A Data Pipeline is a system for transporting data from one location (the source) to another (the destination) (such as a data warehouse). Data is transformed and optimized along the way, eventually reaching a state that can be analyzed and used to develop business insights.

Apache Spark is a large-scale data processing open-source unified analytics engine. Apache Spark is a programming interface for clusters that includes implicit data parallelism and fault tolerance. The Apache Spark codebase was originally developed at the University of California, Berkeley’s AMPLab, and later donated to the Apache Software Foundation, which has since maintained it.

This blog talks about how to build a scalable, reliable, and fault-tolerant Apache Spark Data Pipeline that can fetch event-based data and stream it in near real-time.

A Data Pipeline is a series of steps that ingest raw data from various sources and transport it to a storage and analysis location. The data is ingested at the start of the pipeline if it has not yet been loaded into the data platform. Then there’s a series of steps, each producing an output that becomes the input for the next step. This will go on until the pipeline is finished. Independent steps may be run in parallel in some cases.

Data Transformation, Augmentation, Enrichment, Filtering, Grouping, Aggregation, and the application of algorithms to that data are all common steps in Data Pipelines.

Filtering and features that provide resiliency against failure may also be included in a pipeline.

Maximize Data Reliability with Hevo’s No-Code Data Pipelines

With Hevo Data, you can easily manage data from various sources, ensuring consistency and reliability across your workflows—just like Spark’s fault tolerance. Empower your data-driven decisions with Hevo’s no-code platform.

Hevo offers:

Thousands of customers worldwide trust Hevo for their data ingestion needs. Join them and experience seamless data ingestion.

Get Started with Hevo for Free

What is Apache Spark?

spark data pipeline: apache spark logo

Apache Spark began as a research project at UC Berkley’s AMPLab, a collaboration of students, researchers, and faculty focusing on data-intensive application domains, in 2009. Apache Spark’s goal was to create a new framework that was optimized for fast iterative processing like Machine Learning and interactive Data Analysis while retaining Hadoop MapReduce’s scalability and fault tolerance.

Apache Spark was open-sourced in June 2010. In June 2013, Apache Spark was accepted into the Apache Software Foundation’s (ASF) incubation program, and in February 2014, it was named an Apache Top-Level Project. Apache Spark can run standalone, on Apache Mesos, or on Apache Hadoop, which is the most common configuration.

Apache Spark is a distributed processing system for big data workloads. For quick analytic queries against any size of data, it uses in-memory caching and optimized query execution. It supports code reuse across multiple workloads, including Batch Processing, Interactive Queries, Real-Time Analytics, Machine Learning, and Graph Processing. It also provides development APIs in Java, Scala, Python, and R.

Apache Spark is now one of the most popular projects in the Hadoop ecosystem, with many companies using it in conjunction with Hadoop to process large amounts of data.

By performing processing in memory, reducing the number of steps in a job, and reusing data across multiple parallel operations, Apache Spark was created to address the limitations of MapReduce. With Spark, data is read into memory in a single step, operations are performed, and the results are written back, resulting in significantly faster execution.

Apache Spark is now many times faster than MapReduce, especially when performing machine learning and interactive analytics.

Key Features of Apache Spark

Apache Spark provides the following rich features to ensure a hassle-free Data Analytics experience:

  • High Processing Capabilities: Apache Spark leverages Resilient Distributed Datasets (RDDs) to minimize the I/O operations compared to its peer MapReduce. Moreover, it offers 100 times faster memory performance; on disk, it operates with 10 times faster speed.
  • Easy Usage: Apache Spark allows you to work with numerous programming languages. Moreover, it offers 80 operators to simplify your development tasks. Apache Spark’s user interface is simple to understand and allows you to reuse the code for critical tasks like manipulating historical data, running ad-hoc queries, etc.
  • Fault Tolerance: RDDs allow Apache Spark to manage situations of node failure and safeguard your cluster from data loss. Moreover, it regularly stores the transformations and actions, empowering you to restart from the last checkpoint.
  • Real-Time Processing: Traditional tools like MapReduce allow for processing data only if available in Hadoop Clusters. On the other hand, Apache Spark uses multiple language-integrated robust APIs to support data processing in real time.

