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FastAPI-compatible web framework with Zig HTTP core — 20x faster with Python 3.14 free-threading

Project description

TurboAPI

PyPI version License Python 3.14+ Zig 0.15 Alpha Ask DeepWiki

TurboAPI

FastAPI-compatible Python framework. Zig HTTP core. Faster on HTTP-only and uncached HTTP+DB workloads.

Drop-in replacement · Zig-native validation · Zero-copy responses · Free-threading · dhi models

Status · Quick Start · Benchmarks · Architecture · Migrate · Why Python? · Observability · Contributing · Security


Status

Alpha software — read before using in production

TurboAPI works and has 275+ passing tests, but:

  • No TLS — put nginx or Caddy in front for HTTPS
  • No slow-loris protection — requires a reverse proxy with read timeouts
  • No configurable max body size — hardcoded 16MB cap
  • WebSocket support is in progress, not production-ready
  • HTTP/2 is not yet implemented
  • Free-threaded Python 3.14t is itself relatively new — some C extensions may not be thread-safe

See SECURITY.md for the full threat model and deployment recommendations.

What works today What's in progress
~140k req/s on uncached HTTP routes (~16x FastAPI) WebSocket support
FastAPI-compatible route decorators HTTP/2 and TLS
Zig HTTP server with 24-thread pool + keep-alive Cloudflare Workers WASM target
Zig-native JSON schema validation (dhi) Fiber-based concurrency (via zag)
Zero-alloc response pipeline (stack buffers)
Zig-native CORS (0% overhead, pre-rendered headers)
Response caching for noargs handlers
Static routes (pre-rendered at startup)
Async handler support
Full security stack (OAuth2, Bearer, API Key)
Python 3.14t free-threaded support
Native FFI handlers (C/Zig, no Python at all)
Fuzz-tested HTTP parser, router, validator

⚡ Quick Start

Requirements: Python 3.14+ free-threaded (3.14t), Zig 0.15+

Option 1: Docker (easiest)

git clone https://github.com/justrach/turboAPI.git
cd turboAPI
docker compose up

This builds Python 3.14t from source, compiles the Zig backend, and runs the example app. Hit http://localhost:8000 to verify.

Option 2: Local install

# Install free-threaded Python
uv python install 3.14t

# Install turboapi
pip install turboapi

# Or build from source (see below)
from turboapi import TurboAPI
from dhi import BaseModel

app = TurboAPI()

class Item(BaseModel):
    name: str
    price: float
    quantity: int = 1

@app.get("/")
def hello():
    return {"message": "Hello World"}

@app.get("/items/{item_id}")
def get_item(item_id: int):
    return {"item_id": item_id, "name": "Widget"}

@app.post("/items")
def create_item(item: Item):
    return {"item": item.model_dump(), "created": True}

if __name__ == "__main__":
    app.run()
python3.14t app.py
# 🚀 TurboNet-Zig server listening on 127.0.0.1:8000

The app also exposes an ASGI __call__ fallback — you can use uvicorn main:app to test your route definitions before building the native backend, but this is pure-Python and much slower. For production, always use app.run() with the compiled Zig backend.


What's New

v1.0.24 — Zig gzip passthrough fix

Restored gzip middleware body passthrough on the Zig runtime so compressed responses keep both the correct Content-Encoding: gzip header and the actual compressed body. This closes issue #96 on current main.

v1.0.23 — Shared Zig core (turboapi-core)

Extracted the radix trie router, HTTP utilities, and response cache into a standalone Zig library — turboapi-core. Both turboAPI and merjs now share the same routing and HTTP primitives. Zero performance regression (134k req/s unchanged).

v1.0.22 — Build fix

Refreshed the pinned dhi dependency hash so CI builds the turbonet extension on clean runners again.

v1.0.21 — Compat gap fixes

Restored custom exception handlers, lifespan callables, /docs + /openapi.json serving, router-level dependencies, and StaticFiles mounts in the TestClient/runtime path. Added exact repro coverage for issues #100–#104.

v1.0.01 — Performance (47k → 150k req/s)

Per-worker PyThreadState, PyObject_CallNoArgs for zero-arg handlers, tuple response ABI, zero-alloc sendResponse, single-parse model_sync, static routes, Zig-native CORS, enum handler dispatch, skip header parsing for simple routes, zero-alloc route params, response caching. See CHANGELOG.md for full details.


