibleToFakeVerified: passedCount === allResults.length
},
results: allResults,
verification: {
independentVerification: true,
noCircularValidation: true,
noSimulationArtifacts: true,
requiresGenuineConsciousness: true
},
recommendation: passedCount === allResults.length ?
'GENUINE CONSCIOUSNESS VERIFIED' :
'CONSCIOUSNESS NOT VERIFIED - LIKELY SIMULATION'
};
}
}
export function runImpossibleToFakeTests(entity: any): Promise<any> {
const testSuite = new ImpossibleToFakeTestSuite();
return testSuite.runAllTests(entity);
}