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Glama

Global MCP Server

by Apofenic

Global MCP Server

A modular MCP (Model Context Protocol) server that extends GitHub Copilot's capabilities by providing intelligent context compression and dynamic model routing for long-lived coding sessions.

Overview

During extended development sessions, context windows can become overwhelmed with large amounts of code, documentation, and conversation history. The Global MCP Server addresses this challenge through:

  • Context Compression: Intelligently reduces KV cache size while preserving semantic meaning
  • Smart Routing: Routes prompts to appropriately-sized models based on complexity analysis
  • Tool Chaining: Seamlessly integrates multiple compression and routing techniques
  • External Integrations: Connects with Jira, GitHub, and filesystem for comprehensive development workflows

Core Services

🔬 FreqKV Service - Frequency Domain Compression

What it does: Compresses large context windows using Discrete Cosine Transform (DCT) to remove high-frequency "noise" while preserving essential information.

How it works:

  • Applies DCT to convert context embeddings from time domain to frequency domain
  • Removes high-frequency components that contribute less to semantic meaning
  • Preserves "sink tokens" (first N tokens) that are critical for context understanding
  • Reconstructs compressed representation using inverse DCT

Benefits:

  • Reduces context size by 30-70% while maintaining semantic fidelity
  • Particularly effective for removing redundant or repetitive information
  • Fast processing using optimized NumPy/SciPy operations

Example: A 1000-token context becomes 300 tokens with 70% of semantic information preserved.

🔗 LoCoCo Service - Convolution-based Context Fusion

What it does: Further compresses context by fusing multiple tokens into representative "super-tokens" using 1D convolution.

How it works:

  • Applies sliding window convolution across the token sequence
  • Uses learnable kernels to combine adjacent tokens into fused representations
  • Maintains fixed output size regardless of input length
  • Preserves local relationships between tokens through overlapping windows

Benefits:

  • Consistent output size for predictable memory usage
  • Maintains local context relationships
  • Configurable compression ratios and kernel sizes
  • Works synergistically with FreqKV for multi-stage compression

Example: After FreqKV reduces 1000→300 tokens, LoCoCo further compresses to 128 fixed-size tokens.

🧠 Routing Service - Intelligent Model Selection

What it does: Analyzes prompt complexity and routes requests to the most appropriate local LLM to optimize response time and resource usage.

Orchestration Method: Uses direct API calls with fallback mechanisms - no external orchestration platform required.

How it works:

  • Pattern Matching: Uses regex patterns to identify complexity indicators
  • Heuristic Analysis: Considers prompt length, technical keywords, and code complexity
  • Classification Scoring: Combines multiple signals to classify as "simple", "moderate", or "complex"
  • Model Selection: Routes to appropriate model tier (Phi-3 → Mistral → Llama-3)
  • Direct API Communication: Makes HTTP calls directly to model endpoints (Ollama, custom APIs)
  • Graceful Fallbacks: Automatically switches to mock responses if models are unavailable

Complexity Classifications:

  • Simple (phi-3): Basic formatting, renaming, simple fixes
    • Examples: "Fix indentation", "Add import statement", "Rename variable"
  • Moderate (mistral): Code implementation, refactoring, debugging
    • Examples: "Implement function", "Refactor class", "Debug error"
  • Complex (llama-3): Architecture, integration, performance optimization
    • Examples: "Design microservices", "Optimize database queries", "Build CI/CD pipeline"

Benefits:

  • Faster responses for simple tasks (3B vs 70B parameter models)
  • Better resource utilization
  • Scalable to team usage patterns
  • Fallback mechanisms for model unavailability

📊 Model Registry - Endpoint Management

What it does: Provides a pluggable system for managing multiple LLM endpoints and their routing configurations.

How it works:

  • Model Registration: Maps model names to endpoints (Ollama, HTTP APIs, etc.)
  • Complexity Mapping: Associates complexity levels with specific models
  • Configuration Persistence: Stores settings in JSON for easy modification
  • Runtime Updates: Allows dynamic model registration and routing changes

Supported Endpoints:

  • Ollama: ollama://model-name for local models
  • HTTP APIs: Direct HTTP endpoints for custom model servers
  • Mock Endpoints: For testing and development

Tool Chain Pipeline

The services work together in a coordinated pipeline:

