SkillAgentSearch skills...

Daa

Decentralized Autonomous Applications (DAAs). Building the Future with Self-Managing Applications.

Install / Use

/learn @ruvnet/Daa
About this skill

Quality Score

0/100

Supported Platforms

Zed

README

🤖 DAA SDK - Decentralized Autonomous Agents & Distributed ML

Build the future of autonomous AI systems and distributed machine learning - A production-ready Rust SDK for creating quantum-resistant, economically self-sustaining autonomous agents with AI-driven decision making and distributed ML capabilities.

Crates.io Documentation License: MIT Rust Built with QuDAG NAPI Build NAPI Test


🌟 What is DAA?

Decentralized Autonomous Agents (DAAs) are self-managing AI entities that operate independently in digital environments, now enhanced with distributed machine learning capabilities through the Prime framework. Unlike traditional bots or smart contracts, DAAs combine:

  • 🧠 AI-Powered Decision Making - Claude AI integration for intelligent reasoning
  • 💰 Economic Self-Sufficiency - Built-in token economy for resource management
  • 🔐 Quantum-Resistant Security - Future-proof cryptography via QuDAG protocol
  • ⚖️ Autonomous Governance - Rule-based decision making with audit trails
  • 🌐 Decentralized Operation - P2P networking without central authorities
  • 🚀 Distributed ML Training - Federated learning with Prime framework
  • 🎯 Swarm Intelligence - Multi-agent coordination and collective learning

Why DAAs Matter

Traditional AI systems require constant human oversight. DAAs represent the next evolution:

| Traditional AI | Smart Contracts | DAAs with Prime ML | |---------------|-----------------|------------------------| | ❌ Requires human operators | ❌ Limited logic capabilities | ✅ Fully autonomous with ML | | ❌ Centralized infrastructure | ❌ No AI decision making | ✅ AI-powered distributed reasoning | | ❌ No economic incentives | ❌ No self-funding | ✅ Economic self-sufficiency | | ❌ Vulnerable to quantum attacks | ❌ Vulnerable to quantum attacks | ✅ Quantum-resistant | | ❌ Isolated learning | ❌ No learning capability | ✅ Federated & swarm learning |


⚡ Quick Start

🚀 Installation (Recommended)

Add DAA crates to your Cargo.toml:

[dependencies]
# Core DAA Framework
daa-orchestrator = "0.2.0"  # Core orchestration engine (coming soon)
daa-rules = "0.2.1"         # Rules and governance
daa-economy = "0.2.1"       # Economic management
daa-ai = "0.2.1"            # AI integration
daa-chain = "0.2.0"         # Blockchain abstraction (coming soon)
daa-compute = "0.2.0"       # Distributed compute (coming soon)
daa-swarm = "0.2.0"         # Swarm coordination (coming soon)

# Prime Distributed ML Framework
daa-prime-core = "0.2.1"        # Core ML types and protocols
daa-prime-dht = "0.2.1"         # Distributed hash table
daa-prime-trainer = "0.2.1"     # Distributed training nodes
daa-prime-coordinator = "0.2.1" # ML coordination layer
daa-prime-cli = "0.2.1"         # Command-line tools

💻 Your First Autonomous Agent

Create a simple treasury management agent in just a few lines:

use daa_orchestrator::{DaaOrchestrator, OrchestratorConfig};
use daa_rules::Rule;
use daa_economy::TokenManager;
use std::time::Duration;

#[tokio::main]
async fn main() -> Result<(), Box<dyn std::error::Error>> {
    // 1. Configure your agent
    let config = OrchestratorConfig {
        agent_name: "TreasuryBot".to_string(),
        autonomy_interval: Duration::from_secs(60),
        ..Default::default()
    };
    
    // 2. Create orchestrator with built-in capabilities
    let mut agent = DaaOrchestrator::new(config).await?;
    
    // 3. Add governance rules
    agent.rules_engine()
        .add_rule("max_daily_spend", 10_000)?
        .add_rule("risk_threshold", 0.2)?;
    
    // 4. Start autonomous operation
    println!("🚀 Starting autonomous treasury agent...");
    agent.run_autonomy_loop().await?;
    
    Ok(())
}

🤖 Your First Distributed ML Node

Launch a distributed ML training node:

use daa_prime_trainer::{TrainerNode, TrainingConfig};
use daa_prime_coordinator::{CoordinatorNode, CoordinatorConfig};

#[tokio::main]
async fn main() -> Result<(), Box<dyn std::error::Error>> {
    // Start a coordinator node
    let coordinator = CoordinatorNode::new(
        "coordinator-001".to_string(),
        CoordinatorConfig::default()
    ).await?;
    
    // Start trainer nodes
    let trainer = TrainerNode::new("trainer-001".to_string()).await?;
    
    // Begin distributed training
    trainer.start_training().await?;
    
    Ok(())
}

That's it! Your distributed ML system will now:

