Design Integration

Overview

Designs a complete Uniswap integration architecture for any project by delegating to the integration-architect agent. Produces a comprehensive blueprint covering: integration method recommendation (Trading API vs Universal Router SDK vs direct contract vs V4 hooks), component architecture, dependency list with versions, security review with mitigations, and ordered implementation plan.

When to Use

Activate when the user asks:

• "Help me integrate Uniswap"
• "Design a swap integration"
• "Architecture for a DEX aggregator"
• "How to build an arbitrage bot"
• "Uniswap integration plan"
• "How should I add swaps to my dApp?"
• "Best way to integrate Uniswap in my backend"
• "Architecture for a DeFi protocol that uses Uniswap"
• "What SDK should I use for Uniswap?"

Parameters

Workflow

1. Extract parameters from the user's request: identify the project type, required functionality, target environment, chains, and scale requirements. If the user has an existing codebase, note it for the agent to analyze.

2. Delegate to integration-architect: Invoke Task(subagent_type:integration-architect) with the full context. The integration-architect will:

   • Understand the project context and requirements
   • Evaluate integration methods and recommend primary + fallback
   • Design the component architecture with data flow
   • Identify all dependencies (NPM packages, APIs, infrastructure)
   • Perform a security review with attack vectors and mitigations
   • Produce an ordered implementation plan with effort estimates

3. Present the blueprint to the user covering:

   • Integration method recommendation with clear rationale
   • Architecture overview (components, data flow, error handling)
   • Complete dependency list with versions and purposes
   • Security considerations with specific mitigations
   • Step-by-step implementation order with effort estimates
   • Overall complexity assessment

Output Format

Present a structured integration blueprint:

Integration Blueprint: DeFi Dashboard with Swap (Ethereum + Base)

  Recommended Method: Trading API (primary), Universal Router SDK (fallback)
  Rationale: Trading API provides optimized routing with minimal frontend
             complexity. Fallback to SDK for advanced use cases or API downtime.

  Architecture:
    User -> QuoteService -> ApprovalManager -> SwapExecutor -> Wallet -> Chain
    
    Components:
      QuoteService:      Fetches and caches quotes from Trading API
      ApprovalManager:   Manages Permit2 approvals and allowances
      SwapExecutor:      Constructs and submits swap transactions
      ChainManager:      Multi-chain config and RPC connections

  Dependencies:
    @uniswap/sdk-core    ^5.8.0    Token and price primitives
    viem                 ^2.21.0   Ethereum client
    wagmi                ^2.14.0   React wallet hooks
    @tanstack/react-query ^5.0.0   Data fetching and caching

  Security:
    - Stale quotes: Refresh every 15s, enforce deadline (block.timestamp + 300s)
    - Approvals: Permit2 with exact amounts and 30-min expiry
    - Key management: wagmi wallet connection only, never handle keys

  Implementation Order:
    1. Wallet connection (wagmi)           — 1 day
    2. Chain configuration                 — 0.5 days
    3. Quote fetching service              — 1 day
    4. Permit2 approval flow               — 1 day
    5. Swap execution and tracking         — 1.5 days
    6. Error handling and retry logic      — 1 day

  Complexity: Medium

Important Notes

• This skill delegates entirely to the integration-architect agent -- it does not call MCP tools directly.
• The blueprint is tailored to the specific project type and requirements -- not a generic template.
• For existing codebases, the agent will analyze the current code and recommend integration patterns that fit the existing architecture.
• The implementation order considers dependencies between components -- follow the order for smoothest development.
• Always uses viem (not ethers.js) and Permit2 (not legacy approve) per project conventions.

Error Handling