┌─────────────┐ ┌─────────────┐ ┌─────────────┐ ┌─────────────┐ │ Input │───▶│ FreqKV │───▶│ LoCoCo │───▶│ Routing │ │ Context │ │ Compression │ │ Fusion │ │ & Response │ │ │ │ │ │ │ │ │ │ 1000 tokens │ │ 300 tokens │ │ 128 tokens │ │ Optimized │ │ │ │ (DCT-based) │ │ (Conv-based)│ │ Model Route │ └─────────────┘ └─────────────┘ └─────────────┘ └─────────────┘
  1. Context Ingestion: Large context (code files, conversation history)
  2. Frequency Compression: FreqKV removes semantic redundancy
  3. Spatial Compression: LoCoCo fuses tokens into fixed-size representation
  4. Complexity Analysis: Routing service analyzes prompt characteristics
  5. Model Selection: Route to appropriate model based on complexity
  6. Response Generation: Generate response using compressed context

Installation

pip install -r requirements.txt

Usage

python -m mcp.server

Configuration

The server uses .vscode/mcp.json for MCP tool configurations including Jira, GitHub, and filesystem integrations.

MCP Tool Integration

The Global MCP Server provides several tools that integrate seamlessly with GitHub Copilot:

Available Tools

  1. compress_kv_cache: Compresses large context windows
    • Input: KV cache array, compression settings
    • Output: Compressed cache with statistics
    • Use case: Reduce memory usage for long conversations
  2. route_prompt: Intelligently routes prompts to appropriate models
    • Input: Prompt text, optional context
    • Output: Model response with routing decision explanation
    • Use case: Optimize response time and resource usage
  3. process_full_pipeline: Runs complete compression + routing pipeline
    • Input: Prompt + optional KV cache
    • Output: Compressed context + routed response
    • Use case: End-to-end optimization for complex development tasks

MCP Integration Benefits

  • Transparent Compression: Context compression happens automatically
  • Intelligent Scaling: Automatically adapts to prompt complexity
  • Resource Optimization: Uses appropriate model size for each task
  • Seamless Fallbacks: Graceful degradation when services are unavailable

External Service Integrations

The server coordinates with multiple external MCP services:

🎫 Jira Integration

  • Purpose: Access project tickets, create issues, update status
  • Tools: Query tickets, create tasks, update assignees
  • Configuration: Requires Jira URL, username, and API token

🐙 GitHub Integration

  • Purpose: Repository operations, PR management, issue tracking
  • Tools: Read files, create branches, manage pull requests
  • Configuration: Requires GitHub personal access token

📁 Filesystem Integration

  • Purpose: Secure file operations within allowed directories
  • Tools: Read/write files, directory operations, search
  • Configuration: Whitelist of allowed paths and permissions

Performance Characteristics

Compression Metrics

  • FreqKV Compression: 30-70% size reduction with minimal quality loss
  • LoCoCo Fusion: Fixed output size regardless of input length
  • Combined Pipeline: Up to 90% size reduction while preserving semantic meaning

Routing Performance

  • Classification Speed: <50ms for prompt analysis
  • Model Selection: Instant lookup from registry
  • Response Time Improvement:
    • Simple tasks: 3-5x faster (using Phi-3 vs Llama-3)
    • Complex tasks: Maintains quality with appropriate model selection

Resource Usage

  • Memory: Compressed contexts use 10-50% of original memory
  • CPU: Compression adds 100-300ms overhead
  • GPU: Model routing optimizes GPU utilization across different model sizes

Installation & Setup

Prerequisites

  • Python 3.10 or higher
  • Optional: Ollama for local LLM support
  • Optional: Redis for caching (future enhancement)

Quick Start

# Clone repository git clone https://github.com/yourusername/globalmcp.git cd globalmcp # Set up development environment ./setup_dev.sh # Install dependencies pip install -r requirements.txt # Run demo to verify installation python demo.py # Start the MCP server python -m mcp.server

Environment Variables

Configure the following environment variables for external service integration:

# Jira Integration export JIRA_URL="https://yourcompany.atlassian.net" export JIRA_USERNAME="your-email@company.com" export JIRA_API_TOKEN="your-jira-token" # GitHub Integration export GITHUB_PERSONAL_ACCESS_TOKEN="ghp_your-token-here" export GITHUB_OWNER="your-github-username" export GITHUB_REPO="your-default-repo" # Server Configuration export MCP_SERVER_HOST="localhost" export MCP_SERVER_PORT="8000"

Advanced Configuration

VS Code MCP Configuration

The .vscode/mcp.json file configures all MCP integrations:

