Snowflake vs Presto

Snowflake vs Presto? Which is better for you?

As data volumes grow and analytics requirements become more complex, organizations are increasingly turning to cloud-native and distributed SQL engines to power insights at scale.

Among the most talked-about platforms in this space are Snowflake and Presto—two technologies with fundamentally different architectures but similar goals: making it easier to query large, diverse datasets.

Snowflake is a fully managed cloud data warehouse that excels in performance, elasticity, and ease of use.

It’s particularly popular with organizations looking for an all-in-one platform that handles storage, compute, and security without heavy operational overhead.

Presto, on the other hand, is a powerful open-source distributed SQL query engine.

Designed for interactive queries across heterogeneous data sources, Presto gives data teams flexibility to run federated queries across data lakes, databases, and more—without ingesting or moving data.

This comparison aims to help data engineers, architects, and analysts understand the strengths and trade-offs between the two platforms, and decide which tool better aligns with their architecture and business needs.

If you’re also considering other platforms, check out our comparisons on Presto vs Dremio and Presto vs Trino to understand where each fits.

For more insights on cloud-native architectures, you may find these resources useful:

Let’s dive into the technical and strategic differences between Snowflake and Presto.


What is Snowflake?

Snowflake is a cloud-native data warehouse-as-a-service that enables organizations to store, manage, and analyze vast amounts of data without the operational complexity of traditional data warehousing solutions.

Launched in 2014, Snowflake has quickly become a leader in the cloud analytics space due to its simplicity, performance, and scalability.

At its core, Snowflake features a multi-cluster shared data architecture, which separates compute and storage.

This allows organizations to independently scale each component based on workload requirements—ensuring predictable performance and cost efficiency.

Key Characteristics:

  • Cloud-native architecture: Snowflake is not ported from an on-premise system; it was built from the ground up for the cloud.

  • Separation of compute and storage: Users can scale workloads independently, supporting use cases from ELT pipelines to real-time analytics.

  • Fully managed: No infrastructure to manage—Snowflake handles provisioning, tuning, scaling, and security.

  • Cross-cloud support: Available on AWS, Microsoft Azure, and Google Cloud Platform, allowing for multi-cloud and cross-region capabilities.

  • Data sharing and collaboration: With features like the Snowflake Data Marketplace, organizations can securely share live data across departments or with external partners.

Snowflake is widely used for a variety of analytics workloads including BI dashboards, data science, and operational reporting.

It also integrates seamlessly with popular tools like Tableau, Power BI, and dbt.

For a deeper look into Snowflake’s architecture, check out Snowflake’s official architecture guide.


What is Presto?

Presto is an open-source distributed SQL query engine designed for fast, interactive analytics over large-scale data sets.

Originally developed at Facebook (now Meta) in 2012, Presto was created to replace Hive for low-latency queries on big data.

It quickly gained popularity across the industry due to its speed, scalability, and ability to query data across diverse storage systems.

Unlike traditional data warehouses, Presto does not store data.

Instead, it enables users to run SQL queries directly on data where it lives—whether that’s in S3, HDFS, MySQL, Cassandra, Hive, or other sources.

This federated query capability makes it ideal for modern data lake architectures.

Key Characteristics:

  • Distributed architecture: Presto uses a coordinator and multiple workers to parallelize and execute queries efficiently across massive data sets.

  • Federated querying: Supports querying multiple data sources simultaneously without moving or copying data.

  • ANSI SQL compliant: Offers full support for complex SQL operations, making it accessible for analysts and data engineers.

  • No data storage layer: Presto is stateless and read-only, focusing solely on query execution.

  • Flexible deployment: Can be run on-premise or in the cloud, and is often embedded in larger platforms like Starburst and Trino.

The project has also evolved into multiple variants. Notably:

  • Trino (formerly PrestoSQL), maintained by the original creators of Presto, has introduced rapid innovation and broader ecosystem support.

  • Starburst provides an enterprise-ready distribution of Trino with added security, performance, and governance features.

Learn more about how Presto works in our related guide: Presto vs Trino


Snowflake vs Presto: Core Architecture

Firstly, Snowflake and Presto take fundamentally different architectural approaches to solving analytics challenges.

Snowflake is a fully managed cloud data warehouse, while Presto is a query engine that operates across distributed data sources without persisting any data.

The table below highlights key architectural differences:

FeatureSnowflakePresto
Architecture TypeCloud-native, multi-cluster shared data architectureMPP (Massively Parallel Processing) query engine
Data StorageBuilt-in (separates compute and storage)None (queries external sources)
Deployment ModelFully managed SaaS (AWS, Azure, GCP)Self-hosted or vendor-managed (e.g., Starburst, Ahana)
Query ExecutionOptimized within Snowflake’s controlled environmentDistributed across data nodes via workers
ElasticityAuto-scaling compute clustersManual scaling of workers and coordinator
CachingAutomatic result and metadata cachingNo built-in caching (Starburst/Trino can add this)

Key Takeaways:

  • Snowflake abstracts away infrastructure, storage, and performance tuning—making it an excellent fit for teams wanting simplicity and managed services.

  • Presto shines in data lake and federated environments, allowing teams to query across heterogeneous sources without needing to move data into a warehouse.

