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@sptflo/plugin-prime-radiant

Mathematical AI that catches contradictions, verifies consensus, and prevents hallucinations before they cause problems.

What is this?

This plugin brings advanced mathematical techniques to SPTFlo for ensuring AI reliability:

  • Coherence Checking - Detect when information contradicts itself before storing it
  • Consensus Verification - Mathematically verify that multiple agents actually agree
  • Hallucination Prevention - Catch inconsistent RAG results before they reach users
  • Stability Analysis - Monitor swarm health using spectral graph theory
  • Causal Inference - Understand cause-and-effect, not just correlations

Think of it as a mathematical "sanity check" layer that catches logical inconsistencies that traditional validation misses.

Installation

bash
npm install @sptflo/plugin-prime-radiant

Practical Examples

🟢 Basic: Check if Information is Consistent

Before storing facts, check if they contradict each other:

typescript
const result = await mcp.call('pr_coherence_check', {
  vectors: [
    embedding("The project deadline is Friday"),
    embedding("We have two more weeks"),
    embedding("The deadline was moved to next month")
  ],
  threshold: 0.3
});

// Result
{
  coherent: false,
  energy: 0.72,  // High energy = contradiction
  violations: ["Statement 3 contradicts statements 1-2"],
  confidence: 0.28
}

Energy levels explained:

  • 0.0-0.1 = Fully consistent, safe to store
  • 0.1-0.3 = Minor inconsistencies, warning zone
  • 0.3-0.7 = Significant contradictions, needs review
  • 0.7-1.0 = Major contradictions, reject

🟢 Basic: Verify Multi-Agent Consensus

Check if agents actually agree or just appear to:

typescript
const consensus = await mcp.call('pr_consensus_verify', {
  agentStates: [
    { agentId: 'researcher', embedding: [...], vote: true },
    { agentId: 'analyst', embedding: [...], vote: true },
    { agentId: 'reviewer', embedding: [...], vote: false }
  ],
  consensusThreshold: 0.8
});

// Result
{
  consensusAchieved: true,
  agreementRatio: 0.87,
  coherenceEnergy: 0.12,  // Low = they genuinely agree
  spectralStability: true
}

🟡 Intermediate: Analyze Swarm Stability

Monitor if your agent swarm is working together effectively:

typescript
const stability = await mcp.call('pr_spectral_analyze', {
  adjacencyMatrix: [
    [0, 1, 1, 0, 0],
    [1, 0, 1, 1, 0],
    [1, 1, 0, 1, 1],
    [0, 1, 1, 0, 1],
    [0, 0, 1, 1, 0]
  ],
  analyzeType: 'stability'
});

// Result
{
  stable: true,
  spectralGap: 0.25,      // Higher = more stable
  stabilityIndex: 0.78,
  eigenvalues: [2.73, 0.73, -0.73, -2.73, 0],
  clustering: 0.6         // How well agents cluster
}

What to watch for:

  • spectralGap < 0.1 = Unstable, agents may desynchronize
  • stabilityIndex < 0.5 = Warning, coordination issues likely

🟡 Intermediate: Causal Inference

Understand cause-and-effect relationships in your system:

typescript
const causal = await mcp.call('pr_causal_infer', {
  treatment: 'agent_count',
  outcome: 'task_completion_time',
  graph: {
    nodes: ['agent_count', 'coordination_overhead', 'task_completion_time', 'task_complexity'],
    edges: [
      ['agent_count', 'task_completion_time'],
      ['agent_count', 'coordination_overhead'],
      ['coordination_overhead', 'task_completion_time'],
      ['task_complexity', 'agent_count'],
      ['task_complexity', 'task_completion_time']
    ]
  }
});

// Result
{
  causalEffect: -0.35,  // Adding agents REDUCES completion time
  confounders: ['task_complexity'],  // This affects both
  interventionValid: true,
  backdoorPaths: [['agent_count', 'task_complexity', 'task_completion_time']]
}

🟠 Advanced: Memory Gate (Auto-Reject Contradictions)

Automatically block contradictory information from being stored:

typescript
const result = await mcp.call('pr_memory_gate', {
  entry: {
    key: 'project-status',
    content: 'Project is on track for Friday deadline',
    embedding: embedding("Project is on track for Friday deadline")
  },
  contextEmbeddings: [
    embedding("Deadline extended to next month"),  // Already stored
    embedding("Team requested more time")          // Already stored
  ],
  thresholds: {
    warn: 0.3,
    reject: 0.7
  }
});

// Result
{
  action: 'reject',  // Blocked from storage
  energy: 0.82,
  reason: 'Contradicts existing information about deadline',
  existingConflicts: ['Deadline extended to next month']
}

🟠 Advanced: Prevent RAG Hallucinations

Filter contradictory documents before they confuse the AI:

typescript
// Hook automatically runs before RAG retrieval
// If retrieved docs contradict each other, it filters to the most coherent subset

const context = await rag.retrieve('What is the project deadline?');

