On paper, their capabilities look remarkably similar: three big names promising unified data, analytics, and machine learning without the old headaches. But if you work day-to-day with just one of these platforms, you might be wondering:
If any of these questions pique your interest, you’re in the right place. This guide lays out how Databricks, Fabric, and Snowflake compare in practice, so you can understand the landscape better. Which platform actually fits your team’s skills, your company’s stack, and the way you want to work?
If you’re searching for clarity before diving into the technical trenches or spending months trialing each tool, this overview will help get your bearings.
Databricks was created by the original team behind Apache Spark, aiming to make large-scale data processing accessible in the cloud without the pain of managing servers or distributed clusters. From the start, Databricks was designed for engineers who write code - Python, SQL, Scala, or R - building custom pipelines, ETL, and analytics. Users deploy it on AWS, Azure, or GCP, and while Databricks manages much of the Spark overhead dependencies for you, your real data still physically lives in the cloud vendor’s storage services (like S3, Azure Data Lake, or Google Cloud Storage). The platform offers flexibility and control: engineers interact directly with cloud storage formats (like Delta Lake), orchestration, and open-source ML tools. If your team wants custom Spark workloads, needs granular engineering control, or wants portability between cloud providers, Databricks is designed for that code-first, cloud-integrated experience.
Fabric is Microsoft’s answer to the sprawl of separate services in the modern data ecosystem. Launched in 2023, it bundles together Azure Synapse, Data Factory, Power BI, and more into a single analytics SaaS product that runs exclusively on Azure. Data of any type - structured, semi-structured, streaming - always lands in Microsoft’s managed storage layer (OneLake). Both engineers and analysts work in the same environment: code-first options like Spark notebooks coexist with low-code options like Dataflows and Pipelines, while reporting and dashboarding rely on Power BI built into the platform. Microsoft handles the infrastructure, security, and governance. The experience is highly integrated for organizations already invested in Azure and Microsoft 365, with identity, access, and compliance managed automatically behind the scenes.
Snowflake was built from the ground up as a managed cloud data warehouse platform, with simplicity and scalability at the core. Though you never see it directly, Snowflake also runs on top of AWS, Azure, or GCP - your tables, files, and queries are all processed on infrastructure managed by these cloud providers. But Snowflake abstracts all infrastructure, storage, and management: users interact through SQL and web interfaces, not clusters or storage buckets. This serverless approach is ideal for teams that want to focus on analytics and BI, not on deployment or tuning. When it comes to machine learning, Snowflake can execute certain ML workloads in-database (using SQL or Snowpark APIs), but heavier or GPU-based work is done externally - leveraging full-featured ML services in Azure, AWS, or GCP, and then reading or writing results back to Snowflake. This makes Snowflake a strong choice for teams that want the least infrastructure overhead, the highest ease of use, and are comfortable plugging into the broad cloud ecosystem for advanced use cases.
All three platforms are deeply linked to the big cloud vendors for compute and storage. The real distinction is in how you work:
Timeline of key product milestones for Snowflake, Databricks, and Microsoft Fabric, illustrating how each platform has evolved and expanded across the cloud data landscape from 2012 to 2023.
If you line up the feature sheets, it’s easy to think Databricks, Fabric, and Snowflake are simply variations on a theme. Each one claims:
It’s not marketing fluff: for most core analytics workloads, all three can get the job done. If you build a checklist of techniques, core platform modules, and daily engineering needs, you’ll check nearly all the same boxes for Databricks, Fabric, and Snowflake.Below, you’ll see that nearly every foundational technique or capability is present in each platform - at least in some form.
But don’t confuse surface-level parity for true equivalence, it’s the underlying architecture, workflow, and team habits that expose meaningful differences.
Almost every major workflow, from data landing through to analytics and dashboarding, can be achieved in more than one way, on all three stacks:
To make this even clearer, each platform’s foundational building blocks have close analogs, even though the terminology and details may differ. If you come from an ETL, data science, or BI background, chances are you’ll find something familiar in every stack, even if the specifics can trip you up the first time around.