To learn more about Apache Spark, visit here.

spark data pipeline: features of apache spark

Key Benefits of Apache Spark

  • Fast: Apache Spark can run fast analytic queries against data of any size thanks to in-memory caching and optimized query execution.
  • Developer-Friendly: Apache Spark comes with native support for Java, Scala, R, and Python, giving you a wide range of languages to choose from when developing your applications. These APIs make it simple for your developers by hiding the complexity of distributed processing behind simple, high-level operators, significantly reducing the amount of code required.
  • Multiple Workloads: Apache Spark can handle various tasks, such as interactive queries, real-time analytics, machine learning, and graph processing. Multiple workloads can be seamlessly combined in one application.

How to Build Apache Spark Data Pipeline?

A Data Pipeline is a piece of software that collects data from various sources and organizes it so that it can be used strategically.

An Apache Spark Data Pipeline consists of building the following layers:

Data Ingestion

The first step in constructing a Data Pipeline is to collect data. Data Ingestion is a tool that allows you to load data into your pipeline. It entails transferring unstructured data from its source to a data processing system, where it can be stored and analyzed to aid in the making of data-driven business decisions.

To be effective, the Data Ingestion process must start with prioritizing data sources, validating individual files, and routing data streams to the correct destination. It must be well-designed to accommodate and upgrade new data sources, technology, and applications. It should also allow for rapid data consumption.

You can use Apache Flume, an open-source data ingestion tool. Apache Flume is a dependable distributed service for collecting, aggregating, and moving large amounts of log data efficiently.

Its functions are as follows:

  • Stream the Data: Import live streaming data from various sources into Hadoop for storage and analysis.
  • Insulate the System: When the rate of incoming data exceeds the rate at which data is written to the destination, buffer the storage platform.
  • Scale Horizontally: Add new data streams and volume to the system as needed.

Apache NiFi or Elastic Logstash are two other options. They can all take in data of any shape, size, or source.

Ingest your Data Now:

Integrate Oracle to Snowflake
Integrate PostgreSQL to BigQuery
Integrate MongoDB to Databricks
Integrate Salesforce to Redshift

Data Collector

The transport of data from the ingestion layer to the rest of the data pipeline is the focus of the Data Collector layer. To act as a mediator between all the programs that can send and receive messages, you can use Apache Kafka, which is a messaging system.

Apache Kafka can process and store data streams in a distributed replicated cluster in real-time.

For real-time analysis and rendering of streaming data, Kafka collaborates with Apache Storm, Apache HBase, and Apache Spark.

Moving data into and out of Apache Kafka involves four different components:

  • Topics: A topic is a user-defined category where messages are posted.
  • Producers: Messages are reported to one or more topics by producers.
  • Consumers: Consumers subscribe to topics and process the messages that are sent to them.
  • Brokers: Brokers are in charge of message data persistence and replication.

Data Processing

The main goal of this layer is to process the data collected in the previous layer. Layers assist in routing data to different destinations, classifying data flow, and acting as the first point of analytics.

Apache Spark is a fast, in-memory data processing engine that can be used for real-time data processing. It can run programs 100 times faster in memory or 10 times faster on disc than Hadoop MapReduce. Over 80 high-level operators are available in Spark, making it simple to create parallel apps. It’s also interactively usable from the Scala, Python, and R shells. Apache Spark can be used with Hadoop, Mesos, on its own, or in the cloud.

HDFS, Cassandra, HBase, and S3 are just a few of the data sources it can access.

Its elegant and expressive development APIs enable data workers to run streaming, machine learning, or SQL workloads that require fast iterative access to datasets efficiently.