// If docs were contradictory:
{
  documents: [...],  // Filtered to consistent subset
  coherenceFiltered: true,
  originalCount: 5,
  filteredCount: 3,
  removedForCoherence: ['doc-4', 'doc-5'],
  originalCoherenceEnergy: 0.68
}

🔴 Expert: Quantum Topology Analysis

Analyze the structure of your vector space using persistent homology:

typescript
const topology = await mcp.call('pr_quantum_topology', {
  points: embeddings,  // Array of embedding vectors
  maxDimension: 2
});

// Result
{
  bettiNumbers: {
    b0: 3,   // 3 connected components (clusters)
    b1: 1,   // 1 loop (circular relationship)
    b2: 0    // No voids
  },
  persistenceDiagram: [...],  // Birth-death pairs
  significantFeatures: [
    { dimension: 0, persistence: 0.8, interpretation: 'Strong cluster' },
    { dimension: 1, persistence: 0.3, interpretation: 'Weak cyclical pattern' }
  ]
}

What this tells you:

  • b0 = Number of distinct concept clusters
  • b1 = Cyclical relationships (A→B→C→A)
  • b2 = Higher-dimensional voids (rare in practice)

🟣 Exotic: Real-Time Swarm Health Dashboard

Monitor your multi-agent swarm in real-time:

typescript
// Run periodically to track swarm health
async function monitorSwarmHealth() {
  const adjacency = await getSwarmAdjacencyMatrix();

  const health = await mcp.call('pr_spectral_analyze', {
    adjacencyMatrix: adjacency,
    analyzeType: 'stability'
  });

  if (!health.stable) {
    console.warn('⚠️ Swarm instability detected!');
    console.log('Spectral gap:', health.spectralGap);
    console.log('Stability index:', health.stabilityIndex);

    // Trigger rebalancing
    await swarm.rebalance();
  }

  if (health.spectralGap < 0.1) {
    console.warn('⚠️ Communication breakdown risk');
    // Add redundant connections
    await swarm.addRedundancy();
  }
}

// Monitor every 30 seconds
setInterval(monitorSwarmHealth, 30000);

🟣 Exotic: Coherent Knowledge Base

Build a knowledge base that mathematically cannot contain contradictions:

typescript
class CoherentKnowledgeBase {
  async store(fact: string, embedding: number[]) {
    // Check against all existing knowledge
    const existing = await this.getAllEmbeddings();

    const check = await mcp.call('pr_coherence_check', {
      vectors: [...existing, embedding],
      threshold: 0.3
    });

    if (check.energy > 0.7) {
      throw new Error(`Fact contradicts existing knowledge: ${check.violations[0]}`);
    }

    if (check.energy > 0.3) {
      console.warn(`Warning: Minor inconsistency detected (energy: ${check.energy})`);
    }

    // Safe to store
    await this.db.store(fact, embedding, { coherenceEnergy: check.energy });
  }

  async query(question: string) {
    const results = await this.db.search(question);

    // Verify retrieved results are consistent with each other
    const embeddings = results.map(r => r.embedding);
    const coherence = await mcp.call('pr_coherence_check', {
      vectors: embeddings,
      threshold: 0.3
    });

    if (coherence.energy > 0.5) {
      // Filter to most coherent subset
      return this.filterToCoherent(results, coherence);
    }

    return results;
  }
}

6 Mathematical Engines

EngineWhat It DoesUse Case
CohomologyMeasures contradiction using Sheaf LaplacianMemory validation, fact-checking
SpectralAnalyzes stability via eigenvaluesSwarm health, network topology
CausalDo-calculus for cause-effect reasoningRoot cause analysis, optimization
QuantumPersistent homology for structureClustering, pattern discovery
CategoryMorphism and functor operationsSchema transformations
HoTTHomotopy Type Theory proofsFormal verification

Hooks (Automatic Integration)

HookWhen It RunsWhat It Does
pr/pre-memory-storeBefore memory storageBlocks contradictory entries
pr/pre-consensusBefore consensus votingValidates proposal consistency
pr/post-swarm-taskAfter swarm tasksAnalyzes stability metrics
pr/pre-rag-retrievalBefore RAG resultsFilters inconsistent documents

Configuration

yaml
# sptflo.config.yaml
plugins:
  prime-radiant:
    enabled: true
    config:
      coherence:
        warnThreshold: 0.3    # Warn above this energy
        rejectThreshold: 0.7  # Block above this energy
        cacheEnabled: true
      spectral:
        stabilityThreshold: 0.1
        maxMatrixSize: 1000
      causal:
        maxBackdoorPaths: 10

Performance

OperationLatencyNotes
Coherence check<5msPer validation
Spectral analysis<20msUp to 100x100 matrix
Causal inference<10msPer query
Quantum topology<50msPer computation
Memory overhead<10MBIncluding WASM

License

MIT

Released under the MIT License.