golang-samber-ro

Manage asynchronous streams and backpressure with typed Go pipelines.

5|1|Updated Apr 14, 2026
One-click install
npx skills add https://github.com/omarluq/og-template --skill golang-samber-ro-omarluq
Or copy as Structured Prompt for Agent
Please help me install this Agent Skill.
Skill: golang-samber-ro
Source: https://github.com/omarluq/og-template/tree/main/.agents/skills/golang-samber-ro
Command: npx skills add https://github.com/omarluq/og-template --skill golang-samber-ro-omarluq

SYSTEM DOCUMENTATION & REQUIREMENTS

What problem does it solve?

Go developers need a scalable, declarative way to manage asynchronous streams and backpressure without manual goroutines.

Core Features & Use Cases

  • Typed pipelines with Pipe2..Pipe25 for compile-time safety.
  • Hot vs cold observables and Subjects (Publish, Behavior, Replay, Async, Unicast) for flexible sharing.
  • A comprehensive operator catalog (creation, transformation, filtering, combining, timing, buffering, error handling, and side-effects) with context propagation and pattern guidance.
  • Plugin and pattern ecosystem references to integrate common data sources and observability.

Quick Start

Create a simple observable using ro.Just(1,2,3), pipe a Map/Filter, then Subscribe to observe results.

Frequently Asked Questions about golang-samber-ro

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

FAQPage Schema
How do I build reactive pipelines in Go without manually managing goroutines?

You can build reactive pipelines in Go using declarative asynchronous streams that handle backpressure automatically. This approach enforces typed pipelines, contextual execution, and error handling without manual goroutine management.

What are hot and cold observables in Go stream processing?

Hot and cold observables represent different stream sharing strategies in Go. Subjects like Publish, Behavior, Replay, Async, and Unicast provide flexible sharing mechanisms for real-time data and event-driven pipelines across large systems.

How do I ensure compile-time type safety for Go pipeline transformations?

Compile-time type safety for Go pipeline transformations is ensured using typed pipelines like Pipe2 through Pipe25. This prevents type mismatches early, securing data flow across transformation, filtering, and combining operators.

Can I handle backpressure in event-driven Go systems with this approach?

Yes, backpressure in event-driven Go systems is handled natively. The declarative stream approach covers real-time data processing with a comprehensive operator suite for buffering, timing, and contextual execution.

What is the best way to start creating a simple observable stream in Go?

The best way to start creating a simple observable stream in Go is using ro.Just with initial values, piping through Map or Filter operators, then subscribing to observe the results declaratively.

When should I avoid declarative reactive streams in Go?

You should avoid declarative reactive streams in Go when simple sequential processing suffices without asynchronous data or event-driven complexity. Overhead from operator suites and backpressure management may be unnecessary for basic tasks.