When it comes to modern data science platforms, Snowflake and Databricks are two industry leaders. Their solutions help enterprises with evolving data management and analytics needs. Understanding the distinctions between Azure Databricks vs Snowflake and the unique strengths of each platform is crucial for organizations that want to optimize their data strategy.
This comparison between Databricks Lakehouse and Snowflake will explore architecture, capabilities, core technology, ML, use cases, pricing, and ecosystem integrations, helping you make an informed choice.
Overview of Snowflake and Databricks Lakehouse
Snowflake is a cloud-native data warehousing platform designed to deliver high-performance SQL analytics at scale. It offers a fully managed, multi-cluster shared data architecture with strong data governance and seamless elasticity.
Databricks, on the other hand, is built around Apache Spark and promotes a lakehouse architecture, combining data lake flexibility with data warehouse reliability. Azure Databricks, specifically, is a first-party Microsoft Azure service tightly integrated with the Azure cloud.
TL;DR
- Snowflake is a cloud-native data warehouse with separate compute and storage. On the other hand, Databricks is a unified platform combining data lakes and data warehouses.
- Snowflake excels at scalable, high-performance SQL analytics and data sharing. Databricks is better suited for data engineering, machine learning (ML), and real-time analytics workflows.
- Azure Databricks provides deep native integration specifically within the Microsoft Azure ecosystem. Whereas, Snowflake supports multi-cloud environments (AWS, Azure, GCP).
Key Differences Between Databricks and Snowflake
Architecture and Data Management
- Snowflake Architecture: Snowflake separates compute from storage, enabling independent scaling of both. It leverages a multi-cluster shared data approach, allowing concurrent workloads without contention. Data is stored in optimized and compressed formats in cloud storage (e.g., Azure Blob, AWS S3), and SQL is the primary query language. Snowflake’s architecture delivers consistent query performance for structured and semi-structured data.
- Databricks Lakehouse Architecture: Databricks implements a unified platform combining data lakes and data warehouses, enabling batch and streaming analytics on the same system. Its core engine is Apache Spark, supporting multiple languages (Python, Scala, SQL, R). The lakehouse model allows data scientists and engineers to work with raw data without traditional ETL constraints, facilitating AI/ML workflows alongside BI.
Performance and Scalability
- Snowflake Performance: Snowflake automatically manages clustering and optimizes storage with micro-partitions, which improves query speed without manual tuning. Its elastic compute clusters can auto-scale to handle concurrency spikes, making it ideal for heavy BI and reporting workloads.
- Databricks Performance: Databricks optimizes Apache Spark with Photon, a native vectorized query engine, and offers optimized Delta Lake storage that enhances performance for streaming and batch workloads. Its collaborative notebooks enable rapid development and experimentation. The platform scales horizontally by adding more Spark executors, suitable for data engineering and ML pipelines.
Data Integration and Ecosystem Compatibility
Snowflake offers native connectors with popular ETL/ELT tools and BI platforms like Tableau and Power BI. It supports data sharing across accounts and clouds. Its seamless integration with Azure Synapse, AWS, and Google Cloud Platform (GCP) enables multi-cloud strategies.
Azure Databricks deeply integrates with Azure services such as Azure Data Lake Storage (ADLS), Azure Machine Learning, and Azure Synapse Analytics, creating a unified analytics ecosystem within Azure. It also supports open-source tools, promoting flexibility in data ingestion and model deployment.
Learn more about cloud analytics toolchains in Top Data Integration Tools.
Security and Governance
Snowflake features robust security with automatic data encryption at rest and in transit, role-based access controls, and dynamic data masking. Its governance framework supports data lineage, auditing, and compliance certifications (HIPAA, SOC 2, GDPR).
Databricks offers enterprise-grade security with Azure’s controls and adds fine-grained access controls in Delta Lake. It supports Unity Catalog for centralized governance, ensuring secure data access and cataloging across the lakehouse environment.
For a deep dive, see Data Security Best Practices for Cloud Platforms.