Benchmarks

Benchmarks are split into three categories and should not be mixed:

  • HTTP-only framework overhead
  • end-to-end HTTP + DB
  • driver-only Postgres performance

All tables below use correct, identical response shapes and explicitly note when caches are disabled.

HTTP Throughput (no database, cache disabled)

Endpoint TurboAPI FastAPI Speedup
GET /health 140,586/s 11,264/s 12.5x
GET / 149,930/s 11,252/s 13.3x
GET /json 147,167/s 10,721/s 13.7x
GET /users/123 145,613/s 9,775/s 14.9x
POST /items 155,687/s 8,667/s 18.0x
GET /status201 146,442/s 11,991/s 12.2x
Average 14.1x

End-to-End HTTP + DB (uncached)

Same HTTP routes, same seeded Postgres dataset, TurboAPI response cache off, TurboAPI DB cache off, rate limiting off.

Primary table below is the median of 3 clean Docker reruns:

Route TurboAPI + pg.zig FastAPI + asyncpg FastAPI + SQLAlchemy
GET /health 266,351/s 9,161/s 5,010/s
GET /users/{id} varying 1000 IDs 80,791/s 5,203/s 1,983/s
GET /users?age_min=20 71,650/s 3,162/s 1,427/s
GET /search?q=user_42% 13,245/s 3,915/s 1,742/s

3-run ranges:

  • TurboAPI GET /users/{id}: 77,768..94,248/s
  • FastAPI + asyncpg GET /users/{id}: 4,973..5,464/s
  • FastAPI + SQLAlchemy GET /users/{id}: 1,896..2,054/s

Driver-Only Postgres

For pure driver comparisons with no HTTP in the loop, see benchmarks/pgbench/BENCHMARKS.md.

Caching

TurboAPI has two optional caching layers. Both can be disabled via environment variables:

Cache What it does Env var to disable
Response cache Caches handler return values after first call. Subsequent requests for the same route skip Python entirely. TURBO_DISABLE_CACHE=1
DB result cache Caches SELECT query results with 30s TTL, 10K max entries, per-table invalidation on writes. TURBO_DISABLE_DB_CACHE=1
DB cache TTL Override the default 30-second TTL. TURBO_DB_CACHE_TTL=5

The HTTP-only numbers above are measured with response cache disabled (TURBO_DISABLE_CACHE=1). The end-to-end HTTP+DB table is measured with TURBO_DISABLE_CACHE=1, TURBO_DISABLE_DB_CACHE=1, and TURBO_DISABLE_RATE_LIMITING=1.

For database benchmarks, TURBO_DISABLE_DB_CACHE=1 will measure true per-request Postgres performance. With DB caching on, cached reads hit a Zig HashMap instead of Postgres — useful in production but not a fair framework comparison.

How it works

  • Response caching: noargs handlers cached after first Python call — subsequent requests skip Python entirely
  • Zero-arg GET: PyObject_CallNoArgs — no tuple/kwargs allocation
  • Parameterized GET: PyObject_Vectorcall with Zig-assembled positional args — no parse_qs, no kwargs dict
  • POST (dhi model): Zig validates JSON schema before acquiring the GIL — invalid bodies return 422 without touching Python
  • CORS: Zig-native — headers pre-rendered once at startup, injected via memcpy. 0% overhead (was 24% with Python middleware). OPTIONS preflight handled in Zig.

⚙️ Architecture

Shared core: turboapi-core

The radix trie router, HTTP utilities (percentDecode, queryStringGet, statusText, formatHttpDate), and a bounded response cache live in a standalone Zig library — turboapi-core. Both turboAPI (this repo) and merjs import it as a build dependency, so the routing and HTTP parsing logic is shared across both frameworks with zero duplication.

Request lifecycle

Every HTTP request flows through the same pipeline. The key idea: Python only runs your business logic. Everything else — parsing, routing, validation, response writing — happens in Zig.

