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ExploringUpdated 2026-10-2412 min readBy Alex Mercer, Lead Network Architect

Top Python HTTP Clients for Web Scraping in 2026

HTTP clients are essential Python libraries that allow your code to interact with web servers and APIs by sending requests and receiving responses. They facilitate various HTTP methods (GET, POST, PUT, DELETE,...

Top Python HTTP Clients for Web Scraping in 2025

HTTP clients are essential Python libraries that allow your code to interact with web servers and APIs by sending requests and receiving responses. They facilitate various HTTP methods (GET, POST, PUT, DELETE, etc.), which are vital for tasks like fetching data, submitting forms, and generally communicating with websites or APIs. In the context of web scraping, these clients are often paired with HTML parsing libraries such as Beautiful Soup or html5lib.

This article explores some of the best Python HTTP clients available, including Requests, urllib3, Uplink, GRequests, HTTPX, and aiohttp. We'll look at each library's features, ease of use, documentation, community support, and how well they can integrate with web scraping activities. By the end of this article, you’ll be well-equipped to select the most suitable library for your specific needs.

Introducing ProxyTee: Your Solution for Efficient Web Scraping

Before diving into the technical details of each client, let's briefly discuss ProxyTee, a provider specializing in residential proxies. If you are serious about web scraping, a robust proxy solution like ProxyTee is almost always a necessary consideration. ProxyTee provides an affordable and efficient solution, especially when you require rotating IPs and unlimited bandwidth.

ProxyTee offers various solutions, but its Unlimited Residential Proxies are often preferred by users for web scraping purposes due to their:

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  3. Support for Multiple Protocols including HTTP and SOCKS5 for flexible integration with various tools. Explore Supported Protocols.
  4. Simple and Clean GUI allows for a seamless user experience and makes it easy to start. View our Interface.
  5. Auto Rotation, helping prevent bans with IP rotations from 3 to 60 minutes. See Auto Rotation in action.
  6. Simple API that allows developers and business users alike to integrate ProxyTee with their existing automation tasks. Integrate our API.

If you plan to enhance your scraping operations, ProxyTee might be worth a look, especially when compared to other providers due to the low cost and a wider scope of country-level targeting, unlike competitors which provide more generic geographical selections.

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Requests

Let's begin with Requests, the most popular Python HTTP client. It has a massive 30 million downloads each week.

Here is a snippet of how you can handle HTTP requests and responses with Requests:

import requests

print("Testing `requests` library...")
resp = requests.get('https://httpbin.org/get', params={"foo": "bar"})
if resp.status_code == 200:     # success
    print(f"Response Text: {resp.text} (HTTP-{resp.status_code})")
else:   # error
    print(f"Error: HTTP-{resp.status_code}")

In this example, requests.get(...) takes the URL and an optional params dictionary. You don't have to manually add query strings or encode your data. If you’re posting data in JSON format, you can pass a Python dictionary using the data argument, and directly receive the response with resp.json().

Requests supports HTTP redirects by default. This feature is very helpful when you are accessing content from URLs that redirect to a different location. Requests also supports secure SSL connections.

Requests utilizes urllib3 for low-level HTTP tasks like connection pooling and SSL verification, but it provides a high-level, intuitive interface for developers.

Session management in Requests allows parameters like cookies, headers, or authentication tokens to persist across requests. This makes it invaluable for web scraping that requires maintaining specific state to access the intended content.

The library’s streaming feature supports the processing of large responses without loading them entirely into memory. This can be done via methods like iter_content() or iter_lines(), suitable for downloading large files or consuming streaming data.

A minor limitation is the absence of built-in asynchronous capabilities and caching support, although the caching is available via a separate module, requests-cache. The Requests library also lacks support for the newer HTTP/2 protocol, a drawback for performance but the main development focus is on HTTP/1.1 support, therefore HTTP/2 support is unlikely anytime soon.

