duke-agents 1.0.1

DUKE Agents - Advanced AI Agent Framework with IPO Architecture

DUKE Agents

DUKE Agents is an advanced AI agent framework implementing the IPO (Input-Process-Output) architecture with enriched memory and feedback loops. It provides autonomous agents powered by Mistral LLMs for complex task execution, enabling developers to build sophisticated AI-driven workflows with minimal effort.

🎯 Why DUKE Agents?

• Production-Ready: Built with enterprise-grade reliability and error handling
• Memory-Enhanced: Persistent memory across workflow steps enables context-aware processing
• Self-Correcting: Automatic retry with satisfaction scoring ensures quality outputs
• Fully Typed: Complete type annotations for better IDE support and fewer runtime errors
• Extensible: Easy to create custom agents and extend functionality
• Secure: Sandboxed code execution and configurable security policies

🚀 Features

Core Capabilities

• 🏗️ IPO Architecture: Structured Input-Process-Output workflow with memory persistence
• 🤖 Multiple Agent Types:
  • AtomicAgent: For discrete, well-defined tasks
  • CodeActAgent: For code generation and execution
  • Custom agents through simple inheritance
• 🧠 Mistral Integration: Native support for all Mistral models including Codestral
• 💾 Memory Management: Rich workflow memory with feedback loops and context propagation
• 🔄 Auto-correction: Built-in retry logic with configurable satisfaction thresholds
• 🎭 Flexible Orchestration:
  • Linear workflows for predefined sequences
  • LLM-driven dynamic agent selection
• ✅ Type Safety: Full Pydantic models for robust data validation

Advanced Features

• 📊 Workflow Visualization: Export workflows as diagrams
• 🔍 Debugging Tools: Comprehensive logging and memory inspection
• ⚡ Async Support: Asynchronous agent execution for better performance
• 🛡️ Security: Sandboxed execution environment for generated code
• 📈 Metrics: Built-in performance tracking and optimization hints
• 🔌 Extensible: Plugin system for custom functionality

📦 Installation

Standard Installation

pip install duke-agents

Development Installation

# Clone the repository
git clone https://github.com/elmasson/duke-agents.git
cd duke-agents

# Install in development mode with all dependencies
pip install -e ".[dev,docs]"

Prerequisites

• Python 3.8 or higher
• Mistral API key (get one at console.mistral.ai)

🔧 Quick Start

1. Set Up Your Environment

import os
from duke_agents import ContextManager, Orchestrator

# Set your Mistral API key
os.environ["MISTRAL_API_KEY"] = "your-api-key"

# Or use a .env file
# MISTRAL_API_KEY=your-api-key

2. Basic Agent Usage

from duke_agents import AtomicAgent, ContextManager, Orchestrator

# Initialize context manager
context = ContextManager("Process customer feedback")

# Create orchestrator
orchestrator = Orchestrator(context)

# Create and register an agent
agent = AtomicAgent("feedback_analyzer")
orchestrator.register_agent(agent)

# Define workflow
workflow = [{
    'agent': 'feedback_analyzer',
    'input_type': 'atomic',
    'input_data': {
        'task_id': 'analyze_001',
        'parameters': {
            'feedback': 'Great product but shipping was slow',
            'analyze': ['sentiment', 'topics', 'actionable_insights']
        }
    }
}]

# Execute workflow
results = orchestrator.execute_linear_workflow(workflow)

# Access results
if results[0].success:
    print(f"Analysis: {results[0].result}")
    print(f"Confidence: {results[0].satisfaction_score}")

3. Code Generation and Execution

from duke_agents import CodeActAgent, ContextManager, Orchestrator

# Create a code generation agent
context = ContextManager("Data Analysis Assistant")
orchestrator = Orchestrator(context)

code_agent = CodeActAgent("data_analyst", model="codestral-latest")
orchestrator.register_agent(code_agent)

