The Hydrolix Platform

Architected for massive scale without compromises on data quality, query performance, retention, or cost. Learn about the engine that gives you both real-time analytics and long-term insights on petabytes of data.

Stream

Stream data in real time, even during peak events generating tens of millions of events per second. 

Transform

Transform and optimize data before storage. Includes standardizing, enrichment, and masking.

Store

Store and retain data long-term in object storage. Cost-effective, high-availability data with massive compression and no data tiering.

Big data comes with big challenges. How do you balance performance, cost, and data fidelity? Hydrolix is purpose-built to handle these challenges without compromises.

High-volume streaming ingest

Ingest tens of millions of log lines per second in real time, with enterprises typically ingesting at least 1 billion log lines per day.

Long-term retention

Retain data 15 months by default. High-density compression and object storage allow you to keep petabyte-scale data for a fraction of the cost of other solutions.

Cost-optimized

Reduce costs compared to other solutions. Cost-optimized so you can keep all your data without compromises.

Full control

Built for your infrastructure
  • Choose fully managed or bring your own cloud (BYOC). Store your data in your object storage with no vendor lock-in or data egress.
  • Run Hydrolix infrastructure (with BYOC) in your own virtual private cloud (VPC) or in multiple clouds for greater control.
  • Compatible with all major clouds.
  • Use the visualization tools you prefer, including Grafana, Kibana, Superset, and Looker.
  • Integrate with the Apache Spark ecosystem, including Databricks, AWS EMR, and Microsoft Fabric.
  • SOC 2 and GDPR compliant, with granular role-based access control, row and column control, and strict separation between projects for increased data security.
Platform Benefits

Architected for performance and scale, not skyrocketing costs

Traditionally, enterprises have relied on costly, vertically-scaled hardware to deliver real-time analytics. For big data, this approach is challenging to scale and too expensive. Hydrolix combines the power of modern cloud computing with an engineering approach that maximizes the performance of distributed object storage.

All components are stateless and decoupled, allowing each subsystem to scale independently and without resource contention. For example, ingest scales to handle peak events. Meanwhile, you can scale up query during urgent investigations.

All components use massive parallelism to maximize the benefits of cloud computing. For example, a Hydrolix cluster can scale to hundreds of intake heads, all writing partitions in parallel for major events.

With columnar storage, you can query individual columns, leading to more efficient queries than row-based storage. Columnar storage also makes it possible to compress columns individually for greater compaction.

Advanced algorithms optimize compression for each column individually based on data type and other factors. Compression rates are typically 20x-50x, leading to faster read and write times and lower storage costs.

Partitions are small at ingest time (resulting in faster time to insights). Over time, an automated merge service runs in the background and optimizes partitions for improved compaction and query performance.

All components autoscale individually to meet demand, ensuring your infrastructure remains efficient. You can also manually scale to ensure optimal performance during major events or even scale down to zero to reduce compute and costs during off-peak times.

Data is written to object storage. In addition to being cost-effective, it is highly scalable for big data and long-term retention.

Real-time streaming and data transformation (streaming ETL) optimizes data for storage. This process includes standardizing, compressing, and partitioning data for optimized query performance.

Summary tables store real-time aggregations and metrics separate from raw data tables. Summary tables are updated as data is ingested, ensuring they remain highly accurate.

All data is partitioned by time, using partition pruning to make time-based queries efficient.

Transforms are write schemas used to configure how you index, enrich, standardize, normalize, and store incoming data from one or more sources to a given table. 

Data is immutable and append-only, ensuring data integrity and leading to faster reads and writes.