{ "mcpServers": { "globalmcp": { "command": "python", "args": ["-m", "mcp.server"], "env": { "MCP_SERVER_HOST": "localhost", "MCP_SERVER_PORT": "8000" } }, "jira": { "command": "npx", "args": ["-y", "@modelcontextprotocol/server-jira"], "env": { "JIRA_URL": "${JIRA_URL}", "JIRA_USERNAME": "${JIRA_USERNAME}", "JIRA_API_TOKEN": "${JIRA_API_TOKEN}" } } } }

Service-Specific Configuration

Each service has its own configuration file in the config/ directory:

  • model_registry.json: Model endpoints and complexity mappings
  • jira_config.json: Jira connection and project settings
  • github_config.json: GitHub API and repository settings
  • filesystem_config.json: Allowed paths and security settings

Model Configuration

Customize model routing in config/model_registry.json:

{ "models": { "phi3": "ollama://phi3", "mistral": "ollama://mistral", "llama3": "ollama://llama3" }, "complexity_mapping": { "simple": "ollama://phi3", "moderate": "ollama://mistral", "complex": "ollama://llama3" } }

Usage Examples

Basic Context Compression

# Compress a large KV cache response = await mcp_client.call_tool("compress_kv_cache", { "kv_cache": large_context_array, "sink_tokens": 10, "compression_ratio": 0.6 }) print(f"Compressed from {response['original_size']} to {response['compressed_size']} tokens")

Smart Prompt Routing

# Route prompt to appropriate model response = await mcp_client.call_tool("route_prompt", { "prompt": "Implement a Redis caching layer for this API", "context": "Working on a Node.js microservice" }) print(f"Routed to {response['model_used']} based on {response['complexity']} complexity")

Full Pipeline Processing

# Process through complete pipeline response = await mcp_client.call_tool("process_full_pipeline", { "prompt": "Optimize this database query for better performance", "kv_cache": conversation_context, "context": "PostgreSQL database with 1M+ records" }) # Get both compression and routing results compression_stats = response['compression'] routing_decision = response['routing']

Development & Testing

Running Tests

# Install test dependencies pip install -r requirements-dev.txt # Run all tests pytest # Run specific service tests pytest mcp/tests/test_freqkv.py -v pytest mcp/tests/test_lococo.py -v

Demo Script

The included demo script shows all features:

python demo.py

This demonstrates:

  • KV cache compression pipeline
  • Prompt complexity classification
  • Model routing decisions
  • End-to-end processing

Development Mode

Start the server in development mode with auto-reload:

uvicorn mcp.server:app --reload --host 0.0.0.0 --port 8000

Architecture Decisions

Why Frequency Domain Compression?

  • Semantic Preservation: DCT naturally separates important low-frequency information from noise
  • Computational Efficiency: Fast FFT algorithms make compression lightweight
  • Tunable Quality: Compression ratio directly controls quality vs size tradeoffs

Why Convolution for Token Fusion?

  • Local Context Preservation: Sliding windows maintain relationships between adjacent tokens
  • Fixed Output Size: Predictable memory usage regardless of input size
  • Hardware Optimized: Convolution operations are highly optimized on modern hardware

Why Pattern-Based Routing?

  • Fast Classification: Regex patterns provide instant complexity assessment
  • Interpretable Decisions: Clear reasoning for routing choices
  • Easy Customization: Patterns can be updated without retraining models
  • Fallback Ready: Works even when classification models are unavailable

Troubleshooting

Common Issues

  1. Import Errors: Ensure all dependencies are installed with pip install -r requirements.txt
  2. Ollama Connection: Verify Ollama is running on localhost:11434
  3. Configuration: Check that .vscode/mcp.json has correct paths and environment variables
  4. Permissions: Ensure filesystem paths in config are accessible

Debug Mode

Enable detailed logging:

python -m mcp.server --log-level DEBUG

Health Checks

Verify server status:

curl http://localhost:8000/health

Contributing

See CONTRIBUTING.md for development guidelines and coding standards.

License

This project follows standard open source licensing practices.