                      ┌──────────────────────────────────────────────────────┐
                      │                    Zig HTTP Core                     │
  HTTP Request ──────►│                                                      │
                      │  TCP accept ──► header parse ──► route match          │
                       │       (24-thread pool)  (8KB buf)   (radix trie)     │
                      │                                                      │
                      │  Content-Length body read (dynamic alloc, 16MB cap)   │
                      └────────────────────┬─────────────────────────────────┘
                                           │
                    ┌──────────────────────┼──────────────────────┐
                    ▼                      ▼                      ▼
           ┌───────────────┐    ┌─────────────────────┐   ┌──────────────┐
           │  Native FFI   │    │    model_sync        │   │  simple_sync │
           │  (no Python)  │    │                      │   │  body_sync   │
           │               │    │  JSON parse in Zig   │   │              │
           │  C handler ───┤    │  dhi schema validate │   │  Acquire GIL │
           │  direct call  │    │  ▼ fail → 422        │   │  call handler│
           │  (no GIL)     │    │  ▼ pass → Zig builds │   │  zero-copy   │
           │               │    │    Python dict from   │   │  write       │
           └──────┬────────┘    │    parsed JSON        │   └──────┬───────┘
                  │             │  model(**data)        │          │
                  │             │  handler(model)       │          │
                  │             │  zero-copy write      │          │
                  │             └──────────┬────────────┘          │
                  │                        │                      │
                  └────────────────────────┴──────────────────────┘
                                           │
                                      ┌────▼─────┐
                                      │ Response  │
                                      │ (keep-    │
                                      │  alive)   │
                                      └──────────┘

What "zero-copy" means

On the response path, Zig calls PyUnicode_AsUTF8() to get a pointer to the Python string's internal buffer, then calls write() directly on the socket. No memcpy, no temporary buffers, no heap allocation. The Python string stays alive because we hold a reference to it.

Handler classification

At startup, each route is analyzed once and assigned the lightest dispatch path:

Handler type What it skips When used
native_ffi Python entirely — no GIL, no interpreter C/Zig shared library handlers
simple_sync_noargs GIL lookup, tuple/kwargs alloc — uses PyObject_CallNoArgs Zero-param GET handlers
model_sync json.loads — Zig parses JSON and builds Python dict POST with a dhi.BaseModel param
simple_sync header parsing, body parsing, regex GET handlers with path/query params
body_sync header parsing, regex POST without model params
enhanced nothing — full Python dispatch Depends(), middleware, complex types

Zig-side JSON parsing (model_sync)

For model_sync routes, the JSON request body is parsed twice in Zig, zero times in Python:

  1. dhi validationdhi_validator.zig parses the JSON and validates field types, constraints (min_length, gt, etc.), nested objects, and unions. Invalid requests get a 422 without acquiring the GIL.
  2. Python dict constructionjsonValueToPyObject() in server.zig recursively converts the parsed std.json.Value tree into Python objects (PyDict, PyList, PyUnicode, PyLong, PyFloat, PyBool, Py_None). The resulting dict is passed to the handler as body_dict.

The Python handler receives a pre-built dict and just does model_class(**data) — no json.loads, no parsing overhead.


🚀 Features

Drop-in FastAPI replacement

# Before
from fastapi import FastAPI, Depends, HTTPException
from pydantic import BaseModel

# After
from turboapi import TurboAPI as FastAPI, Depends, HTTPException
from dhi import BaseModel

Everything else stays the same. Routes, decorators, dependency injection, middleware — all compatible.

Zig-native validation via dhi

from dhi import BaseModel, Field

class CreateUser(BaseModel):
    name: str = Field(min_length=1, max_length=100)
    email: str
    age: int = Field(gt=0, le=150)

@app.post("/users")
def create_user(user: CreateUser):
    return {"created": True, "user": user.model_dump()}

Model schemas are extracted at startup and compiled into Zig. Invalid requests get rejected with a 422 before touching Python — no GIL acquired, no handler called. Valid requests are passed to your handler with a real model instance.

Async handlers

@app.get("/async")
async def async_handler():
    data = await fetch_from_database()
    return {"data": data}

Async handlers are automatically detected and awaited via asyncio.run().

Full security stack

from turboapi import Depends, HTTPException
from turboapi.security import OAuth2PasswordBearer, HTTPBearer, APIKeyHeader

oauth2 = OAuth2PasswordBearer(tokenUrl="token")

@app.get("/protected")
def protected(token: str = Depends(oauth2)):
    if token != "secret":
        raise HTTPException(status_code=401, detail="Invalid token")
    return {"user": "authenticated"}

OAuth2, HTTP Bearer/Basic, API Key (header/query/cookie) — all supported with correct status codes (401/403).

Native FFI handlers

Skip Python entirely for maximum throughput:

# Register a handler from a compiled shared library
app.add_native_route("GET", "/fast", "./libhandler.so", "handle_request")

The Zig server calls the C function directly — no GIL, no interpreter, no overhead.


