resonate-advanced-reasoning

Translate Distributed Async Await concepts into Resonate TypeScript SDK patterns.

6|Updated Jan 8, 2026
One-click install
npx skills add https://github.com/resonatehq/resonate-skills --skill resonate-advanced-reasoning
Or copy as Structured Prompt for Agent
Please help me install this Agent Skill.
Skill: resonate-advanced-reasoning
Source: https://github.com/resonatehq/resonate-skills/tree/main/resonate-advanced-reasoning-typescript
Command: npx skills add https://github.com/resonatehq/resonate-skills --skill resonate-advanced-reasoning

SYSTEM DOCUMENTATION & REQUIREMENTS

What problem does it solve?

This Skill helps engineers translate the Distributed Async Await specification into concrete Resonate TypeScript SDK patterns, ensuring durable, replay-safe workflows and correct failure semantics when implementing multi-step, long-running processes.

Core Features & Use Cases

  • Spec-to-SDK mapping: Maps processes, executions, promises, addressing, and coordination primitives to concrete ctx.run, ctx.rpc, beginRun, and beginRpc usage.
  • Determinism & recovery guidance: Highlights deterministic coding practices, replay-safe side effects, and durable checkpoints to recover from crashes.
  • Idempotency & promise handling: Explains promise ID strategies, cached results vs new executions, and when to hand off between local and remote execution.
  • Use Case: Designing a resilient order-processing saga that spans local steps and remote workers, preserves idempotency, and safely resumes after failures.

Quick Start

Use this skill to map a Distributed Async Await workflow into Resonate TypeScript SDK patterns and verify deterministic, idempotent execution.

Frequently Asked Questions about resonate-advanced-reasoning

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

FAQPage Schema
How do I map async-await workflows to durable TypeScript patterns?

Durable TypeScript patterns map async-await workflows by translating distributed execution specs into Resonate SDK constructs like ctx.run and ctx.rpc. This ensures deterministic durable execution and correct failure semantics for long-running processes.

What is replay-safe side effect execution in durable functions?

Replay-safe side effect execution in durable functions ensures that operations like network calls only run once during recovery. The Resonate TypeScript SDK handles this by caching results and using durable checkpoints to prevent duplicate executions when resuming after crashes.

How do I ensure idempotency with promise IDs in TypeScript durable execution?

To ensure idempotency with promise IDs in TypeScript durable execution, you implement specific promise ID strategies that distinguish between cached results and new executions. This guarantees that multi-step workflows do not duplicate side effects during process recovery or cross-process coordination.

Does the Resonate TypeScript SDK support cross-process RPC coordination?

Yes, the Resonate TypeScript SDK supports cross-process RPC coordination through beginRpc semantics. It enables you to hand off between local and remote execution safely, satisfying requirements for serializable return values and durable promise-based coordination across distributed workers.

What's the best way to design a resilient order-processing saga in TypeScript?

The best way to design a resilient order-processing saga in TypeScript is using durable execution to span local steps and remote workers. By applying deterministic coding practices and idempotent promise IDs, the saga safely preserves state and resumes after failures.

Why does my durable workflow break determinism during crash recovery?

Durable workflows break determinism during crash recovery when side effects are not replay-safe or return values are non-serializable. Enforcing deterministic coding practices and using correct ctx.run semantics ensures durable checkpoints recover without invalid state.