cva-patterns-workflows

Orchestrate multi-agent workflows with retries, circuit breakers, and monitoring.

Updated Aug 27, 2026
One-click install
npx skills add https://github.com/joaopelegrino/hello-word-closure --skill cva-patterns-workflows
Or copy as Structured Prompt for Agent
Please help me install this Agent Skill.
Skill: cva-patterns-workflows
Source: https://github.com/joaopelegrino/hello-word-closure/tree/main/.claude-plugin/clojure-vertex-adk/skills/cva-patterns-workflows
Command: npx skills add https://github.com/joaopelegrino/hello-word-closure --skill cva-patterns-workflows

SYSTEM DOCUMENTATION & REQUIREMENTS

What problem does it solve?

Orchestrating multiple AI agents into reliable, performant, and observable production systems can be complex. This Skill provides robust patterns to tackle topology design (sequential, parallel, DAG), state management (stateless, stateful, hybrid), and reliability (retries, fallbacks, monitoring), ensuring your multi-agent systems deliver consistent results.

Core Features & Use Cases

  • Topology Design: Implement sequential, parallel, or Directed Acyclic Graph (DAG) workflows for optimal agent connection and dependency management.
  • State Management: Handle intermediate results and failures with stateless, stateful, or hybrid approaches, enabling pipeline recovery and data consistency.
  • Reliability & Performance: Incorporate advanced error handling (retries, circuit breakers) and comprehensive monitoring to ensure robustness and optimize latency (e.g., 32% reduction with parallelization).
  • Use Case: Design a healthcare pipeline that processes patient data through multiple AI agents, ensuring LGPD compliance, scientific validation, and SEO optimization, achieving 99.4% latency reduction and 92.4% cost reduction.

Quick Start

Design a multi-agent system for content generation. Start with a sequential flow, then identify independent steps for parallelization. Implement state management for expensive agents and add error handling.

Frequently Asked Questions about cva-patterns-workflows

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

FAQPage Schema
How do I orchestrate multiple AI agents into a production workflow?

Multi-agent orchestration connects 3+ agents through topology patterns—sequential, parallel, or DAG—with state management (stateless, stateful, or hybrid) and reliability features like retries with exponential backoff and circuit breakers for external APIs, ensuring consistent results across Clojure and Vertex AI environments.

What's the best way to design parallel agent workflows to reduce latency?

Parallel topology design identifies independent agent steps and executes them concurrently rather than sequentially, achieving significant latency reduction—demonstrated by 32% improvement—while managing intermediate state and coordinating results across the workflow.

How do I add error handling and monitoring to multi-agent pipelines?

Error handling combines per-system retries with exponential backoff and circuit breakers for external APIs, while monitoring captures latency, cost, and tokens-per-agent metrics to optimize performance and detect failures before they propagate through the pipeline.

Can I use Vertex AI and Clojure together for building agent workflows?

Yes, this Skill applies to Clojure and Vertex AI environments specifically, supporting all topology and state management patterns with functional requirements for retry logic, fallbacks, and observability across your multi-agent system.

Do I need to choose between stateless, stateful, or hybrid state management for agents?

State management strategy depends on your pipeline's needs: stateless minimizes complexity, stateful preserves intermediate results for recovery, and hybrid balances both—the Skill supports all three approaches for different reliability and performance trade-offs.

What happens when an external API fails in a multi-agent workflow?

Circuit breakers prevent cascading failures by stopping requests to failing APIs, while exponential backoff retries give services time to recover; optional fallbacks route work to alternative agents, ensuring the pipeline degrades gracefully rather than halting.