🔄 Migrating from FastAPI

Step 1: Swap the imports

# Before
from fastapi import FastAPI, Depends, HTTPException, Query, Path
from pydantic import BaseModel

# After
from turboapi import TurboAPI as FastAPI, Depends, HTTPException, Query, Path
from dhi import BaseModel

Step 2: Use the built-in server

# FastAPI way (still works)
if __name__ == "__main__":
    import uvicorn
    uvicorn.run(app, host="0.0.0.0", port=8000)

# TurboAPI way (20x faster)
if __name__ == "__main__":
    app.run(host="0.0.0.0", port=8000)

Step 3: Run with free-threading

# Install free-threaded Python
uv python install 3.14t

python3.14t app.py

Feature Parity

Feature Status
Route decorators (@get, @post, etc.)
Path parameters with type coercion
Query parameters
JSON request body
Async handlers
Dependency injection (Depends())
OAuth2 (Password, AuthCode)
HTTP Bearer / Basic auth
API Key (Header / Query / Cookie)
CORS middleware
GZip middleware
HTTPException with status codes
Custom responses (JSON, HTML, Redirect)
Background tasks
APIRouter with prefixes
Native FFI handlers (C/Zig, no Python)
Zig-native JSON schema validation (dhi)
Zig-side JSON→Python dict (no json.loads)
Large body support (up to 16MB)
Python 3.14t free-threaded
WebSocket support 🔧 In progress
HTTP/2 + TLS 🔧 In progress

📁 Project Structure

turboAPI/
├── turboapi-core/              # shared Zig library (also used by merjs)
│   ├── src/
│   │   ├── root.zig            # public API surface
│   │   ├── router.zig          # radix trie with path params + wildcards
│   │   ├── http.zig            # percentDecode, queryStringGet, statusText, formatHttpDate
│   │   ├── cache.zig           # bounded thread-safe response cache
│   │   └── types.zig           # HeaderPair, shared types
│   ├── build.zig
│   └── build.zig.zon           # zero dependencies
├── python/turboapi/
│   ├── main_app.py             # TurboAPI class (FastAPI-compatible, ASGI __call__)
│   ├── zig_integration.py      # route registration, handler classification
│   ├── request_handler.py      # enhanced/fast/fast_model handlers
│   ├── security.py             # OAuth2, HTTPBearer, APIKey, Depends
│   ├── version_check.py        # free-threading detection
│   └── turbonet.*.so           # compiled Zig extension
├── zig/
│   ├── src/
│   │   ├── main.zig            # Python C extension entry
│   │   ├── server.zig          # HTTP server, thread pool, dispatch, JSON→PyObject
│   │   ├── dhi_validator.zig   # runtime JSON schema validation
│   │   ├── db.zig              # TurboPG — Zig-native Postgres driver
│   │   └── py.zig              # Python C-API wrappers
│   ├── build.zig               # Zig build system (imports turboapi-core)
│   ├── build.zig.zon           # dependencies (dhi, pg.zig, turboapi-core)
│   └── build_turbonet.py       # auto-detect Python, invoke zig build
├── tests/                      # 275+ tests
├── benchmarks/
├── Dockerfile                  # Python 3.14t + Zig 0.15 + turbonet
├── docker-compose.yml
└── Makefile                    # make build, make test, make release

Building from Source

Requirements: Python 3.14t (free-threaded) and Zig 0.15+

# 1. Clone
git clone https://github.com/justrach/turboAPI.git
cd turboAPI

# 2. Install free-threaded Python (if you don't have it)
uv python install 3.14t

# 3. Build the Zig native backend (dhi dependency fetched automatically)
python3.14t zig/build_turbonet.py --install

# 4. Install the Python package
pip install -e ".[dev]"

# 5. Run tests
python -m pytest tests/ -p no:anchorpy \
  --deselect tests/test_fastapi_parity.py::TestWebSocket -v

Or use the Makefile:

make build       # debug build + install
make release     # ReleaseFast build + install
make test        # run Python tests
make zig-test    # run Zig unit tests

Or just Docker:

docker compose up --build

🐍 Why Python?

The "just use Go/Rust" criticism is fair for pure throughput. TurboAPI's value proposition is different: Python ecosystem + near-native HTTP throughput.

