Many industry leaders, like Shell or Adobe, along with thousands of other data-driven companies, have turned to Databricks to steer their strategic business decisions. In this article, we’ll tell you what Databricks is used for and why many organizations continue to choose it.
Databricks is a powerful analytics platform that offers a unified suite of tools for data engineering, data management, data science, and machine learning. It combines the best features of a data warehouse — a centralized hub for structured data — with a data lake that stores vast amounts of raw data. So, what is Databricks used for? Here are four primary applications of the platform:
Databricks can truly change the way you manage and analyze information across your organization. To find out more about the capabilities and advantages of Databricks, check out our article about Databricks ETL.
As you know, Databricks offers both a data warehouse and a data lake. It handles structured and unstructured data, supports various workloads, and serves all members of the data science team, from data engineers to data analysts to machine learning engineers.
Databricks advantages include:
Databricks simplifies big data analytics for enterprises. Built around Spark, it processes large volumes of data in batches and micro-batches for near-real-time computation. Pre-integrated with numerous data engineering, data science, and ML tools, Databricks lets you accomplish almost any data-related task on a single platform.
Databricks doesn’t require you to move data to a proprietary system. Instead, it connects to your cloud account — whether on Google, Azure, or AWS. Your organization can adopt a multi-cloud strategy, avoiding vendor lock-in.
Databricks effectively manages the entire ML lifecycle, from data preparation to deployment, reducing the time to production for AI applications.
Databricks Runtime for machine learning automatically sets up a cluster configured for ML projects. Pre-built with popular ML libraries like TensorFlow, PyTorch, Keras, MLlib, and XGBoost, and equipped with Horovod for distributed deep learning training, the platform boosts ML development.
Databricks operates from two cloud environments: the operational plane and the data plane. The data plane is your cloud account where data and computing resources reside. All data processing happens here, ensuring data never leaves your account. The control plane is a Databricks account created with your cloud provider for managing workspaces, notebooks, queries, jobs, and clusters. It includes security Databricks features like access controls and network protection.
Databricks offers extensive tutorials, quickstarts, how-to articles, and best practices guides on their official website. Documentation is tailored for AWS, Google Cloud, and Azure, addressing each platform’s features.
Databricks also maintains a unified knowledge base, where users can search for answers or solutions regardless of their cloud provider. If you can’t find what you need, you can suggest new topics for future articles and wait for feedback.
In addition to Databrick’s advantages, it’s important to highlight the challenges users may face to give a balanced perspective.
Despite its detailed documentation and intention to simplify data processing, many users find Databricks’ lakehouse platform daunting to master. The sheer variety of tools, integrations, and features is overwhelming, especially since it lacks intuitive visualization and drag-and-drop functionalities.
Setting up Databricks is another challenge. Even tech-savvy users sometimes describe the process as “complex”, “confusing”, or “time-consuming”, often taking anywhere from several hours to several days. The setup typically requires the expertise of data engineers, machine learning engineers, and other tech specialists, depending on the intended use.
Databricks supports SQL, R, Python, and Scala, but it was built around Spark, which is written in Scala running on Java Virtual Machine (JVM). This means commands issued in non-JVM languages need extra transformations to run on a JVM process. As a result, Scala often outperforms Python and R in speed, but its complexity and lower popularity make it hard to find skilled Scala programmers.
Think of Databricks as a premium, managed version of Apache Spark. While it offers a secure, collaborative environment with different services and integrations, these enhancements come at a cost. Small data projects find it difficult to justify the expense. However, Databricks charges based on consumption, so learning to optimize its use from the start can help manage costs effectively.
Being a commercial product, Databricks has a smaller user community compared to some free tools. There are fewer forums and resources for troubleshooting issues. For instance, StackOverflow hosts only about 500 Databricks-related questions, and the Databricks subreddit has just 342 members. However, the official Databricks Community Home offers a platform for asking questions, starting discussions, and receiving expert advice, although it’s not vast.
Despite the smaller community, Databricks is known for its excellent technical support, so the size of the community isn’t a significant drawback if you need professional assistance rather than peer discussions.
Let’s explore the closest Databricks alternatives.
Databricks and Snowflake are both cloud-agnostic, autoscaling data platforms that combine the strengths of a data warehouse and a data lake. Databricks is a platform-as-a-service (PaaS) aimed at data engineers and scientists, while Snowflake is a software-as-a-service (SaaS) designed for data warehousing and analysts.
Unsurprisingly, Databricks shines in data engineering and machine learning, while Snowflake dominates in business intelligence. Some large enterprises use both: Databricks for ML workloads and Snowflake for BI and traditional analytics.
Azure Synapse merges enterprise data warehousing, big data processing with Apache Spark, and tools for BI and machine learning. Like Databricks, it’s an end-to-end analytics solution but lacks cross-cloud portability. It also doesn’t offer a collaborative environment or versioning and has a narrower scope.
On the plus side, Azure Synapse is simpler, easier to set up, and less feature-heavy. It’s ideal for companies focusing on traditional data analysis with SQL.
AWS SageMaker and Databricks both target the machine learning sector, simplifying the building, training, and deployment of ML models. SageMaker supports Jupyter Notebooks and integrates with numerous AWS tools, storing all data projects in S3. It’s particularly praised for easy and quick ML deployment.
If you’re already using Amazon and focusing on ML development without handling diverse data, SageMaker is a solid option. Otherwise, Databricks, with its big data capabilities, is a better fit.
Cloudera also positions itself as a data lake house but uses Apache Iceberg instead of Delta Lake to solve data lake challenges. Created by Netflix and later open-sourced, Apache Iceberg is a key component of Cloudera’s architecture, which also includes a unified data fabric and supports a scalable data mesh.
The two platforms differ significantly in their use cases. Databricks zeroes in on data engineering and science, while Cloudera emphasizes data integration and management.
If you want to know how to use Databricks efficiently, it’s better to adopt these best practices prepared by our professional ETL consultant:
And don’t forget to foster a collaborative culture where team members share insights and best practices. If you need additional tips and best practices on maximizing the benefits of Databricks, feel free to take advantage of our data migration service — your source of free yet comprehensive ETL migration consultancy.
So, why use Databricks? The answer is simple — it’s a powerful platform that brings together the best aspects of data warehousing and data lakes, excelling particularly in machine learning and MLOps. However, its steep learning curve, setup complexity, and costs are challenging for many developers. Alternatives offer capabilities that may better suit different project demands. Ultimately, the choice comes down to understanding Databrick’s pros and cons, your specific requirements, and the expertise of your team.
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