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implementing-api-patterns

@ancoleman · 收录于 1 周前

API design and implementation across REST, GraphQL, gRPC, and tRPC patterns. Use when building backend services, public APIs, or service-to-service communication. Covers REST frameworks (FastAPI, Axum, Gin, Hono), GraphQL libraries (Strawberry, async-graphql, gqlgen, Pothos), gRPC (Tonic, Connect-Go), tRPC for TypeScript, pagination strategies (cursor-based, offset-based), rate limiting, caching, versioning, and OpenAPI documentation generation. Includes frontend integration patterns for forms, tables, dashboards, and ai-chat skills.

适合你,如果你需要构建或集成后端 API,涉及多种协议和框架

/ 下载安装
implementing-api-patterns.skill双击,或拖进 Claude 桌面版 / Cowork,即完成安装↓ .skill↓ .zip
用别的 agent?下载 .zip 解压,把文件夹放进它的技能目录
Claude Code~/.claude/skills/(项目级 .claude/skills/)
Codex CLI~/.codex/skills/
Cursor自动读取上面两处目录
其他工具见其文档的「skills」目录;两个下载是同一份文件,只是名字不同
/ 通过 npx 安装 校验哈希
npx oh-my-skill add ancoleman/ai-design-components/implementing-api-patterns
/ 通过 bash 安装
curl -fsSL https://oh-my-skill.com/install.sh | bash -s -- ancoleman/ai-design-components/implementing-api-patterns
/ 已经装过?验证本机副本,不用重装
npx oh-my-skill verify ancoleman/ai-design-components/implementing-api-patterns
安装目标可用 --agent / --scope 或 --to 明确指定;省略时只会在唯一已存在的 agent 目录上自动选择,零命中或多命中会停止并提示。content_hash 缺失或不一致均拒装。
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怎么用

技能原文 SKILL.md作者撰写 · MIT · 76551b7

API Patterns Skill

Purpose

Design and implement APIs using the optimal pattern and framework for the use case. Choose between REST, GraphQL, gRPC, and tRPC based on API consumers, performance requirements, and type safety needs.

When to Use This Skill

Use when:

  • Building backend APIs for web, mobile, or service consumers
  • Connecting frontend components (forms, tables, dashboards) to databases
  • Implementing pagination, rate limiting, or caching strategies
  • Generating OpenAPI documentation automatically
  • Choosing between REST, GraphQL, gRPC, or tRPC patterns
  • Integrating authentication and authorization
  • Optimizing API performance and scalability
Quick Decision Framework
WHO CONSUMES YOUR API?
├─ PUBLIC/THIRD-PARTY DEVELOPERS → REST with OpenAPI
│  ├─ Python → FastAPI (auto-docs, 40k req/s)
│  ├─ TypeScript → Hono (edge-first, 50k req/s, 14KB)
│  ├─ Rust → Axum (140k req/s, <1ms latency)
│  └─ Go → Gin (100k+ req/s, mature ecosystem)
│
├─ FRONTEND TEAM (same org)
│  ├─ TypeScript full-stack? → tRPC (E2E type safety)
│  └─ Complex data needs? → GraphQL
│      ├─ Python → Strawberry
│      ├─ Rust → async-graphql
│      ├─ Go → gqlgen
│      └─ TypeScript → Pothos
│
├─ SERVICE-TO-SERVICE (microservices)
│  └─ High performance → gRPC
│      ├─ Rust → Tonic
│      ├─ Go → Connect-Go (browser-friendly)
│      └─ Python → grpcio
│
└─ MOBILE APPS
   ├─ Bandwidth constrained → GraphQL (request only needed fields)
   └─ Simple CRUD → REST (standard, well-understood)
REST Framework Selection
Python: FastAPI (Recommended)

Key Features: Auto OpenAPI docs, Pydantic v2 validation, async/await, 40k req/s

Basic Example:

from fastapi import FastAPI
from pydantic import BaseModel

app = FastAPI()

class Item(BaseModel):
    name: str
    price: float

@app.post("/items")
async def create_item(item: Item):
    return {"id": 1, **item.dict()}

See references/rest-design-principles.md for FastAPI patterns and examples/python-fastapi/.

TypeScript: Hono (Edge-First)

Key Features: 14KB bundle, runs on any runtime (Node/Deno/Bun/edge), Zod validation, 50k req/s

Basic Example:

import { Hono } from 'hono'
import { zValidator } from '@hono/zod-validator'
import { z } from 'zod'

const app = new Hono()
app.post('/items', zValidator('json', z.object({
  name: z.string(), price: z.number()
})), (c) => c.json({ id: 1, ...c.req.valid('json') }))

See references/rest-design-principles.md for Hono patterns and examples/typescript-hono/.

