# Mycelium-EI-Lang 🧬

[![License: Proprietary](https://img.shields.io/badge/License-Proprietary-red.svg)](LICENSE)
[![Python 3.8+](https://img.shields.io/badge/python-3.8+-blue.svg)](https://www.python.org/downloads/)
[![Rust 1.70+](https://img.shields.io/badge/rust-1.70+-orange.svg)](https://www.rust-lang.org/)

**Revolutionary Bio-Inspired Programming Language with Quantum Computing Integration**

Mycelium-EI-Lang is the world's first programming language that seamlessly integrates biological intelligence principles with quantum computing capabilities. Inspired by fungal mycelium networks, it provides unprecedented tools for optimization, machine learning, and adaptive computation.

## 🚀 Key Features

- **🧬 Bio-Inspired Algorithms**: Genetic algorithms, particle swarm optimization, ant colony optimization
- **🧠 Adaptive Neural Networks**: Environmental responsiveness and Hebbian learning
- **⚛️ Quantum Computing**: Quantum entanglement, superposition, and quantum algorithms
- **🌱 Cultivation Monitoring**: Real-time biological system monitoring and optimization
- **🔬 Scientific Computing**: High-performance implementations with GPU acceleration
- **🌐 Distributed Computing**: Network-based computation inspired by mycelium communication
- **Multi-target compilation**: Supports native, WebAssembly, and Python bridge compilation

## Language Constructs

### Environment Blocks

Define environmental parameters that influence program execution:

```mycelium
environment {
    temperature: 22.5,
    humidity: 85.0,
    ph_level: 6.8
}
```

### Mycelium Networks

Create distributed computational networks:

```mycelium
mycelium CultivationNetwork {
    signal growth_rate: float = 0.0
    signal health_status: float = 100.0
    
    network substrate_connections {
        nodes: 1024,
        density: 0.75
    }
    
    function monitor_growth() {
        // Network-aware computation
    }
    
    adapt function respond_to_stress() {
        // Environmental adaptation
    }
}
```

### Signal Processing

Handle bio-inspired signal propagation:

```mycelium
signal NutrientSignal {
    amplitude: float,
    frequency: float,
    propagation_speed: float
}
```

### Adaptive Functions

Functions that automatically adjust to environmental conditions:

```mycelium
adapt function optimize_growth() {
    let temp = get_env("temperature")
    
    if temp < 20.0 || temp > 28.0 {
        // Activate stress response
        adjust_metabolism(0.5)
    }
}
```

## Installation

### Prerequisites

- Python 3.8+ (for the Python interpreter)
- Rust 1.70+ (for the full compiler, optional)

### Quick Start with Python Interpreter

1. Clone the repository:
```bash
git clone <repository-url>
cd mycelium-ei-lang
```

2. Run examples:
```bash
python mycelium_interpreter.py examples/hello_world.myc
python mycelium_interpreter.py examples/simple_cultivation.myc
```

### Full Rust Compiler (Advanced)

1. Install Rust from [rustup.rs](https://rustup.rs/)

2. Build the compiler:
```bash
cargo build --release
```

3. Use the compiler:
```bash
./target/release/myc compile examples/cultivation.myc
```

## Examples

### Hello World

```mycelium
// examples/hello_world.myc
environment {
    temperature: 22.5,
    humidity: 85.0
}

function main() {
    print("Hello from the Mycelium Network!")
    
    let temp: float = get_env("temperature")
    if temp > 20.0 {
        print("Optimal growth conditions detected")
    }
}
```

### Cultivation Monitoring

```mycelium
// Simplified cultivation example
environment {
    temperature: 24.0,
    humidity: 90.0,
    co2_level: 800.0
}

function calculate_growth_factor(temp: float, humidity: float, co2: float) -> float {
    let temp_factor = 1.0 - abs(temp - 24.0) / 10.0
    let humidity_factor = 1.0 - abs(humidity - 85.0) / 20.0
    let co2_factor = min(co2 / 1000.0, 1.0)
    
    return temp_factor * humidity_factor * co2_factor
}

function main() {
    let growth_rate = 0.0
    
    for cycle in range(0, 10) {
        let temp = get_env("temperature")
        growth_rate = calculate_growth_factor(temp, 90.0, 800.0)
        
        print("Growth rate:", growth_rate)
        sleep(100)
    }
}
```