Orchestration Architecture

The Global MCP Server uses a lightweight, direct-communication orchestration model rather than complex service mesh or message queue systems:

Orchestration Components

  1. FastAPI Application Server: Central coordination point for all MCP requests
  2. Direct API Calls: Services communicate via HTTP/HTTPS without intermediary layers
  3. Built-in Service Discovery: Model registry provides endpoint lookup without external service discovery
  4. Async/Await Concurrency: Python asyncio handles concurrent requests efficiently

Model Orchestration Methods

Ollama Integration
# Direct HTTP API calls to Ollama server async with httpx.AsyncClient() as client: response = await client.post( "http://localhost:11434/api/generate", json={ "model": "phi3", "prompt": prompt, "stream": False } )
Custom HTTP Endpoints
# Generic HTTP API support for any model server response = await client.post( model_endpoint, json={ "prompt": prompt, "max_tokens": 512 } )
Fallback Mechanisms
  • Connection Failures: Automatic fallback to mock responses
  • Model Unavailable: Route to alternative model in same complexity tier
  • Timeout Handling: 30-second timeouts with graceful degradation

Why This Orchestration Approach?

  • Simplicity: No external dependencies like Kubernetes, Docker Swarm, or service meshes
  • Performance: Direct API calls minimize latency vs message queues
  • Reliability: Fewer moving parts means fewer failure points
  • Development Speed: Easy to debug and extend without orchestration complexity
  • Resource Efficiency: Minimal overhead compared to heavy orchestration platforms

Comparison with Alternative Orchestration

MethodComplexityLatencyDependenciesUse Case
Direct API (Current)Low<100msNoneDevelopment tools, local deployment
KubernetesHigh200-500msK8s clusterProduction at scale
Docker SwarmMedium150-300msDockerMedium-scale deployment
Message QueuesMedium100-200msRedis/RabbitMQAsynchronous processing

Future Orchestration Enhancements

For production scaling, the architecture supports easy migration to:

  • Load Balancers: HAProxy or Nginx for model endpoint distribution
  • Container Orchestration: Docker Compose or Kubernetes manifests
  • Service Mesh: Istio or Linkerd for advanced traffic management
  • Message Queues: Redis or RabbitMQ for asynchronous request processing

Routing Strategy Analysis

Current Implementation: Regex Pattern Matching

The current router uses regex pattern matching combined with heuristic analysis for prompt classification. Here's a detailed comparison of approaches:

Regex Pattern Matching (Current)

Advantages:

  • Ultra-low latency: <1ms classification time
  • Zero dependencies: No additional model loading or GPU memory
  • Deterministic: Same input always produces same output
  • Interpretable: Clear reasoning for routing decisions
  • No network calls: Entirely local computation
  • Easy to debug: Pattern matches are visible and traceable
  • Customizable: Patterns can be updated instantly without retraining

Disadvantages:

  • Limited context understanding: Cannot understand semantic nuance
  • Brittle to variations: "implement function" vs "build a function" might route differently
  • Manual maintenance: Patterns need manual updates for new use cases
  • False positives: May misclassify edge cases

Current Implementation Performance:

# Classification time: <1ms complexity_scores = { "simple": 2, # Matched "fix" and "format" "moderate": 0, # No matches "complex": 0 # No matches } # Result: "simple" complexity → routes to Phi-3

Super Lightweight LLM Approach

Advantages:

  • Semantic understanding: Can understand intent beyond keywords
  • Context awareness: Considers full prompt context and nuance
  • Adaptive: Improves with better training data
  • Robust to variations: Handles paraphrasing and edge cases better
  • Future-proof: Can evolve with new prompt patterns

Disadvantages:

  • Higher latency: 50-200ms for small models like TinyLlama/Phi-3-mini
  • Resource overhead: Requires GPU/CPU for inference
  • Model dependency: Need to load and maintain classification model
  • Less predictable: Same input might vary slightly in output
  • Complex debugging: Black box decision making
  • Cold start penalty: Initial model loading time

Hybrid Approach Recommendation

Best of both worlds - Use regex as primary with LLM fallback:

async def classify_complexity_hybrid(self, prompt: str, context: str = "") -> str: # Fast regex classification first regex_result = await self.classify_with_patterns(prompt, context) confidence = self.calculate_pattern_confidence(prompt, context) # If confidence is high, use regex result if confidence > 0.8: return regex_result # For ambiguous cases, use lightweight LLM return await self.classify_with_llm(prompt, context)

Performance Comparison

MethodLatencyMemoryAccuracyMaintenance
Regex Only<1ms0MB85-90%Manual patterns
LLM Only50-200ms100-500MB92-95%Training data
Hybrid1-200ms100-500MB90-95%Best balance

Recommendation: Stick with Regex (Current)

For this use case, regex pattern matching is the better choice because:

