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Crate ai_session

Crate ai_session 

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§AI-Optimized Terminal Session Management Library

ai-session provides an advanced session management system designed specifically for AI agents and modern development workflows. It offers features beyond traditional terminal multiplexers like tmux, with a focus on AI context management, multi-agent coordination, and intelligent output handling.

§Key Features

§🧠 AI-Optimized Session Management

  • Token-efficient context handling: Automatically manages conversation history with intelligent compression
  • Semantic output parsing: Understands command output types (build results, test outputs, error messages)
  • Context-aware suggestions: Provides intelligent next-action recommendations

§🤝 Multi-Agent Coordination

  • Message bus architecture: Enables seamless communication between AI agents
  • Task delegation: Intelligent workload distribution across specialized agents
  • Shared context: Cross-agent knowledge sharing for improved efficiency

§📊 Advanced Observability

  • Decision tracking: Records AI agent decision-making processes and outcomes
  • Performance profiling: Monitors resource usage and optimization opportunities
  • Anomaly detection: Identifies unusual patterns in agent behavior

§🔒 Security & Isolation

  • Capability-based security: Fine-grained access control for agent actions
  • Namespace isolation: Secure separation between different agent sessions
  • Rate limiting: Prevents resource abuse and ensures fair usage

§💾 Session Persistence

  • State snapshots: Save and restore session state for continuity
  • Command history: Complete audit trail of all executed commands
  • Compression: Efficient storage using zstd compression

§Quick Start

use ai_session::*;
use anyhow::Result;

#[tokio::main]
async fn main() -> Result<()> {
    // Create session manager
    let manager = SessionManager::new();
     
    // Configure session with AI features
    let mut config = SessionConfig::default();
    config.enable_ai_features = true;
    config.context_config.max_tokens = 4096;
     
    // Create and start session
    let session = manager.create_session_with_config(config).await?;
    session.start().await?;
     
    // Execute commands
    session.send_input("echo 'Hello AI Session!'\n").await?;
    let output = session.read_output().await?;
     
    println!("Output: {}", String::from_utf8_lossy(&output));
     
    // Clean up
    session.stop().await?;
    Ok(())
}

§Multi-Agent Example

use ai_session::*;
use ai_session::coordination::{MultiAgentSession, AgentId};
use anyhow::Result;
use std::sync::Arc;

#[tokio::main]
async fn main() -> Result<()> {
    let coordinator = Arc::new(MultiAgentSession::new());
    let manager = SessionManager::new();
     
    // Create specialized agents
    let mut frontend_config = SessionConfig::default();
    frontend_config.agent_role = Some("frontend".to_string());
    frontend_config.enable_ai_features = true;
     
    let frontend_session = manager.create_session_with_config(frontend_config).await?;
    let frontend_id = AgentId::new();
     
    coordinator.register_agent(frontend_id.clone(), frontend_session)?;
     
    // Agents can now coordinate through the message bus
    println!("Multi-agent system ready!");
     
    Ok(())
}

§Architecture Overview

The library is organized into several key modules:

  • core - Core session management and lifecycle
  • context - AI context and conversation history management
  • coordination - Multi-agent communication and task distribution
  • output - Intelligent output parsing and semantic analysis
  • [security] - Access control, isolation, and rate limiting
  • [observability] - Monitoring, decision tracking, and performance analysis
  • persistence - Session state storage and recovery
  • integration - Compatibility layers (tmux, VS Code, etc.)

§Performance Characteristics

  • Memory Efficient: Context compression reduces memory usage by ~70%
  • Context Optimized: Intelligent history management for efficient session handling
  • Low Latency: Message passing adds <100ms coordination overhead
  • Scalable: Supports 100+ concurrent agent sessions

§Compatibility

  • Cross-platform: Works on Linux, macOS, and Windows
  • tmux Compatible: Drop-in replacement with migration tools
  • IDE Integration: VS Code extension support built-in
  • CI/CD Ready: Designed for automated workflows

Re-exports§

pub use context::AgentState;
pub use context::Message as ContextMessage;
pub use context::MessageRole;
pub use context::SessionConfig as ContextSessionConfig;
pub use context::SessionContext;
pub use context::TaskContext;
pub use context::WorkspaceState;
pub use coordination::AgentId;
pub use coordination::AgentMessage;
pub use coordination::BroadcastMessage;
pub use coordination::Message as CoordinationMessage;
pub use coordination::MessageBus;
pub use coordination::MessagePriority;
pub use coordination::MessageType;
pub use coordination::MultiAgentSession;
pub use coordination::ResourceManager;
pub use coordination::Task;
pub use coordination::TaskDistributor;
pub use coordination::TaskId;
pub use coordination::TaskPriority;
pub use core::AISession;
pub use core::ContextConfig;
pub use core::SessionConfig;
pub use core::SessionError;
pub use core::SessionId;
pub use core::SessionResult;
pub use core::SessionStatus;
pub use core::pty::PtyHandle;
pub use output::OutputManager;
pub use output::OutputParser;
pub use output::ParsedOutput;
pub use crate::core::SessionManager;

Modules§

context
Session context management for AI agents
coordination
Multi-agent coordination functionality
core
Core session management functionality
integration
Integration layers for compatibility with existing systems
output
Intelligent output management for AI sessions
persistence
Session state persistence and recovery
session_persistence
Persistent session manager for the CLI

Structs§

SessionInfo
Session information (for listing sessions)

Constants§

VERSION
Library version

Functions§

init_logging
Initialize the logging system