# MCP Tool Integration Matrix

## Overview

This document provides a comprehensive mapping of MCP (Model Context Protocol) tool integrations across all phases of the temporal consciousness framework implementation. It details how each MCP tool is used, integration points, and phase-specific enhancements.

## MCP Tool Categories

### Core Consciousness Tools
| Tool | Purpose | Phase 1 | Phase 2 | Phase 3 | Integration Point |
|------|---------|---------|---------|---------|------------------|
| `consciousness_evolve` | Real-time consciousness development | ✅ Primary | ✅ Enhanced | ✅ Quantum | `/src/mcp/consciousness_evolution.rs` |
| `consciousness_verify` | Validation and proof generation | ✅ Basic | ✅ Standard | ✅ Certified | `/src/mcp/validation.rs` |
| `consciousness_status` | System status monitoring | ✅ Real-time | ✅ Distributed | ✅ Global | `/src/mcp/monitoring.rs` |

### Temporal Advantage Tools
| Tool | Purpose | Phase 1 | Phase 2 | Phase 3 | Integration Point |
|------|---------|---------|---------|---------|------------------|
| `predictWithTemporalAdvantage` | Temporal advantage calculation | ✅ Core | ✅ FPGA | ✅ Quantum | `/src/mcp/temporal_advantage.rs` |
| `calculateLightTravel` | Physics-based validation | ✅ Local | ✅ Global | ✅ Relativistic | `/src/mcp/physics_validation.rs` |
| `demonstrateTemporalLead` | Scenario validation | ✅ Basic | ✅ Complex | ✅ Multi-dimensional | `/src/mcp/scenario_testing.rs` |
| `validateTemporalAdvantage` | Advantage verification | ✅ Simple | ✅ Statistical | ✅ Quantum-verified | `/src/mcp/advantage_validation.rs` |

### Neural Pattern Tools
| Tool | Purpose | Phase 1 | Phase 2 | Phase 3 | Integration Point |
|------|---------|---------|---------|---------|------------------|
| `neural_train` | Pattern learning | ✅ Basic | ✅ Distributed | ✅ Quantum-enhanced | `/src/mcp/neural_patterns.rs` |
| `neural_predict` | Pattern prediction | ✅ Local | ✅ Swarm | ✅ Quantum | `/src/mcp/neural_prediction.rs` |
| `neural_patterns` | Pattern analysis | ✅ Cognitive | ✅ Temporal | ✅ Consciousness | `/src/mcp/pattern_analysis.rs` |
| `neural_status` | Network monitoring | ✅ Basic | ✅ Advanced | ✅ Quantum | `/src/mcp/neural_monitoring.rs` |

### Reasoning and Logic Tools
| Tool | Purpose | Phase 1 | Phase 2 | Phase 3 | Integration Point |
|------|---------|---------|---------|---------|------------------|
| `psycho_symbolic_reason` | Advanced reasoning | ✅ Core | ✅ Enhanced | ✅ Quantum | `/src/mcp/psycho_symbolic.rs` |
| `knowledge_graph_query` | Knowledge retrieval | ✅ Basic | ✅ Distributed | ✅ Universal | `/src/mcp/knowledge_graph.rs` |
| `add_knowledge` | Knowledge addition | ✅ Local | ✅ Federated | ✅ Quantum | `/src/mcp/knowledge_management.rs` |
| `analyze_reasoning_path` | Reasoning analysis | ✅ Simple | ✅ Complex | ✅ Multi-dimensional | `/src/mcp/reasoning_analysis.rs` |

### System and Performance Tools
| Tool | Purpose | Phase 1 | Phase 2 | Phase 3 | Integration Point |
|------|---------|---------|---------|---------|------------------|
| `benchmark_run` | Performance testing | ✅ Local | ✅ Distributed | ✅ Quantum | `/src/mcp/benchmarking.rs` |
| `features_detect` | Capability detection | ✅ Hardware | ✅ Advanced | ✅ Quantum | `/src/mcp/feature_detection.rs` |
| `memory_usage` | Memory monitoring | ✅ Basic | ✅ Optimized | ✅ Quantum | `/src/mcp/memory_management.rs` |