  1. Speed is Critical: Router decisions happen frequently and need to be fast
  2. Resource Efficiency: No additional GPU memory or model loading
  3. Reliability: Deterministic behavior is important for development tools
  4. Sufficient Accuracy: 85-90% accuracy is acceptable for development task routing
  5. Easy Maintenance: Patterns can be updated based on usage analytics

Future Enhancement Strategy

Phase 1 (Current): Regex + heuristics ✅ Phase 2: Add confidence scoring and analytics Phase 3: Hybrid approach for ambiguous cases Phase 4: Full LLM classification for production at scale

Pattern Optimization Recommendations

To improve the current regex approach:

# Enhanced patterns with better coverage self.complexity_patterns = { "simple": [ r"\b(fix|format|indent|rename|import|add|remove|delete)\b", r"\b(typo|syntax|missing|extra)\s+(error|semicolon|bracket|quote)\b", r"\bgenerate\s+(getter|setter|constructor|comment)\b", r"\b(what|where|when|how|why)\s+(is|does|should)\b" ], "moderate": [ r"\b(refactor|optimize|implement|create|build|write)\b", r"\b(function|method|class|component|module)\b", r"\b(test|debug|fix)\s+(bug|issue|error|problem)\b", r"\b(explain|describe|analyze|review)\s+.*(code|logic|algorithm)\b" ], "complex": [ r"\b(architect|design|migrate|transform|scale)\b", r"\b(integrate|connect|sync)\s+.*(api|database|service|system)\b", r"\b(performance|security|scalability)\s+(optimization|concern|issue)\b", r"\b(microservice|distributed|architecture|infrastructure)\b" ] }

Analytics-Driven Improvement

Add classification analytics to improve patterns over time:

# Track classification accuracy classification_metrics = { "total_classifications": 1250, "user_corrections": 127, # When users manually override "accuracy": 89.8, # Calculated accuracy "pattern_hits": { "simple": {"fix": 45, "format": 23, "rename": 18}, "moderate": {"implement": 67, "refactor": 34, "debug": 28}, "complex": {"architect": 12, "integrate": 19, "performance": 15} } }

Deployment Strategy Analysis

Docker Containerization vs Local Deployment

The Global MCP Server can be deployed either locally or in Docker containers. Here's a detailed analysis of both approaches:

Local Deployment (Current)

Advantages:

  • Fastest Development: Direct Python execution with instant reloads
  • Easy Debugging: Full access to debugger, logs, and development tools
  • No Container Overhead: Direct access to host resources
  • Simple Setup: Just pip install and run
  • VS Code Integration: Seamless integration with VS Code MCP configuration
  • File System Access: Direct access to project files without volume mounts

Disadvantages:

  • Environment Conflicts: Python version and dependency conflicts
  • Manual Dependency Management: Need to manage Python, Ollama, etc. separately
  • OS-Specific Issues: Different behavior across Windows/Mac/Linux
  • No Isolation: Potential conflicts with other Python projects

Docker Container Deployment

Advantages:

  • Environment Isolation: Consistent runtime across all platforms
  • Dependency Management: All dependencies packaged together
  • Easy Distribution: Single container image works everywhere
  • Scalability: Easy to scale multiple instances
  • Production Ready: Better for production deployments
  • Version Control: Tagged container images for releases
  • Security: Process isolation and sandboxing

Disadvantages:

  • Development Overhead: Build times and container complexity
  • Resource Usage: Additional memory and CPU overhead
  • Network Complexity: Need to expose ports and handle networking
  • Volume Management: File access requires volume mounts
  • Debugging Complexity: More complex to debug containerized apps

Hybrid Recommendation: Both Approaches

For Development: Keep local deployment as primary For Production/Distribution: Docker support ✅ IMPLEMENTED

Docker Implementation Strategy ✅

The project now includes full Docker containerization with the following files:

  • Dockerfile: Multi-stage build for development and production
  • docker-compose.yml: Development environment with hot reload
  • docker-compose.prod.yml: Production environment with security hardening
  • docker.sh: Helper script for common Docker operations
  • DOCKER.md: Comprehensive Docker setup and usage guide
Docker Quick Start
# Development ./docker.sh dev # Production ./docker.sh prod # View all commands ./docker.sh help

See DOCKER.md for complete setup instructions, troubleshooting, and best practices.