# Generate and execute code
workflow = [{
    'agent': 'data_analyst',
    'input_type': 'codeact',
    'input_data': {
        'prompt': '''Create a function that:
        1. Loads sales data from a CSV file
        2. Calculates total revenue by product category
        3. Identifies top 5 performing products
        4. Generates a summary report with visualizations''',
        'context_data': {
            'csv_path': 'sales_data.csv',
            'date_column': 'transaction_date'
        }
    }
}]

results = orchestrator.execute_linear_workflow(workflow)

if results[0].success:
    print(f"Generated Code:\n{results[0].generated_code}")
    print(f"\nExecution Output:\n{results[0].execution_result}")

4. Multi-Agent Workflows

# Create multiple specialized agents
data_agent = AtomicAgent("data_processor")
analysis_agent = CodeActAgent("analyzer")
report_agent = AtomicAgent("report_generator")

# Register all agents
for agent in [data_agent, analysis_agent, report_agent]:
    orchestrator.register_agent(agent)

# Define multi-step workflow
workflow = [
    {
        'agent': 'data_processor',
        'input_type': 'atomic',
        'input_data': {
            'task_id': 'load_data',
            'parameters': {'source': 'database', 'table': 'sales_2024'}
        }
    },
    {
        'agent': 'analyzer',
        'input_type': 'codeact',
        'input_data': {
            'prompt': 'Analyze the sales data and identify trends, anomalies, and opportunities'
        }
    },
    {
        'agent': 'report_generator',
        'input_type': 'atomic',
        'input_data': {
            'task_id': 'create_report',
            'parameters': {'format': 'pdf', 'include_visuals': True}
        }
    }
]

# Execute the complete workflow
results = orchestrator.execute_linear_workflow(workflow)

5. Custom Agent Creation

from duke_agents.agents import BaseAgent
from duke_agents.models import AtomicInput, AtomicOutput
from pydantic import BaseModel

class TranslationOutput(BaseModel):
    translated_text: str
    source_language: str
    target_language: str
    confidence: float

class TranslationAgent(BaseAgent):
    """Custom agent for language translation."""
    
    def __init__(self, name: str, model: str = "mistral-large"):
        super().__init__(name, model)
        self.agent_type = "translator"
    
    def process(self, input_data: AtomicInput, context_data: dict = None) -> TranslationOutput:
        # Custom processing logic
        prompt = f"""Translate the following text to {input_data.parameters.get('target_language', 'English')}:
        
        {input_data.parameters['text']}
        
        Also identify the source language."""
        
        response = self.llm_client.complete(prompt)
        
        # Parse response and create output
        return TranslationOutput(
            translated_text=response['translation'],
            source_language=response['source_language'],
            target_language=input_data.parameters['target_language'],
            confidence=0.95
        )

# Use the custom agent
translator = TranslationAgent("translator")
orchestrator.register_agent(translator)

📖 Advanced Usage

Dynamic Workflow with LLM-Driven Orchestration

# Let the LLM decide which agents to use
context = ContextManager("Solve user problem: analyze and visualize climate data")

# Register multiple specialized agents
agents = {
    'data_fetcher': AtomicAgent("data_fetcher"),
    'data_cleaner': AtomicAgent("data_cleaner"),
    'statistician': CodeActAgent("statistician"),
    'visualizer': CodeActAgent("visualizer"),
    'reporter': AtomicAgent("reporter")
}

for agent in agents.values():
    orchestrator.register_agent(agent)

# Execute LLM-driven workflow
results = orchestrator.execute_llm_driven_workflow(
    user_request="Fetch climate data for the last 10 years, clean it, perform statistical analysis, create visualizations, and generate a comprehensive report",
    max_steps=10
)

Memory and Context Management

# Access workflow memory
memory = context.memory

# Inspect memory records
for record in memory.agent_records:
    print(f"Agent: {record.agent_name}")
    print(f"Input: {record.input_summary}")
    print(f"Output: {record.output_summary}")
    print(f"Timestamp: {record.timestamp}")
    print("---")