TypeScript: tRPC (Full-Stack Type Safety)

Key Features: Zero codegen, E2E type safety, React Query integration, WebSocket subscriptions

Basic Example:

import { initTRPC } from '@trpc/server'
import { z } from 'zod'

const t = initTRPC.create()
export const appRouter = t.router({
  createItem: t.procedure
    .input(z.object({ name: z.string(), price: z.number() }))
    .mutation(({ input }) => ({ id: '1', ...input }))
})
export type AppRouter = typeof appRouter

See references/trpc-setup-guide.md for setup patterns and examples/typescript-trpc/.

Rust: Axum (High Performance)

Key Features: Tower middleware, type-safe extractors, 140k req/s, compile-time verification

Basic Example:

use axum::{routing::post, Json, Router};
use serde::{Deserialize, Serialize};

#[derive(Deserialize)]
struct CreateItem { name: String, price: f64 }

#[derive(Serialize)]
struct Item { id: u64, name: String, price: f64 }

async fn create_item(Json(payload): Json<CreateItem>) -> Json<Item> {
    Json(Item { id: 1, name: payload.name, price: payload.price })
}

See references/rest-design-principles.md for Axum patterns and examples/rust-axum/.

Go: Gin (Mature Ecosystem)

Key Features: Largest Go ecosystem, 100k+ req/s, struct tag validation

Basic Example:

type Item struct {
    Name  string  `json:"name" binding:"required"`
    Price float64 `json:"price" binding:"required,gt=0"`
}

r := gin.Default()
r.POST("/items", func(c *gin.Context) {
    var item Item
    if c.ShouldBindJSON(&item); err != nil {
        c.JSON(400, gin.H{"error": err.Error()}); return
    }
    c.JSON(201, item)
})

See references/rest-design-principles.md for Gin patterns and examples/go-gin/.

Performance Benchmarks

| Language | Framework | Req/s | Latency | Cold Start | Memory | Best For | |----------|-----------|-------|---------|------------|--------|----------| | Rust | Actix-web | ~150k | <1ms | N/A | 2-5MB | Maximum throughput | | Rust | Axum | ~140k | <1ms | N/A | 2-5MB | Ergonomics + performance | | Go | Gin | ~100k+ | 1-2ms | N/A | 5-10MB | Mature ecosystem | | TypeScript | Hono | ~50k | <5ms | <5ms | 128MB | Edge deployment | | Python | FastAPI | ~40k | 5-10ms | 1-2s | 30-50MB | Developer experience | | TypeScript | Express | ~15k | 10-20ms | 1-3s | 50-100MB | Legacy systems |

Notes:

  • Benchmarks assume single-core, JSON responses
  • Actual performance varies with workload complexity
  • Cold start only applies to serverless/edge deployments
Pagination Strategies
Cursor-Based (Recommended)

Advantages: Handles real-time changes, no skipped/duplicate records, scales to billions

FastAPI Example:

@app.get("/items")
async def list_items(cursor: Optional[str] = None, limit: int = 20):
    query = db.query(Item).filter(Item.id > cursor) if cursor else db.query(Item)
    items = query.limit(limit).all()
    return {
        "items": items,
        "next_cursor": items[-1].id if items else None,
        "has_more": len(items) == limit
    }
Offset-Based (Simple Cases Only)

Use only for static datasets (<10k records) with direct page access needs.

See references/pagination-patterns.md for complete patterns and frontend integration.

OpenAPI Documentation

| Framework | OpenAPI Support | Docs UI | Configuration | |-----------|----------------|---------|---------------| | FastAPI | Automatic | Swagger UI + ReDoc | Built-in | | Hono | Middleware plugin | Swagger UI | @hono/swagger-ui | | Axum | utoipa crate | Swagger UI | Manual annotations | | Gin | swaggo/swag | Swagger UI | Comment annotations |

FastAPI Example (Zero Config):

app = FastAPI(title="My API", version="1.0.0")

@app.post("/items", tags=["items"])
async def create_item(item: Item) -> Item:
    """Create item with name and price"""
    return item
# Docs at /docs, /redoc, /openapi.json

See references/openapi-documentation.md for framework-specific setup. Use scripts/generate_openapi.py to extract specs programmatically.