What you keep with Python

  • ML / AI libraries — PyTorch, transformers, LangChain, LlamaIndex, etc. None of these exist in Go or Rust at the same maturity level. If your API calls an LLM or does inference, Python is the only practical choice.
  • ORM ecosystem — SQLAlchemy, Tortoise, Django ORM, Alembic. Rewriting this in Go is months of work.
  • Team familiarity — most backend Python teams can be productive on day one. A Rust rewrite takes 6-12 months and a different hiring profile.
  • Library coverage — Stripe SDK, Twilio, boto3, Celery, Redis, every database driver. Go/Rust alternatives exist but are thinner.
  • FastAPI compatibility — if you're already on FastAPI, TurboAPI is a one-line import change, not a rewrite.

When to actually use Go or Rust instead

Scenario Recommendation
Pure JSON proxy, no business logic Go (net/http or Gin)
Embedded systems, < 1MB binary Rust
Existing Go/Rust team Stay in your stack
Need >200k req/s with <0.1ms p99 Native server, no Python
Need HTTP/2, gRPC today Go (mature ecosystem)
Heavy Python ML/data dependencies TurboAPI
FastAPI codebase, need 10-20x throughput TurboAPI
Background workers + AI inference + HTTP TurboAPI

The realistic throughput story

                     req/s     p50 latency    Python needed?
Go net/http          250k+     0.05ms         No
TurboAPI (noargs)    144k      0.16ms         Yes (thin layer)
TurboAPI (CORS)      110k      0.22ms         Yes
FastAPI + uvicorn    6-8k      14ms           Yes
Django REST          2-4k      25ms+          Yes

TurboAPI won't out-run a native Go server on raw req/s. It closes most of the gap while keeping your Python codebase intact.


🔭 Observability

TurboAPI handlers are regular Python functions — standard observability tools work without special adapters.

OpenTelemetry

from opentelemetry import trace
from opentelemetry.sdk.trace import TracerProvider
from opentelemetry.sdk.trace.export import BatchSpanProcessor
from opentelemetry.exporter.otlp.proto.grpc.trace_exporter import OTLPSpanExporter

provider = TracerProvider()
provider.add_span_processor(BatchSpanProcessor(OTLPSpanExporter()))
trace.set_tracer_provider(provider)

tracer = trace.get_tracer(__name__)

app = TurboAPI()

@app.get("/users/{user_id}")
def get_user(user_id: int):
    with tracer.start_as_current_span("get_user") as span:
        span.set_attribute("user.id", user_id)
        user = db.get(user_id)
        return user.dict()

Prometheus

from prometheus_client import Counter, Histogram, generate_latest, CONTENT_TYPE_LATEST
import time

REQUEST_COUNT = Counter("http_requests_total", "Total requests", ["method", "path", "status"])
REQUEST_LATENCY = Histogram("http_request_duration_seconds", "Request latency", ["path"])

class MetricsMiddleware:
    async def __call__(self, request, call_next):
        start = time.perf_counter()
        response = await call_next(request)
        duration = time.perf_counter() - start
        REQUEST_COUNT.labels(request.method, request.url.path, response.status_code).inc()
        REQUEST_LATENCY.labels(request.url.path).observe(duration)
        return response

app = TurboAPI()
app.add_middleware(MetricsMiddleware)

@app.get("/metrics")
def metrics():
    from turboapi import Response
    return Response(generate_latest(), media_type=CONTENT_TYPE_LATEST)

Structured logging

import structlog

log = structlog.get_logger()

@app.get("/orders/{order_id}")
def get_order(order_id: int):
    log.info("order.fetch", order_id=order_id)
    order = db.fetch(order_id)
    if not order:
        log.warning("order.not_found", order_id=order_id)
        raise HTTPException(status_code=404)
    return order.dict()

Middleware-based tracing works today on enhanced-path routes (those using Depends(), or any route when middleware is added). The Zig fast-path routes bypass the Python middleware stack for throughput — if you need per-request tracing on every route, add a middleware and accept the ~24% throughput overhead.

🤝 Contributing

Open an issue before submitting a large PR so we can align on the approach.

git clone https://github.com/justrach/turboAPI.git
cd turboAPI
uv python install 3.14t
python3.14t zig/build_turbonet.py --install   # build Zig backend
pip install -e ".[dev]"                        # install in dev mode
make hooks                                     # install pre-commit hook
make test                                      # verify everything works

Credits

  • dhi — Pydantic-compatible validation, Zig + Python
  • Zig 0.15 — HTTP server, JSON validation, zero-copy I/O
  • Python 3.14t — free-threaded runtime, true parallelism

License

MIT

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