Below, I’ve mapped out the main workflow steps across Databricks, Fabric, and Snowflake. This isn’t meant to be an exhaustive or granular feature checklist, but more of a cross-reference: here’s what this capability looks like on each platform, and what it’s called in practice.
Data Platform Step | Databricks | Microsoft Fabric | Snowflake |
Batch Ingestion | Auto Loader (file-based), Delta Live Tables (managed batch/stream), Notebooks (custom ETL) | Dataflows (low-code), Data Factory Pipelines (ETL/ELT | Snowpipe, Partner ETL Tools |
Streaming Ingestion | Structured Streaming | Eventstream (Fabric-native), Event Hubs (external) | Snowpipe Streaming (in preview, limited compared to Databricks), Streams & Tasks (for CDC), Kafka Connector (via partner/API) |
Data Lake/Storage Layer | Delta Lake (open format, direct access in S3/ADLS/GCS) | OneLake (Delta Lake format, Azure-managed, no direct file access | Managed storage (columnar, proprietary), External Tables (Iceberg/Parquet, limited DML/time travel) |
Transformation/Processing | Notebooks (Python, SQL, Scala, R), Delta Live Tables | Spark Notebooks (code), Dataflows (GUI), Pipelines (SaaS orchestration) | SQL Tasks, Streams, Snowpark (Python, Java. Scala), Materialized Views SQL Tasks, Streams (CDC/ELT), Snowpark (limited Python/Java/Scala, not full-featured Spark), Materialized Views |
Orchestration | Workflows, Jobs API, Delta Live Tables, dbt Cloud | Pipelines, Data Factory Schedules | Tasks & Streams (basic scheduling/CD; Airflow, dbt, etc. for complex workflows) |
Data Warehouse Layer | Databricks SQL Warehouse, Delta Gold tables | Synapse Data Warehouse, Lakehouse Endpoints | Virtual Warehouses |
Machine Learning/DS | MLflow, Feature Store, Notebooks (all within Databricks platform, end-to-end pipeline) | Azure ML (external; orchestrate from Fabric), Synapse Data Science (preview, limited) | Snowpark (in-database ML, limited), UDFs, Cortex (native simple ML); advanced ML off-platform (Azure ML, AWS SageMaker, etc.) |
Business Intelligence | Databricks Dashboards (basic, native), Power BI/Tableau/Looker (external, most use this) | Power BI (deeply embedded, full feature set native) | Streamlit (native, for web apps; not full BI), Snowsight (exploration), Power BI/Tableau/Looker (external, common for BI) |
Data Sharing | Delta Sharing, Unity Catalog | Fabric API, OneLake sharing, Power BI sharing | Secure Data Sharing, Marketplace |
Governance & Catalog | Unity Catalog (growing, covers tables/files/ML, some features in preview/post-GA) | Fabric: Microsoft Purview Microsft Purview (enterprise-grade, covers Azure services broadly, not just Fabric) | Built-in Catalog/Tagging/Masking (less extensive than Purview/Unity for cross-service lineage) |
Security/Identity | Unity (data-level), Entra ID, Key Vault (by cloud) | Azure AD (Entra ID), Key Vault | RBAC, SAML/SSO, Key Management |
Databricks, Fabric, and Snowflake each promise you can do it all: ingest, transform, analyze, and serve data at any scale. But once you get past the feature lists, it quickly becomes clear that the best choice often comes down to how your team actually likes to work. The tools may cover similar ground, but the day-to-day experience can feel very different, depending on your technical preferences, cloud commitments, and appetite for customization.
You’ll get similar foundational building blocks in each, but the experience is different in practice, since some workflows or expectations may require more adaptation on certain platforms.
In the next blog, we’ll break down not just what these platforms say they do, but how everyday engineering, data science, and BI teams actually experience them - quirks, wins, and workflow surprises included. Whether you’re preparing for a migration, architecting a new stack, or just trying to involve yourself in the ongoing data-debates, these hands-on differences are the ones that really matter
Data Engineer at Xomnia