In summary, the Requests library simplifies Python's HTTP interactions, offering ease of use, automatic connection pooling, and built-in JSON decoding. It has comprehensive documentation, making it a good starting point for handling standard HTTP tasks.

urllib3

urllib3 is a battle-tested library used for making HTTP requests and even serves as the engine for other clients like the Requests library. It offers rich features and customizable settings, giving you complete control over low-level HTTP details. This can be helpful during your web scraping activities.

Here’s a simple usage example of urllib3 for sending an HTTP request:

import urllib3

print("Testing `urllib3` library...")
http = urllib3.PoolManager()    # PoolManager for connection pooling
resp = http.request('GET', 'https://httpbin.org/get', fields={"foo": "bar"})

if resp.status == 200:     # success
    print(f"Response: {resp.data.decode('utf-8')} (HTTP-{resp.status})")
else:    # error
    print(f"Error: HTTP-{resp.status}")

The urllib3.PoolManager() creates a connection pool. This allows reusing the same connection, and improves the performance of handling multiple requests. To add any query parameters, you can add those to the fields argument.

One strength of urllib3 is its support for streaming responses that makes it useful when you need to handle large amounts of data. It also supports automatic redirection and SSL security natively. However, it lacks support for async requests, caching, session management, and HTTP/2. Unlike the Requests library, urllib3’s way of handling connection pooling makes it a bit less user-friendly and can seem a bit more complicated.

While urllib3’s API is a bit low level, its syntax still has simple scripting-style functionality which makes it great for easy HTTP interactions, it also has detailed and well-maintained documentation.

If you want a powerful library that gives you good control of low-level HTTP details for basic scraping tasks and don’t need session management, urllib3 is great for basic HTTP tasks.

Uplink, though not very well-known, is another solid option. Its use of a class-based interface makes it easier to manage calls to various RESTful APIs. It’s very useful when you deal with API-heavy web scraping projects.

Take a look at this Uplink usage sample for API endpoint calls:

import uplink

@uplink.json
class JSONPlaceholderAPI(uplink.Consumer):
    @uplink.get("/posts/{post_id}")
    def get_post(self, post_id):
        pass

def demo_uplink():
    print("Testing `uplink` library...")
    api = JSONPlaceholderAPI(base_url="https://jsonplaceholder.typicode.com")
    resp = api.get_post(post_id=1)
    if resp.status_code == 200:     # success
        print(f"Response: {resp.json()} (HTTP-{resp.status_code})")
    else:   # error
        print(f"Error:HTTP-{resp.status_code}")

Here, JSONPlaceholderAPI is defined using the uplink.Consumer and then uses the @uplink.get decorator. The API’s parameter is included by using @uplink.get("/posts/{post_id}"). The https://jsonplaceholder.typicode.com API was used to simulate a REST API, and provides JSON responses for testing and development.

Uplink also has SSL and redirect support built-in to retrieve final responses automatically. Uplink even allows advanced functionality such as "Bring Your Own HTTP Library" giving you great low-level control of the actual client underneath.

A few features missing from Uplink are the built-in streaming responses, asynchronous requests, caching, and HTTP/2.

The documentation available for Uplink can provide details, but this project appears to be in maintenance mode (last release in early 2022), which may concern some users. Its class-based and decorator-based structure can appeal to some programmers, it can still be moderate to use for developers looking for simpler scripting syntax. People choose this library when data primarily has to be gathered from various RESTful API endpoints as opposed to traditional HTML pages.

GRequests

GRequests augments the popular Requests library with the addition of asynchronous capabilities that lets you send multiple HTTP requests concurrently.

Traditional sequential requests require you to wait for the response before the next one can be sent. GRequests avoids this by sending multiple requests simultaneously, thus improving the overall speed when scraping data from many websites or APIs.