  • ✅ Coordinate training across multiple nodes
  • ✅ Share gradients via DHT
  • ✅ Aggregate updates with Byzantine fault tolerance
  • ✅ Reward quality contributions with tokens
  • ✅ Adapt to node failures automatically

🏆 Key Features & Benefits

🤖 Complete Autonomy Loop (MRAP)

  • Monitor: Real-time environment scanning and data collection
  • Reason: AI-powered analysis and decision planning
  • Act: Autonomous execution of planned actions
  • Reflect: Performance analysis and outcome evaluation
  • Adapt: Strategy refinement and parameter optimization

🚀 Distributed Machine Learning (Prime)

  • Federated Learning: Train models across distributed nodes
  • Byzantine Fault Tolerance: Robust against malicious nodes
  • Gradient Aggregation: Secure multi-party computation
  • Model Versioning: Distributed model management via DHT
  • Incentivized Training: Token rewards for quality contributions

💰 Built-in Economic Engine

// Agents can manage their own economics
let mut economy = TokenManager::new("rUv").await?;
economy.allocate_budget("operations", 50_000)?;
economy.set_auto_rebalancing(true)?;

// Reward ML training contributions
economy.reward_gradient_quality(node_id, quality_score).await?;

🧠 Advanced AI Integration

// Claude AI integration for intelligent decisions
let decision = agent.ai()
    .analyze_situation("Market volatility detected")
    .with_context(&market_data)
    .get_recommendation().await?;
    
// AI-guided distributed training
let training_plan = agent.ai()
    .optimize_training_strategy(&model_metrics)
    .await?;

🔒 Quantum-Resistant Security

  • ML-DSA digital signatures (quantum-resistant)
  • ML-KEM encryption for secure communications
  • HQC code-based cryptography for backup keys
  • Zero-trust architecture with full audit trails
  • Secure multi-party computation for gradients

⚖️ Flexible Rule Engine

// Define custom governance rules
agent.rules()
    .add_rule("training_hours", |ctx| {
        ctx.current_time().hour() >= 9 && ctx.current_time().hour() <= 17
    })?
    .add_rule("max_gradient_norm", |ctx| {
        ctx.gradient_norm() <= 10.0  // Prevent gradient explosion
    })?;

🌐 Decentralized Infrastructure

  • P2P networking without central servers
  • .dark domains for anonymous agent discovery
  • QuDAG protocol for secure peer-to-peer communication
  • Onion routing for privacy protection
  • Kademlia DHT for distributed storage

🎯 Swarm Intelligence

  • Multi-agent coordination protocols
  • Collective decision making algorithms
  • Emergent behavior patterns
  • Swarm optimization techniques
  • Distributed consensus mechanisms

🛠️ Architecture

The DAA SDK is built with a modular architecture for maximum flexibility:

📦 DAA SDK Complete Architecture
├── 🎛️  daa-orchestrator     # Core coordination & autonomy loop
├── ⛓️  daa-chain           # Blockchain abstraction layer  
├── 💰 daa-economy          # Economic engine & token management
├── ⚖️  daa-rules           # Rule engine & governance system
├── 🧠 daa-ai               # AI integration & MCP client
├── 💻 daa-compute          # Distributed compute infrastructure
├── 🐝 daa-swarm            # Swarm coordination protocols
├── 🖥️  daa-cli             # Command-line interface & tools
│
└── 🚀 Prime ML Framework
    ├── 📋 daa-prime-core        # Core types & protocols
    ├── 🗄️  daa-prime-dht         # Distributed hash table
    ├── 🏋️  daa-prime-trainer     # Training nodes
    ├── 🎯 daa-prime-coordinator # Coordination layer
    └── 🔧 daa-prime-cli         # CLI tools

🔄 Autonomy Loop Flow

graph LR
    A[Monitor] --> B[Reason]
    B --> C[Act]
    C --> D[Reflect]
    D --> E[Adapt]
    E --> A
    
    A -.-> F[Environment Data]
    B -.-> G[AI Analysis]
    C -.-> H[Blockchain Execution]
    D -.-> I[Performance Metrics]
    E -.-> J[Strategy Updates]
    
    K[ML Training] --> L[Gradient Sharing]
    L --> M[Aggregation]
    M --> N[Model Update]
    N --> K
    
    C -.-> K
    N -.-> D

🎯 Use Cases & Examples

🏦 Treasury Management Agent

Autonomous management of organizational treasuries with risk controls:

use daa_orchestrator::prelude::*;

let treasury_agent = DaaOrchestrator::builder()
    .with_role("treasury_manager")
    .with_rules([
        "max_daily_spend: 100000",
        "diversification_min: 0.1", 
        "risk_score_max: 0.3"
    ])
    .with_ai_advisor("claude-3-sonnet")
    .build().await?;

treasury_agent.start().await?;

🧠 Distributed AI Model Training

Train large models across distribut

Related Skills

View on GitHub
GitHub Stars230
CategoryDevelopment
Updated4h ago
Forks40

Languages

Rust

Security Score

80/100

Audited on Apr 2, 2026

No findings