Baran OS

A coordination runtime for networks of autonomous agents — AI, sensors, humans, or anything that can emit and receive events.

"Baran designed networks where no single node is indispensable. This runtime inherits that principle."

Why Baran

The Name

Paul Baran invented the concept of distributed, survivable networks — networks where no single point of failure can bring down the whole. Baran OS inherits that principle: agents connect, disconnect, and fail independently. The network adapts.

The Problem

Coordinating multiple autonomous agents — AI, sensors, humans, rule engines — is hard. Developers build coordination from scratch for every project, or use frameworks designed to orchestrate LLM chains within a single process. Neither scales to heterogeneous, independent agents across networks.

The Difference

Tools like LangGraph and CrewAI orchestrate LLM workflows in-process. Baran OS is infrastructure for coordinating independent agents across networks. Those tools can run inside Baran agents. Baran is the coordination layer underneath — complementary, not competing.

Vision

We're building toward a future where networks of agents — AI, sensors, humans, legacy systems — self-discover, self-organize, and coordinate autonomously.

Self-Discovering Networks

Agents announce their capabilities and discover each other dynamically. No manual wiring, no static configuration. New agents join the network and become available immediately.

Humans as Validators

Humans participate as decision-makers when needed — approving plans, resolving conflicts, validating outputs — not as operators manually connecting systems together.

Decentralization First

Auto-discovery and self-management are first-class capabilities, not afterthoughts. Each node operates autonomously and can function independently when disconnected.

Federation

Independent networks collaborate across organizational and geographic boundaries. A community node handles local events; when capacity is exceeded, it relays to regional or national networks.

Use Cases

Emergency Management

A sensor detects a wildfire, an AI agent estimates risk, a rule-based agent allocates resources, a human approves the evacuation plan. Each agent contributes its specialty. With federation, community and provincial networks coordinate hierarchically.

Autonomous Coding

A planner breaks down the task, a coder writes the implementation, a reviewer checks for issues, a tester validates the result. Each agent can use a different LLM or strategy, coordinated as workflow steps with result chaining.

Agent Swarms

Dozens of agents with different capabilities register dynamically, discover each other through the capability registry, and self-organize into workflows. Broadcast routing and capability-based discovery provide the infrastructure swarms need.

AI Meets Traditional Systems

Mix LLM-based agents with rule engines, sensor feeds, legacy services, and human decision points — all speaking the same event protocol. An IoT sensor triggers a workflow, an AI analyzes data, a heuristic applies business rules, a human makes the final call.

Architecture

Agents connect to the runtime, register their capabilities, and receive workflow steps matched to those capabilities. The runtime handles routing, sequencing, state, health monitoring, and failure detection.

Baran OS Architecture — Runtime with Router, Workflow Engine, and Capability Discovery connected through Event Bus (NATS JetStream) to external agents

Core Principles

1

Agents Are External Processes

Bring your own language, framework, and logic. Baran only coordinates.

2

Event Bus Communication

All communication flows through the event bus. No direct agent-to-agent calls. Observable, auditable, resilient.

3

Immutable Events, Stateless Agents

The runtime owns all state. Agents are disposable and horizontally scalable.

4

Typed Protocol

Protobuf-defined events with strict payload typing. No stringly-typed chaos.