Apache Kafka (Part-1)

Apache Kafka (Part-1)

ยท

3 min read

Introduction

Apache Kafka is an open-source distributed event streaming platform that was designed to handle massive amounts of data in real time and is widely used by enterprises for building event-driven architectures.

In this blog, we'll explore the key features of Kafka, its architecture, and some of its use cases.

Key Features of Kafka:

  1. Distributed: Kafka is a distributed system that can be run on multiple servers, allowing it to handle large amounts of data in real time.

  2. Scalable: Kafka is highly scalable and can be easily scaled up or down depending on the needs of the system.

  3. Fault-tolerant: Kafka is designed to be fault-tolerant and can continue to function even if a server or node fails.

  4. Real-time processing: Kafka is designed for real-time processing, allowing it to handle large amounts of data in real time.

  5. High throughput: Kafka can handle a high throughput of data, making it an ideal choice for processing large amounts of data.


Architecture

Kafka has a distributed architecture that consists of the following components:

  1. Zookeeper: ZooKeeper is primarily used to track the status of nodes in the Kafka cluster and maintain a list of Kafka topics and messages.

  2. Producer: A producer is responsible for producing data to Kafka. It can be a client application that generates data or a service that sends data to Kafka.

  3. Broker: A broker is a server that acts as a message broker between the producer and consumer. It is responsible for storing and managing data in Kafka.

  4. Consumer: A consumer is responsible for consuming data from Kafka. It can be a client application that reads data or a service that receives data from Kafka.

  5. Topic: A topic is a category or stream name to which data is published by the producer. Topics are divided into partitions, which are stored across different brokers.

  6. Partition: A partition is a sequence of messages that are stored in Kafka. Each partition is replicated across multiple brokers to ensure fault tolerance and high availability.


Use Case

  1. Messaging: Kafka is used for messaging in distributed systems where it acts as a message broker between different components of the system. This is the biggest use case of Kafka to form a communication channel between a microservice architecture.

    e.g. Messaging system between different services via Confluent (built on top of Kafka)

    ksmd

  2. Real-time data processing: Kafka is widely used for real-time data processing in applications such as stock trading, online gaming, and social media.

  3. Stream processing: Kafka is used for stream processing, which involves processing and analyzing data in real time as it is generated.


Conclusion

This was part 1 of the Kafka series which was a bit theoretical and introductory, if you want to learn more about the actual implementation, the next parts are coming soon...

I hope this helps! ๐Ÿ’™

ย