Depending on your needs, you can use other platforms such as Apache Storm or Apache Flink.

Data Storage

This layer ensures that data is kept in the correct location based on usage. You may have stored your data in a relational database over time, but with the new big data enterprise applications, you should no longer assume that your persistence should be relational.

Different databases are required to handle the various types of data, but using multiple databases creates overhead issues.

You can use Polyglot persistence to power a single application with multiple databases. Polyglot Persistence has several advantages, including faster response times, data scaling, and a rich user experience.

HDFS, GFS, and Amazon S3 are examples of Data Storage tools.

Data Query

Strong analytic processing takes place in this layer. Apache Hive, Spark SQL, Amazon Redshift, and Presto are some of the analytics query tools available.

Apache Hive is a Data Warehouse for data summarization, ad-hoc querying, and analysis of large datasets built on top of Apache Hadoop. Apache Hive is used by data analysts to query, summarise, explore, and analyze data before turning it into actionable business insight.

Apache Hive assists in projecting structure onto Hadoop data and querying that data using SQL.

For data querying, you can use Spark SQL. Spark SQL is a structured data processing module for the Spark programming language.

Presto is an open-source distributed SQL query engine that can be used to run interactive analytic queries against a wide range of data sources.

Data Visualization

This layer is dedicated to the visualization of large amounts of data. You’ll need something that will grab people’s attention, draw them in, and help them understand your findings. Full Business Infographics are provided by the Data Visualization layer.

Using Data Visualization tools on the market, you can create Custom dashboards and Real-Time Dashboards based on your business requirements.

Tableau is a drag-and-drop data visualization tool that is one of the best available on the market today. Without any technical knowledge, Tableau users can create Charts, Maps, Tabular, Matrix reports, Stories, and Dashboards. You can turn big data into big ideas by quickly analyzing, visualizing, and sharing information, whether it’s structured or unstructured, petabytes or terabytes in size, with millions or billions of rows.

Kibana Dashboard can also be used as it shows a collection of visualizations that have already been saved. You can rearrange and resize the visualizations as needed, as well as save and share dashboards.

For Data Visualization, you can use intelligent agents, Angular.js, React.js, and recommender systems.

Conclusion

This article explains how to build Apache Spark Data Pipeline with different layers. It also describes Apache Spark and its features.

Hevo Data, a No-code Data Pipeline helps you transfer data from various data sources into a Data Warehouse of your choice for free in a fully-automated and secure manner without having to write the code repeatedly.

Learn more about the Spark data model by exploring our thorough guide on the Spark data model. It offers essential insights and best practices for effective use.

Hevo with its strong integration with 150+ sources(Including 60+ Free Sources), allows you to not only export & load data but also transform & enrich your data & make it analysis-ready in a jiffy.

You can try Hevo’s 14-day free trial. You can also have a look at the unbeatable pricing that will help you choose the right plan for your business needs!

FAQ on Apache Spark Data Pipeline

What is a Spark data pipeline?

A Spark data pipeline refers to the process of using Apache Spark, a distributed data processing engine, to create and manage a sequence of data processing tasks.

Is Spark used for ETL?

Yes, Spark is commonly used for ETL (Extract, Transform, Load) processes.

Why Kafka is used with Spark?

Apache Kafka is often used with Apache Spark for real-time data processing and streaming analytics.

Does Spark use SQL?

Yes, Apache Spark includes a SQL module called Spark SQL

What tool is Spark?

Apache Spark is an analytics engine used for large-scale data processing. It is a powerful open-source framework that provides APIs in multiple languages (Scala, Java, Python, and R) for distributed data processing

Harshitha Balasankula
Marketing Content Analyst, Hevo Data

Harshitha is a dedicated data analysis fanatic with a strong passion for data, software architecture, and technical writing. Her commitment to advancing the field motivates her to produce comprehensive articles on a wide range of topics within the data industry.