# micro_routing - Dynamic Routing (Placeholder Implementation)
[](https://crates.io/crates/micro_routing)
[](https://docs.rs/micro_routing)
[](LICENSE)
**Placeholder implementation for dynamic routing in micro-neural networks**
⚠️ **This crate contains mostly stub implementations and placeholder code.** The routing functionality described in the documentation is not yet implemented. This serves as a design specification and API outline for future development.
## ⚠️ Current Implementation Status
### ✅ What Exists
- **Basic Type Definitions**: Empty struct definitions for routing components
- **Default Implementations**: Minimal default trait implementations
- **Module Structure**: Organized module layout for future implementation
- **Integration**: Basic integration with micro_core types
### ❌ What's Missing (Most Everything)
- **Actual Routing Logic**: No real routing algorithms implemented
- **Context Management**: Context tracking is stub code only
- **Neural Gating**: No neural network-based routing
- **Performance Optimization**: No actual performance considerations
- **Load Balancing**: Not implemented
- **Rule-Based Routing**: Not implemented
## 📦 Installation
Add this to your `Cargo.toml`:
```toml
[dependencies]
micro_routing = { path = "../micro_routing" }
micro_core = { path = "../micro_core" }
```
## 🏗️ Current API (Placeholder)
### Basic Types
```rust
use micro_routing::{DynamicRouter, RouterConfig, RoutingDecision};
// All of these are empty structs with default implementations
let router = DynamicRouter::default();
let config = RouterConfig::default();
let decision = RoutingDecision::default();
// No actual functionality implemented
```
### Integration with micro_core
```rust
use micro_routing::{RootVector, ROOT_DIM, MicroNet};
use micro_core::{Error, Result};
// Re-exports work, but no routing logic exists
let vector = RootVector::zero();
println!("Vector has {} dimensions", ROOT_DIM);
```
## 🎯 Planned Architecture (Not Implemented)
The following describes the intended design, not the current implementation:
### 1. Dynamic Router System
```rust
// PLANNED API (not implemented)
use micro_routing::{Router, RoutingStrategy};
let mut router = Router::new(RoutingStrategy::Hybrid);
router.register_agent("reasoning", Box::new(reasoning_agent));
let plan = router.route(&input, &context); // Would return routing decision
```
### 2. Context Management
```rust
// PLANNED API (not implemented)
use micro_routing::{Context, ContextManager};
let mut context = Context::new();
context.add_interaction("agent_id", success_score);
let context_vector = context.get_context_vector();
```
### 3. Gating Networks
```rust
// PLANNED API (not implemented)
use micro_routing::{GatingNetwork, GatingConfig};
let config = GatingConfig {
input_dim: 32,
hidden_dim: 64,
num_agents: 8,
temperature: 2.0,
};
let mut gating_net = GatingNetwork::new(config);
let probabilities = gating_net.forward(&input);
```
## 📋 Implementation Roadmap
### Phase 1: Core Routing
- [ ] Implement basic routing decision logic
- [ ] Add rule-based routing with pattern matching
- [ ] Create context tracking and management
- [ ] Add execution plan generation
### Phase 2: Advanced Routing
- [ ] Implement neural gating networks
- [ ] Add context-aware routing with history
- [ ] Create hybrid routing strategies
- [ ] Add performance metrics and monitoring
### Phase 3: Optimization
- [ ] Load balancing across agents
- [ ] Parallel execution planning
- [ ] Caching and optimization
- [ ] Integration with micro_swarm orchestrator
## 🔧 Current Module Structure
```
micro_routing/
├── src/
│ ├── lib.rs # Basic re-exports and type definitions
│ ├── router.rs # Stub router implementation
│ ├── context.rs # Placeholder context management
│ ├── gating.rs # Empty gating network stubs
│ └── plan.rs # Execution plan placeholders
```
## 📊 Intended Performance Characteristics
These are planned targets, not current performance:
| Rule-Based Routing | <10 μs | Pattern matching |
| Neural Gating | <100 μs | Small network forward pass |
| Context Lookup | <1 μs | Hash table lookup |
| Plan Generation | <20 μs | Decision tree traversal |
## 🧪 Testing
```bash
# Currently only tests basic compilation and default implementations
cargo test
# No meaningful functionality to test yet
cargo test --features integration-tests
```
## ⚠️ Known Issues
1. **No Functionality**: Almost everything is placeholder code
2. **Compilation Only**: Code compiles but doesn't do meaningful work
3. **Missing Dependencies**: Some planned features need additional crates
4. **API Changes**: API will likely change significantly during implementation
5. **No Error Handling**: Proper error types not yet defined
## 🤝 Contributing
This crate needs significant development work. Priority contributions:
1. **Core Routing Logic**: Implement actual routing algorithms
2. **Context Management**: Build working context tracking
3. **Neural Networks**: Add gating network implementations
4. **Testing**: Create comprehensive test suite
5. **Documentation**: Update docs to match implementation
### Implementation Guidelines
When implementing routing functionality:
- Follow the existing type signatures where possible
- Integrate with micro_core's RootVector and error types
- Maintain no_std compatibility where feasible
- Add comprehensive tests for each component
- Document all public APIs with examples
## 📄 License
Licensed under either of:
- Apache License, Version 2.0 ([LICENSE-APACHE](../LICENSE-APACHE))
- MIT License ([LICENSE-MIT](../LICENSE-MIT))
at your option.
## 🔗 Related Crates
- [`micro_core`](../micro_core): Core types and mathematical structures
- [`micro_cartan_attn`](../micro_cartan_attn): Attention mechanisms for routing
- [`micro_metrics`](../micro_metrics): Performance monitoring
- [`micro_swarm`](../micro_swarm): High-level orchestration
---
**Part of the rUv-FANN Semantic Cartan Matrix system** - Currently a placeholder for future routing implementation.