Comparison Table: Azure Databricks vs Snowflake
| Features |
Snowflake |
Databricks (Azure Databricks) |
| Ease of Use |
Highly user-friendly, SQL-based |
Requires Spark knowledge; notebook-driven workflows |
| Primary Focus |
Data warehousing and business intelligence (SQL analytics, BI reporting, data sharing) |
Data science, machine learning, big data processing, streaming analytics |
| Platform Type |
Cloud Data Warehouse |
Lakehouse Platform (Data Lake + Data Warehouse) |
| Core Technology |
SQL-based, multi-cluster shared data architecture |
Apache Spark-based Unified Analytics Engine |
| Machine Learning |
Basic support via integrations |
Built-in ML tools and frameworks (MLflow, TensorFlow, PyTorch) |
| Cloud Integrations |
Multi-cloud: AWS, Azure, GCP |
Deep integration with Azure services (ADLS, Azure ML, Synapse) |
| Architecture |
Separates compute and storage; auto-scaling compute clusters |
Unified storage & compute with Delta Lake, scalable Spark clusters |
| Performance Optimization |
Automatic clustering, micro-partitions, query optimization |
Photon engine, vectorized query execution, Delta Lake optimization |
| Data Formats Supported |
Structured & semi-structured (JSON, Avro, Parquet) |
Structured, semi-structured, unstructured, streaming |
| Languages Supported |
SQL |
SQL, Python, Scala, R, Java |
| Data Governance & Security |
Role-based access control, encryption, dynamic masking, and compliance certifications |
Unity Catalog for governance, Azure security features, and fine-grained access control |
| Collaboration |
Data sharing across accounts, SQL worksheets |
Collaborative notebooks, ML workflows, and version control |
| Integration with BI Tools |
Tableau, Power BI, Looker, etc. |
Power BI, Tableau, plus support for ML frameworks |
| Support for Streaming Data |
Limited (via Snowpipe and partners) |
Native streaming analytics with Spark Structured Streaming |
| Multi-cloud Support |
Yes |
Primarily cloud-specific (Azure for Azure Databricks) |
| Ideal For |
Enterprises focused on scalable SQL analytics and BI |
Organizations focused on integrated AI, ML, and data engineering |
| Cost Model |
Pay for compute & storage separately; usage-based |
Pay per DBU (Databricks Units) + cloud infrastructure costs |
| Pricing |
Starting from $2.00/ per credit |
Price on request |
Use Cases and Industry Adoption
- Snowflake Use Cases: Ideal for enterprises prioritizing fast, reliable SQL analytics, data sharing, and easy scalability for BI dashboards, financial reporting, and data monetization. Industries like finance, retail, and healthcare leverage Snowflake widely for compliance and performance.
- Databricks Use Cases: Data scientists and engineers who need to integrate data engineering, AI, and ML workflows often rely on Databricks. It’s commonly used in IoT analytics, real-time fraud detection, and advanced analytics pipelines.
Explore more industry-specific solutions in our Business Intelligence Software category.
Pricing: Snowflake vs Databricks
Snowflake charges separately for compute and storage, with on-demand scaling. Its usage-based pricing is straightforward for SQL query workloads, but can become costly under heavy concurrency.
Snowflake provides the option of choosing regions and platforms among three: AWS, Azure, and GCP. Based on these choices and four plans, Standard, Enterprise, Business Critical, and Virtual Private Snowflake (VPS) pricing is decided.
Databricks pricing depends on the number of Databricks Units (DBUs) consumed, which are tied to compute resources and usage time, plus cloud infrastructure costs. It offers flexibility for experimental projects but requires careful cost monitoring.
Final Verdict: Which Is Better, Snowflake or Databricks?
There is no one-size-fits-all answer. Snowflake excels in delivering a cloud data warehouse that is simple to use and powerful for analytics on structured data. Databricks shines in handling complex, large-scale data science and machine learning tasks with real-time capabilities. Your choice should align with your organization's technical expertise, primary data workloads, and analytical goals.
Choosing between Snowflake vs Databricks Lakehouse depends on your organization’s priorities:
- Opt for Snowflake if your primary need is a scalable and fully managed data warehouse with excellent SQL support and data sharing capabilities.
- Choose Databricks when your focus is on unifying data engineering, data science, and machine learning with flexibility over raw data in a lakehouse environment.
For enterprises leveraging Microsoft Azure, the decision often boils down to Azure Databricks vs Snowflake integration benefits and existing cloud investments.
If you’re still confused, explore our comprehensive reviews on Best Data Warehousing Solutions and Top Data Science Platforms to find the perfect fit.