# Add custom feedback
memory.add_feedback("visualization", "Excellent charts, very clear and informative", 0.95)

# Get memory summary for LLM context
summary = memory.get_summary()

Configuration and Customization

from duke_agents.config import DukeConfig

# Custom configuration
config = DukeConfig(
    mistral_api_key="your-key",
    default_model="mistral-large",
    temperature=0.7,
    max_retries=5,
    satisfaction_threshold=0.8,
    code_execution_timeout=60,  # seconds
    enable_sandboxing=True
)

# Create orchestrator with custom config
orchestrator = Orchestrator(context, config=config)

Error Handling and Debugging

# Enable detailed logging
import logging
logging.getLogger('duke_agents').setLevel(logging.DEBUG)

# Execute with error handling
try:
    results = orchestrator.execute_linear_workflow(workflow)
except Exception as e:
    # Access detailed error information
    print(f"Workflow failed: {e}")
    
    # Inspect partial results
    for i, record in enumerate(context.memory.agent_records):
        if record.error:
            print(f"Step {i} failed: {record.error}")

# Export workflow for debugging
orchestrator.export_workflow("debug_workflow.json")

🏗️ Architecture

Component Overview

duke-agents/
├── agents/              # Agent implementations
│   ├── base_agent.py    # Abstract base class
│   ├── atomic_agent.py  # Simple task execution
│   └── codeact_agent.py # Code generation/execution
├── models/              # Data models
│   ├── atomic_models.py # Input/Output for AtomicAgent
│   ├── codeact_models.py # Input/Output for CodeActAgent
│   └── memory.py        # Memory management
├── orchestration/       # Workflow management
│   ├── context_manager.py # Context and memory
│   └── orchestrator.py    # Workflow execution
├── executors/           # Code execution
│   └── code_executor.py  # Safe code execution
├── llm/                 # LLM integration
│   └── mistral_client.py # Mistral API client
└── config.py            # Configuration

Design Principles

1. Separation of Concerns: Each component has a single, well-defined responsibility
2. Extensibility: Easy to add new agent types and capabilities
3. Type Safety: Full type hints and runtime validation
4. Memory-First: All operations consider memory and context
5. Fail-Safe: Graceful error handling and recovery

🧪 Testing

# Run all tests
pytest

# Run with coverage
pytest --cov=duke_agents

# Run specific test file
pytest tests/test_agents.py

# Run with verbose output
pytest -v

📊 Performance Considerations

• Concurrent Execution: Agents can run in parallel when dependencies allow
• Caching: LLM responses are cached to reduce API calls
• Memory Optimization: Automatic memory pruning for long workflows
• Batch Processing: Support for processing multiple inputs efficiently

🔒 Security

• Sandboxed Execution: Code runs in isolated environments
• Input Validation: All inputs are validated before processing
• API Key Protection: Secure handling of sensitive credentials
• Rate Limiting: Built-in rate limiting for API calls
• Audit Logging: Complete audit trail of all operations

📚 Documentation

• Full Documentation: Comprehensive guides and API reference (ReadTheDocs coming soon)
• Examples: Ready-to-run example scripts
• API Reference: Detailed API documentation
• Contributing Guide: How to contribute to the project

🤝 Contributing

We welcome contributions! Please see our Contributing Guide for details on:

• Code style and standards
• Development setup
• Testing requirements
• Pull request process
• Issue reporting

📈 Roadmap

• v1.1: Async/await support throughout
• v1.2: Additional LLM providers (OpenAI, Anthropic)
• v1.3: Web UI for workflow design
• v1.4: Distributed agent execution
• v2.0: Agent marketplace and sharing

📄 License

This project is licensed under the MIT License - see the LICENSE file for details.

🙏 Acknowledgments

• Built with Mistral AI models
• Inspired by IPO (Input-Process-Output) architecture
• Thanks to all contributors

📬 Support

• Documentation: GitHub Docs
• Issues: GitHub Issues
• Discussions: GitHub Discussions
• Email: [e-mail]

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Made with ❤️ by the DUKE Analytics team