orchestration

Orchestrate Ethereum dApp delivery from contract deployment to production hosting.

1|Updated Apr 25, 2026
One-click install
npx skills add https://github.com/collat-labs/collat --skill orchestration-collat-labs
Or copy as Structured Prompt for Agent
Please help me install this Agent Skill.
Skill: orchestration
Source: https://github.com/collat-labs/collat/tree/main/.agents/skills/ethskills/orchestration
Command: npx skills add https://github.com/collat-labs/collat --skill orchestration-collat-labs

SYSTEM DOCUMENTATION & REQUIREMENTS

What problem does it solve?

It prevents teams from failing at Ethereum dApp delivery by enforcing the correct multi-phase workflow for contracts, frontend integration, and production deployment.

Core Features & Use Cases

  • Three-phase build system with validation gates: Contracts first (validated locally with a fork), then live-network deployment plus real wallet testing, then production deployment with final QA.
  • Scaffold-ETH 2 compliant setup: Ensures you follow SE2 conventions such as not editing auto-generated deployedContracts.ts and using Scaffold hooks instead of raw wagmi.
  • Safety and operational guardrails: Reduces common risks by instructing how to avoid leaking secrets, and by emphasizing verification, testing, and audit handoffs before frontend work.
  • Use case: When launching a new Ethereum dApp, you can reliably progress from local fork iteration to mainnet/L2 verification and a production frontend on IPFS/Vercel.

Quick Start

Use the orchestration skill to generate an Ethereum dApp build plan that follows Contracts → Frontend → Production, validates each phase, and includes secret-safety checks before deployment.

Frequently Asked Questions about orchestration

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

FAQPage Schema
How do I deploy an Ethereum dApp from smart contract to frontend hosting?

To deploy an Ethereum dApp, follow a three-phase sequence: validate smart contracts locally via chain forking, deploy to target networks with verification, then deploy the frontend to IPFS or Vercel with final wallet QA.

What is the correct workflow for integrating a frontend with deployed Ethereum smart contracts?

Frontend integration with deployed Ethereum smart contracts requires using Scaffold-ETH 2 hooks and externalContracts separation instead of raw wagmi, ensuring you never edit the auto-generated deployedContracts.ts file.

Does Scaffold-ETH 2 work with a multi-phase smart contract deployment and QA process?

Yes, Scaffold-ETH 2 supports multi-phase deployment by enforcing validation gates where local fork iteration, live-network wallet testing, and production readiness checks must pass before advancing to the next phase.

Why should I avoid editing deployedContracts.ts when building an Ethereum dApp?

You should avoid editing deployedContracts.ts because it is auto-generated in Scaffold-ETH 2; modifying it breaks integration patterns and disrupts the contract-to-frontend data flow required for reliable dApp delivery.

What are the security guardrails for launching an Ethereum dApp to mainnet or L2?

Security guardrails for launching an Ethereum dApp include preventing secret leakage, completing contract verification, running full tests, and performing audit handoffs before starting any frontend integration work.

Can I test real wallet interactions before production IPFS deployment of my dApp?

Yes, you can test real wallet interactions before IPFS deployment during the live-network phase, which requires executing full user-flow QA on target networks prior to final production hosting.