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  1. Stackups
  2. Utilities
  3. Background Jobs
  4. Message Queue
  5. Celery vs Faust

Celery vs Faust

OverviewComparisonAlternatives

Overview

Celery
Celery
Stacks1.7K
Followers1.6K
Votes280
GitHub Stars27.5K
Forks4.9K
Faust
Faust
Stacks26
Followers80
Votes0
GitHub Stars6.8K
Forks536

Celery vs Faust: What are the differences?

Introduction

In this Markdown code, I will provide the key differences between Celery and Faust. Both Celery and Faust are popular Python libraries used for distributed task processing and stream processing, respectively. However, they have some distinct features and functionalities that set them apart. Below are the key differences between Celery and Faust.

  1. Architecture: Celery follows a traditional task queue model where tasks are queued in a centralized broker, and workers consume tasks from the queue. Faust, on the other hand, uses a stream processing model inspired by Apache Kafka, where data is processed in real-time and streams can be split across multiple workers or machines, allowing for scalable processing of high volume data streams.

  2. Message Handling: Celery relies on messaging brokers like RabbitMQ or Redis to handle task messages. It uses the publish-subscribe pattern for sending and receiving messages between the client and the worker. Faust, on the other hand, uses its own built-in message transport and storage system, which is optimized for stream processing. It can also integrate with Kafka as a message broker.

  3. Concurrency Model: Celery uses a concurrency model based on multiprocessing, where tasks are executed in separate processes or threads. It can handle multiple tasks simultaneously through process-based task distribution. Faust, on the other hand, leverages event loops and asynchronous processing to handle multiple tasks concurrently. It utilizes the asyncio library for efficient handling of concurrent tasks.

  4. Scalability: Celery provides scalability through the use of distributed task queues, allowing for horizontal scaling by adding more workers. It can handle large workloads by processing tasks in parallel across multiple machines. Faust, on the other hand, achieves scalability by partitioning data streams and distributing them across multiple workers or machines. This allows for parallel processing of data streams for efficient scalability.

  5. Ease of Use: Celery has been around for a longer time and has a larger user base, ensuring comprehensive documentation and extensive community support. It provides a user-friendly interface and a wide range of configuration options. Faust, being a more recent addition, may have a steeper learning curve and limited resources compared to Celery. However, it offers a more specialized solution for stream processing tasks.

  6. Integration with Ecosystem: Celery integrates seamlessly with various task brokering systems and is supported by a wide range of messaging brokers. It also has extensive support for result storing, monitoring, and advanced scheduling features. Faust, on the other hand, is designed to work primarily with Kafka and leverages its features for fault-tolerant stream processing. It provides integration with other Kafka ecosystem tools but may not have the same level of support for other messaging brokers.

In Summary, Celery and Faust differ in their architecture, message handling approach, concurrency model, scalability options, ease of use, and integration with the ecosystem. Celery focuses on distributed task processing using a task queue model, while Faust specializes in stream processing, allowing for real-time data processing and scalable stream handling.

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Detailed Comparison

Celery
Celery
Faust
Faust

Celery is an asynchronous task queue/job queue based on distributed message passing. It is focused on real-time operation, but supports scheduling as well.

It is a stream processing library, porting the ideas from Kafka Streams to Python. It provides both stream processing and event processing, sharing similarity with tools such as Kafka Streams, Apache Spark/Storm/Samza/Flink.

-
Stream processing; Event processing; Build high performance distributed systems; Real-time data pipelines
Statistics
GitHub Stars
27.5K
GitHub Stars
6.8K
GitHub Forks
4.9K
GitHub Forks
536
Stacks
1.7K
Stacks
26
Followers
1.6K
Followers
80
Votes
280
Votes
0
Pros & Cons
Pros
  • 99
    Task queue
  • 63
    Python integration
  • 40
    Django integration
  • 30
    Scheduled Task
  • 19
    Publish/subsribe
Cons
  • 4
    Sometimes loses tasks
  • 1
    Depends on broker
No community feedback yet
Integrations
No integrations available
Python
Python
Flask
Flask
Django
Django
Pandas
Pandas
PyTorch
PyTorch
NumPy
NumPy
NLTK
NLTK
SQLAlchemy
SQLAlchemy

What are some alternatives to Celery, Faust?

Kafka

Kafka

Kafka is a distributed, partitioned, replicated commit log service. It provides the functionality of a messaging system, but with a unique design.

RabbitMQ

RabbitMQ

RabbitMQ gives your applications a common platform to send and receive messages, and your messages a safe place to live until received.

Amazon SQS

Amazon SQS

Transmit any volume of data, at any level of throughput, without losing messages or requiring other services to be always available. With SQS, you can offload the administrative burden of operating and scaling a highly available messaging cluster, while paying a low price for only what you use.

NSQ

NSQ

NSQ is a realtime distributed messaging platform designed to operate at scale, handling billions of messages per day. It promotes distributed and decentralized topologies without single points of failure, enabling fault tolerance and high availability coupled with a reliable message delivery guarantee. See features & guarantees.

ActiveMQ

ActiveMQ

Apache ActiveMQ is fast, supports many Cross Language Clients and Protocols, comes with easy to use Enterprise Integration Patterns and many advanced features while fully supporting JMS 1.1 and J2EE 1.4. Apache ActiveMQ is released under the Apache 2.0 License.

ZeroMQ

ZeroMQ

The 0MQ lightweight messaging kernel is a library which extends the standard socket interfaces with features traditionally provided by specialised messaging middleware products. 0MQ sockets provide an abstraction of asynchronous message queues, multiple messaging patterns, message filtering (subscriptions), seamless access to multiple transport protocols and more.

Apache NiFi

Apache NiFi

An easy to use, powerful, and reliable system to process and distribute data. It supports powerful and scalable directed graphs of data routing, transformation, and system mediation logic.

Gearman

Gearman

Gearman allows you to do work in parallel, to load balance processing, and to call functions between languages. It can be used in a variety of applications, from high-availability web sites to the transport of database replication events.

Memphis

Memphis

Highly scalable and effortless data streaming platform. Made to enable developers and data teams to collaborate and build real-time and streaming apps fast.

IronMQ

IronMQ

An easy-to-use highly available message queuing service. Built for distributed cloud applications with critical messaging needs. Provides on-demand message queuing with advanced features and cloud-optimized performance.

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