Looking for a deeper comparison of federated engines? Check out Presto vs Dremio, where we explore query performance across distributed sources.

Up next, we’ll dive into performance and optimization differences between these two platforms.


Snowflake vs Presto: Performance and Query Execution

When evaluating Snowflake vs Presto for analytics workloads, performance is often a deciding factor.

While both systems utilize MPP (Massively Parallel Processing) architectures, their approaches to execution and performance tuning differ significantly due to their design philosophies.

Snowflake

Snowflake is engineered for predictable, high-performance workloads.

As a fully managed SaaS platform, it automates much of the heavy lifting involved in optimizing queries:

  • Automatic Performance Tuning: Snowflake automatically selects optimal execution plans, handles indexing behind the scenes, and tunes queries without user intervention.

  • Materialized Views & Result Caching: Repeated queries benefit from automatic result caching, drastically reducing latency. Materialized views further accelerate complex transformations.

  • Clustering Keys: While Snowflake doesn’t require users to define indexes, clustering keys help optimize large table scans by organizing data storage for faster filtering.

  • Compute Scaling: Virtual warehouses can scale horizontally and vertically, enabling concurrent queries without resource contention.

Snowflake performs especially well for batch analytics, scheduled workloads, and BI dashboards.

Performance is consistent due to its isolation of compute from storage and strong SLAs.

Presto

Presto, in contrast, is a high-performance SQL engine that excels in federated and exploratory querying over large, distributed datasets.

However, its performance is more sensitive to deployment configuration and data locality:

  • MPP Execution: Like Snowflake, Presto splits queries into stages and tasks, distributing them across worker nodes. But Presto does not own the data—it queries in-place across external sources.

  • High Concurrency: Presto is designed for interactive analytics and can handle thousands of concurrent queries, making it well-suited for data exploration by analysts.

  • No Native Acceleration Layer: Unlike Snowflake, Presto lacks built-in caching or materialized views. However, platforms like Starburst or Trino (a fork of PrestoSQL) add smart caching and cost-based optimization layers.

  • Infrastructure-Dependent: Performance depends heavily on how Presto is deployed—number of nodes, network speed, and tuning of connector settings all impact query speed.

Presto is ideal when querying across S3, Hive, Kafka, MySQL, and other sources without replicating data.

However, for extremely large joins or complex aggregations, Presto may require infrastructure tuning or additional tooling to match Snowflake’s consistency.

Summary

FeatureSnowflakePresto
TuningFully automaticManual (unless using Starburst/Trino)
CachingResult caching & materialized viewsNo native caching (vendor-dependent)
ConcurrencyIsolated compute for high concurrencyHigh concurrency across workers
Data LocalityData stored in SnowflakeReads from external systems
Ideal UseDashboards, batch pipelines, mixed workloadsFederated queries, data lake analytics

If your team prioritizes consistency, minimal ops, and performance out-of-the-box, Snowflake is hard to beat.

But if you’re working with diverse data sources and want flexibility without duplicating data, Presto offers impressive speed with the right setup.


Snowflake vs Presto: Data Source Support

When comparing Snowflake vs Presto, one of the key distinctions lies in how each system interacts with external data.

Snowflake is a data warehouse that expects data to be ingested and transformed before querying.

Presto, on the other hand, is a federated query engine that excels at querying data in place across various systems.

Snowflake

Snowflake is built to handle structured and semi-structured data efficiently within its managed storage layer:

  • Supported Formats: Works seamlessly with CSV, JSON, Avro, ORC, and Parquet. Semi-structured data is stored in VARIANT columns and queried using SQL extensions like FLATTEN.

  • Data Ingestion: Data must be loaded into Snowflake using tools like Snowpipe, COPY INTO, or partner integrations (e.g., Fivetran, dbt). This implies some level of ETL/ELT or data replication.

  • Third-Party Integration: While Snowflake integrates with many tools (like Informatica, Talend, Airbyte), it still relies on ingestion pipelines to bring data into its ecosystem before it can be queried.

Snowflake’s architecture favors teams that centralize their data into a single analytical warehouse.

Presto

Presto is purpose-built for distributed and federated querying, making it ideal for modern data lake and hybrid data architectures:

  • Federated Querying: Natively supports querying across multiple sources such as:

    • Hive, HDFS

    • MySQL, PostgreSQL

    • Cassandra, MongoDB

    • S3, GCS, Azure Data Lake

    • Kafka and other streaming sources

  • No Data Movement: Unlike Snowflake, Presto doesn’t require you to ingest or replicate your data. It queries in place, which is a huge advantage for data mesh and decentralized architectures.

  • Data Lake Ready: Presto can directly query open table formats like Apache Iceberg and Delta Lake when using platforms like Trino or Starburst, making it ideal for lakehouse environments.

This flexibility makes Presto especially attractive to organizations that operate in multi-cloud, hybrid, or decentralized data environments.

Summary

FeatureSnowflakePresto
Data AccessRequires loading into SnowflakeQueries external sources directly
Supported FormatsCSV, JSON, Parquet, ORC (after ingestion)Native access to Hive, S3, Kafka, RDBMS, and more
Federated QueriesNoYes
Ideal ForCentralized data warehouse usersOrganizations with distributed or lake-based architectures

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