The following sample code uses grequests:

import grequests

print("Testing `grequests` library...")
# Fetching data from multiple URLs
urls = [
    'https://www.python.org/',
    'http://httpbin.org/get',
    'http://httpbin.org/ip',
]

responses = grequests.map((grequests.get(url) for url in urls))
for resp in responses:
    print(f"Response for: {resp.url} ==> HTTP-{resp.status_code}")

Here grequests.map(...) makes concurrent GET requests and stores responses to a list called responses, and then iterates those and prints results. GRequests uses gevent, to handle async requests. This allows handling simultaneous requests, and simplifies concurrency without complicated programming logic. This could be very helpful in collecting news from multiple sources when focusing on a specific category or topic.

GRequests, like its parent Requests library, provides automatic redirection and SSL support, and can efficiently process streamed data without needing to load all of it into the memory. Like requests, it lacks built-in support for HTTP/2 or caching (although it supports the requests-cache module).

Its structure and simple async interface with similar methods to Requests, provides an easy transition and negates the use of more complex Python syntax constructs, which makes it an intuitive library. Its documentation is minimal given that the library is not very large, and its development activity is also reduced making its overall popularity lower. If asynchronous support is a must when scraping different data sources concurrently, GRequests can be useful.

HTTPX

HTTPX is an evolving, high-feature HTTP client for Python that is popular for many types of web scraping projects. This library was designed as a drop-in replacement for the older Requests, but with async and more performant support.

The example below showcases an async HTTP GET with HTTPX:

import httpx
import asyncio

async def fetch_posts():
    async with httpx.AsyncClient() as client:
        response = await client.get('https://jsonplaceholder.typicode.com/posts')
        return response.json()

async def httpx_demo():
    print("Testing `httpx` library...")
    posts = await fetch_posts()
    for idx, post in enumerate(posts):
        print(f"Post #{idx+1}: {post['title']}")

# async entry point to execute the code
asyncio.run(httpx_demo())

This program demonstrates the usage of an async function, called fetch_posts(), that collects sample blog post from an API via httpx.AsyncClient() and then returns them as JSON. The function httpx_demo() will use these posts by waiting via await fetch_posts() and then simply prints post titles from these in a loop. Finally asyncio.run(httpx_demo()) will be used to initiate httpx_demo() asynchronously.

The library, beside the support of asynchronous HTTP, also provides built-in HTTP/2 support, resulting in faster and more efficient loading of multiple resources, which is key to avoiding browser tracking while web scraping.

To send a request via HTTP/2, add http2=True parameter as follows:

import httpx

client = httpx.Client(http2=True)
response = client.get("https://http2.github.io/")
print(response)

The following should be done to get full HTTP/2 support:

pip install httpx[http2]

Also, HTTPX includes streaming response support to handle large datasets without keeping the full data into memory. Here is how you could stream text using HTTPX:

with httpx.stream("GET", "https://httpbin.org/stream/10") as resp:
   for text in resp.iter_text():
       print(text)

HTTPX lacks built-in caching features. However, it can integrate with Hishel to address this need. Also note that this library needs an explicit setting to handle HTTP redirects by passing the follow_redirects parameter as follows:

import httpx

# test http --> https redirect
response = httpx.get('http://github.com/', follow_redirects=True)

Though its async functionality adds more complexity, HTTPX gives users simple methods to interact via HTTP. It offers async and sync calls, making this library usable for developers of different skill levels. The library also has growing adoption due to excellent and up-to-date documentation and active community contributions to many HTTPX related tool integrations.

HTTPX is a good choice if a highly featured async client is needed for web scraping tasks.

aiohttp

aiohttp is a Python HTTP client designed exclusively for async programming, making it optimal for real-time web scraping projects. It allows high performance for concurrent, non-blocking request processing which makes it very performant and very useful if you plan to work with residential proxies during your data scraping projects.