Frontend Integration Patterns
Forms → REST POST/PUT

Backend:

class UserCreate(BaseModel):
    email: EmailStr; name: str; age: int

@app.post("/api/users", status_code=201)
async def create_user(user: UserCreate):
    return {"id": 1, **user.dict()}

Frontend:

const res = await fetch('/api/users', {
  method: 'POST',
  headers: { 'Content-Type': 'application/json' },
  body: JSON.stringify(data)
})
if (!res.ok) throw new Error((await res.json()).detail)
Tables → GET with Pagination

See cursor pagination example above and references/pagination-patterns.md.

AI Chat → SSE Streaming

Backend:

from sse_starlette.sse import EventSourceResponse

@app.post("/api/chat")
async def chat(message: str):
    async def gen():
        for chunk in llm_stream(message):
            yield {"event": "message", "data": chunk}
    return EventSourceResponse(gen())

Frontend:

const es = new EventSource('/api/chat')
es.addEventListener('message', (e) => appendToChat(e.data))

See examples/ for complete integration examples with each frontend skill.

Rate Limiting

FastAPI Example (Token Bucket):

from slowapi import Limiter
from slowapi.util import get_remote_address

limiter = Limiter(key_func=get_remote_address)
app.state.limiter = limiter

@app.get("/items")
@limiter.limit("100/minute")
async def list_items():
    return {"items": []}

See references/rate-limiting-strategies.md for sliding window, distributed patterns, and Redis implementation.

GraphQL Libraries

Use when frontend needs flexible data fetching or mobile apps have bandwidth constraints.

By Language:

  • Python: Strawberry 0.287 (type-hint-based, async)
  • Rust: async-graphql (high performance, tokio)
  • Go: gqlgen (code generation from schema)
  • TypeScript: Pothos (type-safe builder, no codegen)

See references/graphql-schema-design.md for schema patterns and N+1 prevention. See examples/graphql-strawberry/ for complete Python example.

gRPC for Microservices

Use for service-to-service communication with strong typing and high performance.

By Language:

  • Rust: Tonic (async, type-safe, code generation)
  • Go: Connect-Go (gRPC-compatible + browser-friendly)
  • Python: grpcio (official implementation)
  • TypeScript: @connectrpc/connect (browser + Node.js)

See references/grpc-protobuf-guide.md for Protocol Buffers guide. See examples/grpc-tonic/ for complete Rust example.

Additional Resources
References
  • references/rest-design-principles.md - REST resource modeling, HTTP methods, status codes
  • references/graphql-schema-design.md - Schema patterns, resolver optimization, N+1 prevention
  • references/grpc-protobuf-guide.md - Proto3 syntax, service definitions, streaming
  • references/trpc-setup-guide.md - Router patterns, middleware, Zod validation
  • references/pagination-patterns.md - Cursor vs offset with mathematical explanation
  • references/rate-limiting-strategies.md - Token bucket, sliding window, Redis
  • references/caching-patterns.md - HTTP caching, application caching strategies
  • references/versioning-strategies.md - URI, header, media type versioning
  • references/openapi-documentation.md - Swagger/OpenAPI best practices by framework
Scripts (Token-Free Execution)
  • scripts/generate_openapi.py - Generate OpenAPI spec from code
  • scripts/validate_api_spec.py - Validate OpenAPI 3.1 compliance
  • scripts/benchmark_endpoints.py - Load test API endpoints
Examples
  • examples/python-fastapi/ - Complete FastAPI REST API
  • examples/typescript-hono/ - Hono edge-first API
  • examples/typescript-trpc/ - tRPC E2E type-safe API
  • examples/rust-axum/ - Axum REST API
  • examples/go-gin/ - Gin REST API
  • examples/graphql-strawberry/ - Python GraphQL
  • examples/grpc-tonic/ - Rust gRPC
Quick Reference

Choose REST when: Public API, standard CRUD, need caching, OpenAPI docs required Choose GraphQL when: Frontend needs flexible queries, mobile bandwidth constraints, complex nested data Choose gRPC when: Service-to-service communication, high performance, bidirectional streaming Choose tRPC when: TypeScript full-stack, same team owns frontend + backend, E2E type safety

Pagination: Always use cursor-based for production scale, offset-based only for simple cases Documentation: Prefer frameworks with automatic OpenAPI generation (FastAPI, Hono) Performance: Rust (Axum) for max throughput, Go (Gin) for maturity, Python (FastAPI) for DX

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