Container Performance Comparison

DeploymentStartup TimeMemory UsageDevelopment SpeedProduction Ready
Local<1s50-100MB⭐⭐⭐⭐⭐⭐⭐
Docker2-5s100-200MB⭐⭐⭐⭐⭐⭐⭐⭐

VS Code MCP Integration with Docker

Update .vscode/mcp.json to support both local and containerized deployment:

{ "mcpServers": { "globalmcp-local": { "command": "python", "args": ["-m", "mcp.server"], "env": { "MCP_SERVER_HOST": "localhost", "MCP_SERVER_PORT": "8000" } }, "globalmcp-docker": { "command": "docker", "args": ["run", "--rm", "-p", "8000:8000", "globalmcp:latest"], "env": { "MCP_SERVER_HOST": "localhost", "MCP_SERVER_PORT": "8000" } } } }

Recommendation: Hybrid Approach

For this project, I recommend keeping local deployment as primary with Docker as an option:

  1. Development Phase: Use local deployment for faster iteration
  2. Testing Phase: Use Docker to test deployment and distribution
  3. Production Phase: Use Docker for consistent deployments
  4. Distribution Phase: Provide Docker images for easy setup

When to Choose Each Approach

Choose Local Deployment When:

  • Developing and debugging the MCP server
  • Working with VS Code Copilot integration
  • Need fastest possible startup and reload times
  • Working on a single developer machine

Choose Docker Deployment When:

  • Deploying to production or staging environments
  • Distributing to other developers or users
  • Need consistent environment across platforms
  • Running on servers or cloud platforms
  • Want process isolation and security

Implementation Priority

Phase 1 (Current): Local deployment ✅
Phase 2: Add Docker support for production deployment
Phase 3: Add Docker Compose for full development stack
Phase 4: Add Kubernetes manifests for enterprise deployment

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security - not tested
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license - not found
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quality - not tested

A modular MCP server that extends GitHub Copilot's capabilities through intelligent context compression and dynamic model routing for long-lived coding sessions.

  1. Overview
    1. Core Services
      1. 🔬 FreqKV Service - Frequency Domain Compression
      2. 🔗 LoCoCo Service - Convolution-based Context Fusion
      3. 🧠 Routing Service - Intelligent Model Selection
      4. 📊 Model Registry - Endpoint Management
    2. Tool Chain Pipeline
      1. Installation
        1. Usage
          1. Configuration
            1. MCP Tool Integration
              1. Available Tools
              2. MCP Integration Benefits
            2. External Service Integrations
              1. 🎫 Jira Integration
              2. 🐙 GitHub Integration
              3. 📁 Filesystem Integration
            3. Performance Characteristics
              1. Compression Metrics
              2. Routing Performance
              3. Resource Usage
            4. Installation & Setup
              1. Prerequisites
              2. Quick Start
              3. Environment Variables
            5. Advanced Configuration
              1. VS Code MCP Configuration
              2. Service-Specific Configuration
              3. Model Configuration
            6. Usage Examples
              1. Basic Context Compression
              2. Smart Prompt Routing
              3. Full Pipeline Processing
            7. Development & Testing
              1. Running Tests
              2. Demo Script
              3. Development Mode
            8. Architecture Decisions
              1. Why Frequency Domain Compression?
              2. Why Convolution for Token Fusion?
              3. Why Pattern-Based Routing?
            9. Troubleshooting
              1. Common Issues
              2. Debug Mode
              3. Health Checks
            10. Contributing
              1. License
                1. Orchestration Architecture
                  1. Orchestration Components
                  2. Model Orchestration Methods
                  3. Why This Orchestration Approach?
                  4. Comparison with Alternative Orchestration
                  5. Future Orchestration Enhancements
                2. Routing Strategy Analysis
                  1. Current Implementation: Regex Pattern Matching
                  2. Regex Pattern Matching (Current)
                  3. Super Lightweight LLM Approach
                  4. Hybrid Approach Recommendation
                  5. Performance Comparison
                  6. Recommendation: Stick with Regex (Current)
                  7. Future Enhancement Strategy
                  8. Pattern Optimization Recommendations
                  9. Analytics-Driven Improvement
                3. Deployment Strategy Analysis
                  1. Docker Containerization vs Local Deployment
                  2. Local Deployment (Current)
                  3. Docker Container Deployment
                  4. Hybrid Recommendation: Both Approaches
                  5. Docker Implementation Strategy ✅
                  6. Container Performance Comparison
                  7. VS Code MCP Integration with Docker
                  8. Recommendation: Hybrid Approach
                  9. When to Choose Each Approach
                  10. Implementation Priority

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