
Explore how event streaming delivers real-time, durable data flows. See how producers, consumers, and the broker create a decoupled, immutable log that enables replay and massive scalability.
Explore how a Kafka cluster uses multiple brokers to provide high availability and scalability, with Zookeeper coordinating leadership and discovery, transitioning to KRaft for internal metadata management and faster failover.
Explore how topics, partitions, and offsets organize and scale data in a cluster, with append-only topics, parallel partitions for higher throughput, and offset-based consumer progress.
Explore how replication and in-sync replicas ensure availability in a Kafka cluster by distributing partition copies across brokers and managing leaders and followers.
The Confluent Schema Registry enforces schema evolution and backward/forward compatibility, acting as a central authority that decouples schemas from messages for reliable, high-throughput event streaming.
Explore the producer architecture, including serializer, registry, and partitioner, and how buffering, batching, and an asynchronous IO thread ensure high throughput and reliable broker acknowledgments.
Master essential producer configuration for data transmission and acknowledgments, including acks, retries, and delivery timeout. Explore batching, linger, batch size, compression, and idempotence to balance speed with data integrity.
Learn how Kafka distributes messages across partitions with sticky partitioning and keyed partitioning, uses Murmur2 hashing for deterministic ordering within a partition, and avoids hot partitions for scalable throughput.
Compare at-most-once, at-least-once, and exactly-once delivery, explaining producer choices, acknowledgments, retries, idempotent producers, and transactions, for reliable, high-volume streaming and data integrity.
Study how producers handle retriable and non-retriable errors and delivery timeout milliseconds limits retries. Observe idempotence preserves order amid retries, while a callback and a dead letter queue support observability.
Explore how consumer groups divide topic partitions to scale data processing, understand partition rebalancing strategies from eager to incremental cooperative, and master heartbeats and timeouts.
Master essential Kafka consumer parameters, including group id, auto offset reset (earliest or latest), enable auto commit, and key tuning knobs like fetch min bytes, max poll records, and timeouts.
Master offset management to control when a message is considered complete in a data stream. Explore auto-commit risks, synchronous and asynchronous commits, and external offsets for exactly-once processing.
Explore the poll loop powering a Kafka consumer with heartbeats, group coordination, backpressure via the poll duration, and how single-threaded operation and decoupled processing manage offsets, ordering, rebalance.
Design resilient consumption by wrapping deserializers to catch deserialization errors, log problematic bytes, and skip bad records. Use a dead letter queue with metadata and monitoring to maintain throughput.
Explore the processor topology of Kafka Streams as a directed acyclic graph of source, stream, and sink processors, with state stores, tasks, and threads enabling scalable, real-time data processing.
Explore the k-stream vs k-table duality in Apache Kafka, and learn how streams capture history while tables reflect the current state for real-time enrichment and dashboards.
Explore stateless operations in Kafka Streams, processing each record in isolation with minimal latency. Apply filter, map, flat map, branch, and select key to shape data with high throughput.
Utilize stateful operations and local state stores to maintain context across events, enabling real-time insights with running totals and stream joins, while changelog topics with log compaction ensure fault-tolerant recovery.
Master event time, ingestion time, and processing time to handle out-of-order data. Explore tumbling, hopping, and session windows for actionable streaming insights.
Explore ksqlDB architecture, a stream-processing specialized database built on Kafka Streams, enabling persistent SQL-like queries over live streams with scalable, fault-tolerant, real-time transformations, joins, and aggregations.
Distinguish streams and tables in ksqlDB, where streams are immutable event histories and tables reflect the current state via upserts. Use them together to build real-time, SQL-based analytical pipelines.
Explore how push queries provide continuous updates in a streaming database with sub-second latency, while pull queries deliver fast, point-in-time state from local stores, enabling a hybrid end-to-end experience.
Establish a secure foundation with authentication via SASL and Kerberos, then enforce authorization with ACLs and RBAC to uphold least privilege, and protect data in transit with TLS.
Apply role-based access control across the Confluent ecosystem with hierarchical scoping and standardized roles like System Admin, User Admin, and Developer to manage cluster, environment, and topic permissions.
This course contains the use of artificial intelligence.
This is an Unofficial Course.
This comprehensive course is designed to take you from a complete beginner to a confident, job-ready professional in Apache Kafka and real-time data streaming. In today’s data-driven world, organizations rely heavily on event-driven architectures to process massive volumes of data in real time, and Apache Kafka has become the industry standard for building scalable, fault-tolerant streaming platforms. This course provides a deep and practical understanding of Kafka’s core architecture, development workflows, and advanced stream processing capabilities, enabling you to build production-grade systems with confidence.
You will begin by developing a strong foundation in event streaming concepts and understanding how Kafka fits into modern distributed systems. You will explore the internal architecture of Kafka clusters, including brokers, topics, partitions, offsets, replication mechanisms, and the role of in-sync replicas in ensuring durability and high availability. The course also introduces essential components of the Confluent ecosystem, including the Schema Registry, helping you manage and evolve data schemas effectively in real-world scenarios.
As you progress, you will gain hands-on experience building Kafka producers and consumers, learning how messages are produced, partitioned, and delivered across distributed systems. You will master critical configuration settings, understand delivery guarantees such as at-most-once, at-least-once, and exactly-once semantics, and learn how to handle retries, failures, and edge cases that commonly occur in production environments. On the consumer side, you will explore consumer groups, partition rebalancing, offset management strategies, and efficient polling and threading models to ensure reliable and scalable data consumption.
The course goes beyond basic messaging by introducing Kafka Streams, a powerful library for building real-time stream processing applications. You will learn how to design and implement stream processing topologies, understand the differences between streams and tables, and apply both stateless and stateful operations. You will also explore advanced concepts such as state stores, time semantics, and windowing strategies, enabling you to process and analyze streaming data with precision and flexibility.
In addition to Kafka Streams, you will dive into ksqlDB, a SQL-based streaming platform that allows you to build stream processing applications using familiar query syntax. You will understand how to work with streams and tables in ksqlDB, differentiate between push and pull queries, and use it to simplify complex streaming use cases without writing extensive code.
Security is a critical aspect of any production system, and this course covers essential Confluent security concepts, including authentication, authorization, and role-based access control. You will learn how to secure your Kafka ecosystem and ensure that data access is properly managed across users and applications.
By the end of this course, you will have a complete understanding of Apache Kafka’s architecture and ecosystem, along with the practical skills needed to design, develop, and deploy real-time data streaming solutions.
Whether you are a developer, data engineer, or IT professional, this course equips you with the knowledge and confidence to work with Kafka in real-world environments and advance your career in modern data engineering.
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