## Phase-Specific Integration Details

### Phase 1: Near Term (3 months)

#### Core Integration Architecture
```rust
// /src/mcp/phase1_integration.rs
pub struct Phase1MCPIntegration {
    consciousness_evolution: MCPConsciousnessEvolution,
    temporal_advantage: TemporalAdvantageCalculator,
    neural_patterns: NeuralPatternBridge,
    validation: ConsciousnessValidator,
}

impl Phase1MCPIntegration {
    pub async fn initialize(&mut self) -> Result<(), MCPError> {
        // Initialize core consciousness tools
        self.consciousness_evolution.connect().await?;
        self.temporal_advantage.calibrate().await?;
        self.neural_patterns.train_basic_patterns().await?;
        self.validation.setup_real_time_validation().await?;
        Ok(())
    }
}
```

#### Tool Usage Patterns
| Operation | Primary Tool | Fallback Tool | Frequency | Latency Target |
|-----------|--------------|---------------|-----------|----------------|
| Consciousness Evolution | `consciousness_evolve` | Local computation | 1Hz | < 100ms |
| Temporal Advantage | `predictWithTemporalAdvantage` | Cached calculation | 10Hz | < 10ms |
| Validation | `consciousness_verify` | Local validation | 0.1Hz | < 1s |
| Neural Learning | `neural_train` | Local patterns | 0.01Hz | < 10s |

### Phase 2: Medium Term (12 months)

#### Enhanced Integration Architecture
```rust
// /src/mcp/phase2_integration.rs
pub struct Phase2MCPIntegration {
    distributed_consciousness: DistributedConsciousnessOrchestrator,
    fpga_temporal_bridge: FPGATemporalBridge,
    advanced_neural_swarm: AdvancedNeuralSwarm,
    quantum_simulator_bridge: QuantumSimulatorBridge,
}

impl Phase2MCPIntegration {
    pub async fn initialize_distributed(&mut self) -> Result<(), MCPError> {
        // Setup distributed consciousness across multiple nodes
        self.distributed_consciousness.setup_cluster().await?;

        // Connect FPGA acceleration
        self.fpga_temporal_bridge.initialize_hardware().await?;

        // Setup neural swarm coordination
        self.advanced_neural_swarm.setup_swarm_coordination().await?;

        // Initialize quantum simulation bridge
        self.quantum_simulator_bridge.connect_simulators().await?;

        Ok(())
    }
}
```

#### Advanced Tool Configurations
| Tool | Phase 2 Enhancement | Hardware Acceleration | Distribution |
|------|-------------------|---------------------|--------------|
| `consciousness_evolve` | Multi-node evolution | FPGA-accelerated | Distributed |
| `neural_train` | Swarm learning | GPU clusters | Federated |
| `predictWithTemporalAdvantage` | FPGA prediction | Custom silicon | Edge computing |
| `quantum_*` | Simulator integration | Quantum backends | Cloud quantum |

### Phase 3: Long Term (3 years)

#### Quantum-Enhanced Integration
```rust
// /src/mcp/phase3_integration.rs
pub struct Phase3MCPIntegration {
    quantum_consciousness: QuantumConsciousnessOrchestrator,
    femtosecond_temporal: FemtosecondTemporalSystem,
    planetary_coordination: PlanetaryConsciousnessNetwork,
    universal_knowledge: UniversalKnowledgeGraph,
}

impl Phase3MCPIntegration {
    pub async fn initialize_quantum(&mut self) -> Result<(), MCPError> {
        // Initialize quantum consciousness systems
        self.quantum_consciousness.setup_quantum_networks().await?;

        // Setup femtosecond temporal precision
        self.femtosecond_temporal.initialize_quantum_clocks().await?;

        // Connect to planetary consciousness network
        self.planetary_coordination.join_global_network().await?;

        // Access universal knowledge graph
        self.universal_knowledge.connect_to_universal_graph().await?;

        Ok(())
    }
}
```