## Language Reference

### Data Types

- `int` - Integer numbers
- `float` - Floating-point numbers  
- `string` - Text strings
- `bool` - Boolean values
- `array` - Dynamic arrays
- `mycelium` - Mycelial network type
- `network` - Network topology type
- `signal` - Bio-signal type

### Built-in Functions

#### Environment Functions
- `get_env(param: string) -> float` - Get environment parameter
- `set_env(param: string, value: float)` - Set environment parameter

#### Math Functions
- `abs(x: float) -> float` - Absolute value
- `min(a: float, b: float) -> float` - Minimum value
- `max(a: float, b: float) -> float` - Maximum value
- `sin(x: float) -> float` - Sine function
- `cos(x: float) -> float` - Cosine function

#### Utility Functions
- `print(...) -> void` - Print to console
- `len(array) -> int` - Array length
- `range(start: int, end: int) -> array` - Create integer range
- `sleep(ms: int)` - Sleep for milliseconds

#### Type Conversion
- `int(x) -> int` - Convert to integer
- `float(x) -> float` - Convert to float
- `str(x) -> string` - Convert to string

### Control Flow

#### Conditionals
```mycelium
if condition {
    // statements
} else {
    // statements
}
```

#### Loops
```mycelium
// For loops
for item in iterable {
    // statements
}

// While loops
while condition {
    // statements
}
```

#### Functions
```mycelium
function function_name(param1: type, param2: type) -> return_type {
    // statements
    return value
}
```

### Variables
```mycelium
let variable_name: type = value
const constant_name: type = value
```

## Architecture

The Mycelium-EI-Lang system consists of several components:

### Compiler (Rust)
- **Lexer**: Tokenizes source code with bio-inspired syntax
- **Parser**: Builds AST with ecological programming constructs
- **Semantic Analysis**: Type checking with environmental constraints
- **Code Generation**: Multi-target compilation (native, WASM, Python)
- **Optimization**: Bio-inspired optimization passes

### Runtime System
- **Environment Manager**: Handles environmental parameters
- **Signal Processor**: Manages bio-inspired signal propagation
- **Network Engine**: Distributed execution coordination
- **Adaptation Engine**: Dynamic environmental response

### Python Interpreter
A simplified interpreter written in Python for quick prototyping and testing.

## Development Status

### Completed
- [x] Basic language specification
- [x] Rust compiler skeleton with core modules
- [x] Python interpreter for rapid prototyping
- [x] Example programs
- [x] Documentation framework

### In Progress
- [ ] Full mycelium network implementation
- [ ] Signal processing system
- [ ] Environmental adaptation engine
- [ ] Advanced bio-inspired optimizations

### Planned
- [ ] WebAssembly compilation target
- [ ] Python bridge for scientific computing
- [ ] Integration with biological sensors
- [ ] Machine learning model integration
- [ ] Distributed execution framework

## Contributing

Contributions are welcome! Please feel free to submit issues, feature requests, or pull requests.

### Development Setup

1. Install dependencies:
   - Rust (for compiler development)
   - Python 3.8+ (for interpreter development)

2. Clone and build:
```bash
git clone <repository-url>
cd mycelium-ei-lang
cargo build  # For Rust components
```

3. Run tests:
```bash
cargo test
python -m pytest  # If tests are added
```

## License

Apache License 2.0 - see LICENSE file for details.

## Inspiration

This language is inspired by:
- Mycelial networks and fungal intelligence
- Biological adaptation mechanisms
- Distributed computing patterns in nature
- Ecological system modeling
- Bio-inspired optimization algorithms

The goal is to create a programming paradigm that mirrors the efficiency, adaptability, and resilience found in natural biological systems.