See this snippet on how to collect from multiple URLs concurrently:

import asyncio
import aiohttp

async def fetch_data(url):
    async with aiohttp.ClientSession() as session:
        async with session.get(url) as response:
            return await response.text()
    
async def demo_aiohttp():
    print("Testing `aiohttp` library...")
    urls = [
        'https://www.python.org/',
        'http://httpbin.org/get',
        'http://httpbin.org/ip',
    ]
    tasks = [fetch_data(url) for url in urls]
    responses = await asyncio.gather(*tasks)
    for resp_text in responses:
        print(f"Response: {resp_text}")

# async entry point to execute the code      
asyncio.run(demo_aiohttp())

The asynchronous function fetch_data(...) generates an aiohttp.ClientSession() that then proceeds to send a GET request, once completed it sends back the response as a string. A list of tasks are created, one per URL to request and those are initiated by asyncio.gather(...) and stored in a variable called responses. Then it proceeds to print the collected data in a simple loop. Finally, the asyncio.run(demo_aiohttp()) line serves as the program's async initiator.

This library will take care of handling HTTP redirects, and stream responses. This feature allows for optimized data streaming without using too much memory. It also provides other functionality such as support for many middlewares and other third party extensions.

Note that aiohttp has no built-in support for HTTP/2, nor built-in caching. However, you can address caching via modules like aiohttp-client-cache when needed. While this module is designed to deal only with async features, beginners might have some issues using it compared to other options like Requests given it's overall complexity with dealing with the async nature, but is still highly used in various circles, with more than 14.7K Github stars with many extensions and additional modules built on top of it. You also can find well-detailed and up-to-date documentation for aiohttp. In general, If full async is a required component in a data scraping project, then aiohttp would be an option worth evaluating. It is ideal for tasks that require real-time monitoring of fast-changing events such as monitoring live events or stock pricing as these events unfold.

Summary of HTTP Clients

Below is a summary table to compare Python HTTP clients discussed in this article.

Requests urllib3 Uplink GRequests HTTPX aiohttp
Ease of Use Easy Easy-to-Moderate Moderate Easy Moderate Moderate
Automatic Redirects Yes Yes Yes Yes Needs Enabling Yes
SSL Support Yes Yes Yes Yes Yes Yes
Asynchronous Capability No No No Yes Yes Yes
Streaming Responses Yes Yes No Yes Yes Yes
HTTP/2 Support No No No No Yes No
Caching Support Via: requests-cache No Via:requests-cache Via: requests-cache Via: Hishel Via: aiohttp-client-cache


Conclusion

This article covered some of the most common HTTP clients in the Python programming world. Each module such as Requests, urllib3, Uplink, GRequests, HTTPX, and aiohttp provides specific features that include easy to use libraries or support async/streaming, or support of HTTP/2, among other things. While some libraries focus on an easy interface, such as Requests and GRequests, other modules are focused on strong asynchronous programming and related performance. The popular library is Requests but modules such as aiohttp and HTTPX are increasing in popularity.

You need to review all of them to select the one which is most appropriate for your requirements. Keep in mind that web scraping often goes beyond the HTTP client as often requires proxy solutions such as ProxyTee to hide IP or perform geo-targeting, or deal with ant-bot measures implemented by different websites.

ProxyTee is an affordable and easy-to-use proxy provider that offers multiple solutions to fit your needs, including: residential proxies, static residential proxies, datacenter proxies, mobile proxies.

In particular, Unlimited Residential Proxies with unlimited bandwidth, a global IP pool and automatic rotation. Also with support for geo targeting as opposed to random or large geographical scopes.

Consider checking out ProxyTee's affordable pricing to understand how this can be a cost effective solution that fits most web scraping project needs. Our use cases page also contains further info of other successful cases that ProxyTee helped with.

Tags:Web ScrapingPythonHTTP
AM
Alex Mercer • Lead Network & Web Scraping Architect
Technically Reviewed by Marcus Vance • Director of Proxy Infrastructure & Network Security

Principal infrastructure engineer at ProxyTee specializing in rotating residential proxy networks, SOCKS5/HTTP tunneling, TLS fingerprint mitigation, and distributed data extraction pipelines.