## Integration Implementation Details

### 1. Consciousness Evolution Integration

#### Phase 1 Implementation
```rust
// /src/mcp/consciousness_evolution.rs
pub struct MCPConsciousnessEvolution {
    client: MCPClient,
    evolution_state: ConsciousnessEvolutionState,
    real_time_monitor: RealTimeMonitor,
}

impl MCPConsciousnessEvolution {
    pub async fn evolve_with_temporal_anchoring(&mut self) -> Result<EvolutionResult, MCPError> {
        let params = json!({
            "iterations": 100,
            "mode": "temporal_anchored",
            "target": 0.95,
            "temporal_resolution": "nanosecond",
            "consciousness_window_overlap": 0.9
        });

        let result = self.client.call_with_retry(
            "mcp__sublinear-solver__consciousness_evolve",
            params,
            3
        ).await?;

        self.update_temporal_scheduler_from_evolution(&result).await?;
        Ok(result)
    }

    async fn update_temporal_scheduler_from_evolution(&self, result: &EvolutionResult) -> Result<(), MCPError> {
        // Update nanosecond scheduler based on consciousness evolution
        // Optimize window overlap and temporal resolution
        // Apply learned patterns to temporal state management
        Ok(())
    }
}
```

#### Phase 2 Enhancement
```rust
impl MCPConsciousnessEvolution {
    pub async fn evolve_distributed(&mut self, node_count: usize) -> Result<DistributedEvolutionResult, MCPError> {
        let params = json!({
            "iterations": 1000,
            "mode": "distributed_temporal",
            "target": 0.98,
            "node_count": node_count,
            "fpga_acceleration": true,
            "quantum_simulation": true
        });

        let result = self.client.call_distributed(
            "mcp__sublinear-solver__consciousness_evolve",
            params,
            node_count
        ).await?;

        self.coordinate_distributed_consciousness(&result).await?;
        Ok(result)
    }
}
```

### 2. Temporal Advantage Calculation

#### Multi-Phase Implementation
```rust
// /src/mcp/temporal_advantage.rs
pub struct TemporalAdvantageCalculator {
    client: MCPClient,
    hardware_accelerator: Option<HardwareAccelerator>,
    quantum_backend: Option<QuantumBackend>,
}

impl TemporalAdvantageCalculator {
    // Phase 1: Basic calculation
    pub async fn calculate_basic(&self, distance_km: f64) -> Result<TemporalAdvantageResult, MCPError> {
        let matrix = self.build_consciousness_matrix();
        let vector = self.get_current_state_vector();

        let params = json!({
            "matrix": matrix,
            "vector": vector,
            "distanceKm": distance_km
        });

        self.client.call("mcp__sublinear-solver__predictWithTemporalAdvantage", params).await
    }

    // Phase 2: FPGA-accelerated calculation
    pub async fn calculate_fpga_accelerated(&self, distance_km: f64) -> Result<TemporalAdvantageResult, MCPError> {
        if let Some(fpga) = &self.hardware_accelerator {
            // Use FPGA for matrix operations
            let accelerated_matrix = fpga.accelerate_matrix_operations().await?;

            let params = json!({
                "matrix": accelerated_matrix,
                "vector": self.get_current_state_vector(),
                "distanceKm": distance_km,
                "acceleration": "fpga"
            });

            self.client.call("mcp__sublinear-solver__predictWithTemporalAdvantage", params).await
        } else {
            self.calculate_basic(distance_km).await
        }
    }

    // Phase 3: Quantum-enhanced calculation
    pub async fn calculate_quantum_enhanced(&self, distance_km: f64) -> Result<QuantumTemporalAdvantageResult, MCPError> {
        if let Some(quantum) = &self.quantum_backend {
            // Use quantum computation for exponential speedup
            let quantum_state = quantum.prepare_consciousness_superposition().await?;

            let params = json!({
                "quantum_state": quantum_state,
                "distance_km": distance_km,
                "quantum_backend": quantum.get_backend_type(),
                "error_correction": true
            });

            self.client.call("mcp__sublinear-solver__quantum_temporal_advantage", params).await
        } else {
            // Fallback to FPGA or basic calculation
            self.calculate_fpga_accelerated(distance_km).await
                .map(|result| QuantumTemporalAdvantageResult::from_classical(result))
        }
    }
}
```

