distributed-systems

Coordinates ROS2 multi-robot systems with NATS messaging and Temporal workflows.

Updated Jan 12, 2026
One-click install
npx skills add https://github.com/FlexNetOS/ripple-env --skill distributed-systems-flexnetos
Or copy as Structured Prompt for Agent
Please help me install this Agent Skill.
Skill: distributed-systems
Source: https://github.com/FlexNetOS/ripple-env/tree/main/.claude/skills/distributed-systems
Command: npx skills add https://github.com/FlexNetOS/ripple-env --skill distributed-systems-flexnetos

SYSTEM DOCUMENTATION & REQUIREMENTS

What problem does it solve?

Orchestrates reliable messaging, coordination, and workflow management across multi-robot and microservices environments using distributed systems primitives like NATS and Temporal.

Core Features & Use Cases

  • NATS-based messaging for high-throughput, resilient pub/sub across robot fleets.
  • Temporal workflows for durable, stateful task orchestration spanning robots and services.
  • libp2p networking integration for peer-to-peer coordination in dynamic networks.
  • Use Case: Coordinate a fleet of drones where coordination messages, telemetry, and task assignments are reliably delivered and recovered after failures.

Quick Start

Set up a local development environment with NATS and Temporal to run and test a multi-robot workflow.

Frequently Asked Questions about distributed-systems

High-intent search queries and answers about installing and using this skill.

FAQPage Schema
How do I coordinate multi-robot fleets using ROS2 and NATS messaging?

Multi-robot ROS2 fleet coordination uses NATS-based messaging for high-throughput, resilient pub/sub communication. This ensures coordination messages, telemetry, and task assignments are reliably delivered across robots and recovered after network failures.

Can I use Temporal workflows for durable task orchestration in distributed robotics?

Temporal workflows provide durable, stateful task orchestration for distributed robotics, spanning multiple robots and modular services. This enables reliable execution and automatic recovery of complex, long-running multi-robot tasks even during system interruptions.

What's the best way to set up local development for distributed robotics orchestration?

Local development for distributed robotics orchestration requires setting up a local environment with both NATS and Temporal. This configuration allows developers to run and test multi-robot workflows reliably before deploying to cloud-native production infrastructure.

Does distributed robotics orchestration support peer-to-peer networking in dynamic environments?

Distributed robotics orchestration supports peer-to-peer networking in dynamic environments through libp2p integration. This enables decentralized, direct robot-to-robot coordination without relying solely on centralized cloud servers or fixed network topologies.

Why do I need both NATS and Temporal for cloud-native robotics deployments?

Cloud-native robotics deployments need NATS for resilient, high-throughput messaging and Temporal for durable, stateful workflow management. Together, they ensure reliable message delivery and robust task recovery across modular robot services during infrastructure failures.

Are there limitations when using temporalite for multi-robot workflow orchestration?

Temporalite provides lightweight Temporal workflow support for development and testing of multi-robot orchestration. While suitable for local validation, production-scale cloud-native robotics deployments may require full Temporal server infrastructure for maximum durability and throughput.