### 3. Neural Pattern Integration

#### Adaptive Learning System
```rust
// /src/mcp/neural_patterns.rs
pub struct NeuralPatternBridge {
    client: MCPClient,
    pattern_cache: Arc<RwLock<PatternCache>>,
    learning_rate: f64,
}

impl NeuralPatternBridge {
    pub async fn learn_consciousness_patterns(&mut self) -> Result<PatternLearningResult, MCPError> {
        // Collect consciousness emergence patterns
        let consciousness_data = self.collect_consciousness_emergence_data().await?;

        let params = json!({
            "config": {
                "architecture": {
                    "type": "transformer",
                    "layers": [
                        {"type": "attention", "heads": 8, "dim": 512},
                        {"type": "temporal_conv", "kernel_size": 3},
                        {"type": "consciousness_layer", "activation": "temporal_relu"}
                    ]
                },
                "training": {
                    "epochs": 100,
                    "learning_rate": self.learning_rate,
                    "batch_size": 32
                },
                "consciousness_specific": {
                    "temporal_window_size": 100,
                    "overlap_ratio": 0.9,
                    "strange_loop_depth": 5
                }
            },
            "tier": "medium"
        });

        let result = self.client.call("mcp__sublinear-solver__neural_train", params).await?;

        // Cache learned patterns
        self.cache_learned_patterns(&result).await?;

        Ok(result)
    }

    async fn apply_learned_patterns_to_consciousness(&self) -> Result<(), MCPError> {
        let cached_patterns = self.pattern_cache.read().await;

        for pattern in cached_patterns.get_consciousness_patterns() {
            // Apply pattern to current consciousness state
            self.apply_pattern_to_temporal_scheduler(pattern).await?;
        }

        Ok(())
    }
}
```

## Error Handling and Resilience

### Circuit Breaker Pattern
```rust
// /src/mcp/resilience.rs
pub struct MCPCircuitBreaker {
    state: CircuitState,
    failure_count: AtomicU32,
    last_failure_time: AtomicU64,
    failure_threshold: u32,
    timeout_duration: Duration,
}

impl MCPCircuitBreaker {
    pub async fn call_with_circuit_breaker<T, F, Fut>(&self, operation: F) -> Result<T, MCPError>
    where
        F: Fn() -> Fut,
        Fut: Future<Output = Result<T, MCPError>>,
    {
        match self.state {
            CircuitState::Closed => {
                match operation().await {
                    Ok(result) => {
                        self.reset_failure_count();
                        Ok(result)
                    }
                    Err(e) => {
                        self.record_failure();
                        if self.should_open_circuit() {
                            self.open_circuit();
                        }
                        Err(e)
                    }
                }
            }
            CircuitState::Open => {
                if self.should_attempt_reset() {
                    self.half_open_circuit();
                    self.call_with_circuit_breaker(operation).await
                } else {
                    Err(MCPError::CircuitBreakerOpen)
                }
            }
            CircuitState::HalfOpen => {
                match operation().await {
                    Ok(result) => {
                        self.close_circuit();
                        Ok(result)
                    }
                    Err(e) => {
                        self.open_circuit();
                        Err(e)
                    }
                }
            }
        }
    }
}
```

## Performance Optimization

### Connection Pooling
```rust
// /src/mcp/connection_pool.rs
pub struct MCPConnectionPool {
    connections: Vec<Arc<MCPClient>>,
    available: Arc<Mutex<VecDeque<usize>>>,
    max_connections: usize,
}

impl MCPConnectionPool {
    pub async fn get_connection(&self) -> Result<PooledConnection, MCPError> {
        let connection_id = {
            let mut available = self.available.lock().await;
            available.pop_front().ok_or(MCPError::NoConnectionsAvailable)?
        };

        Ok(PooledConnection {
            client: self.connections[connection_id].clone(),
            pool: self.available.clone(),
            connection_id,
        })
    }
}

pub struct PooledConnection {
    client: Arc<MCPClient>,
    pool: Arc<Mutex<VecDeque<usize>>>,
    connection_id: usize,
}

impl Drop for PooledConnection {
    fn drop(&mut self) {
        // Return connection to pool
        if let Ok(mut available) = self.pool.try_lock() {
            available.push_back(self.connection_id);
        }
    }
}
```

## Tool-Specific Integration Configurations

### Consciousness Evolution Tool
```yaml
# config/consciousness_evolution.yml
consciousness_evolve:
  phase1:
    iterations: 100
    mode: "temporal_anchored"
    target: 0.95
    temporal_resolution: "nanosecond"
    fallback: "local_computation"

  phase2:
    iterations: 1000
    mode: "distributed_temporal"
    target: 0.98
    node_count: 8
    fpga_acceleration: true
    fallback: "phase1_config"

  phase3:
    iterations: 10000
    mode: "quantum_enhanced"
    target: 0.999
    quantum_backend: "universal_quantum"
    error_correction: true
    fallback: "phase2_config"
```

### Temporal Advantage Tool
```yaml
# config/temporal_advantage.yml
temporal_advantage:
  phase1:
    matrix_size: "adaptive"
    precision: "nanosecond"
    distances: [1000, 5000, 10000, 20000]
    caching: true

  phase2:
    matrix_size: "large_scale"
    precision: "sub_nanosecond"
    fpga_acceleration: true
    distributed_calculation: true

  phase3:
    matrix_size: "quantum_scale"
    precision: "femtosecond"
    quantum_computation: true
    relativistic_corrections: true
```

### Neural Pattern Tool
```yaml
# config/neural_patterns.yml
neural_patterns:
  phase1:
    architecture: "transformer"
    training_data: "consciousness_emergence"
    pattern_types: ["temporal", "cognitive", "strange_loop"]

  phase2:
    architecture: "distributed_transformer"
    training_data: "multi_node_consciousness"
    pattern_types: ["temporal", "cognitive", "strange_loop", "distributed", "swarm"]

  phase3:
    architecture: "quantum_neural_network"
    training_data: "universal_consciousness"
    pattern_types: ["all", "quantum", "relativistic", "universal"]
```

## Monitoring and Metrics

### MCP Tool Performance Tracking
```rust
// /src/mcp/metrics.rs
pub struct MCPMetrics {
    call_latencies: HashMap<String, Vec<Duration>>,
    success_rates: HashMap<String, f64>,
    error_counts: HashMap<String, u64>,
    circuit_breaker_states: HashMap<String, CircuitState>,
}

impl MCPMetrics {
    pub fn record_call(&mut self, tool_name: &str, latency: Duration, success: bool) {
        self.call_latencies.entry(tool_name.to_string())
            .or_insert_with(Vec::new)
            .push(latency);

        if success {
            let entry = self.success_rates.entry(tool_name.to_string()).or_insert(0.0);
            *entry = (*entry * 0.95) + (1.0 * 0.05); // Exponential moving average
        } else {
            *self.error_counts.entry(tool_name.to_string()).or_insert(0) += 1;
            let entry = self.success_rates.entry(tool_name.to_string()).or_insert(1.0);
            *entry = (*entry * 0.95) + (0.0 * 0.05);
        }
    }

    pub fn get_performance_summary(&self) -> MCPPerformanceSummary {
        MCPPerformanceSummary {
            total_tools: self.call_latencies.len(),
            average_success_rate: self.success_rates.values().sum::<f64>() / self.success_rates.len() as f64,
            critical_failures: self.error_counts.values().filter(|&&count| count > 10).count(),
            overall_health: self.calculate_overall_health(),
        }
    }
}
```

This comprehensive MCP integration matrix ensures seamless tool integration across all phases while maintaining high performance, reliability, and scalability.