All components are stateless and decoupled, allowing each subsystem to scale independently and without resource contention. For example, ingest scales to handle peak events. Meanwhile, you can scale up query during urgent investigations. Learn More

All components use massive parallelism to maximize the benefits of cloud computing. For example, a Hydrolix cluster can scale to hundreds of intake heads, all writing partitions in parallel for major events. Learn More

With columnar storage, you can query individual columns, leading to more efficient queries than row-based storage. Columnar storage also makes it possible to compress columns individually for greater compaction. Learn More

Advanced algorithms optimize compression for each column individually based on data type and other factors. Compression rates are typically 20x-50x, leading to faster read and write times and lower storage costs. Learn More

Partitions are small at ingest time (resulting in faster time to insights). Over time, an automated merge service runs in the background and optimizes partitions for improved compaction and query performance. Learn More

All components autoscale individually to meet demand, ensuring your infrastructure remains efficient. You can also manually scale to ensure optimal performance during major events or even scale down to zero to reduce compute and costs during off-peak times. Learn More

Data is written to object storage. In addition to being cost-effective, it is highly scalable for big data and long-term retention. Learn More

Real-time streaming and data transformation (streaming ETL) optimizes data for storage. This process includes standardizing, compressing, and partitioning data for optimized query performance. Learn More

Summary tables store real-time aggregations and metrics separate from raw data tables. Summary tables are updated as data is ingested, ensuring they remain highly accurate. Learn More

All data is partitioned by time, using partition pruning to make time-based queries efficient. Learn More

Transforms are write schemas used to configure how you index, enrich, standardize, normalize, and store incoming data from one or more sources to a given table. 

Data is immutable and append-only, ensuring data integrity and leading to faster reads and writes. Learn More

Fox
Customer Story

Hydrolix has been battle-tested during some of the world’s biggest events, including the Super Bowl, Olympics, and Black Friday sales. During the 2025 Super Bowl, Hydrolix provided real-time analytics for FOX, including:

Text reads "hyperscale observability." Image includes Kaiju standing on two clusters.

Platform Benefits

Visuals demonstrating the deployment and scaling capabilities of Hydrolix clusters in a user's VPC.

Decoupled architecture

All components are stateless and decoupled, allowing each subsystem to scale independently and without resource contention. For example, ingest scales to handle peak events. Meanwhile, you can scale up query during urgent investigations. Learn More

Visuals demonstrating the deployment and scaling capabilities of Hydrolix clusters in a user's VPC.

Massive parallelism

All components use massive parallelism to maximize the benefits of cloud computing. For example, a Hydrolix cluster can scale to hundreds of intake heads, all writing partitions in parallel for major events. Learn More

Visuals demonstrating the deployment and scaling capabilities of Hydrolix clusters in a user's VPC.

Columnar storage

With columnar storage, you can query individual columns, leading to more efficient queries than row-based storage. Columnar storage also makes it possible to compress columns individually for greater compaction. Learn More

Visuals demonstrating the deployment and scaling capabilities of Hydrolix clusters in a user's VPC.

Advanced compression

Advanced algorithms optimize compression for each column individually based on data type and other factors. Compression rates are typically 20x-50x, leading to faster read and write times and lower storage costs. Learn More

Visuals demonstrating the deployment and scaling capabilities of Hydrolix clusters in a user's VPC.

Decoupled object storage

Data is written to object storage. In addition to being cost-effective, it is highly scalable for big data and long-term retention. Learn More

Visuals demonstrating the deployment and scaling capabilities of Hydrolix clusters in a user's VPC.

Streaming ETL

Real-time streaming and data transformation (streaming ETL) optimizes data for storage. This process includes standardizing, compressing, and partitioning data for optimized query performance. Learn More

Visuals demonstrating the deployment and scaling capabilities of Hydrolix clusters in a user's VPC.

Summary tables

Summary tables store real-time aggregations and metrics separate from raw data tables. Summary tables are updated as data is ingested, ensuring they remain highly accurate. Learn More

Visuals demonstrating the deployment and scaling capabilities of Hydrolix clusters in a user's VPC.

Time-based partitioning

All data is partitioned by time, using partition pruning to make time-based queries efficient. Learn More

Visuals demonstrating the deployment and scaling capabilities of Hydrolix clusters in a user's VPC.

Merge service

Partitions are small at ingest time (resulting in faster time to insights). Over time, an automated merge service runs in the background and optimizes partitions for improved compaction and query performance. Learn More

Visuals demonstrating the deployment and scaling capabilities of Hydrolix clusters in a user's VPC.

Block-level indexing

All columns include block-level indexing by default. With this indexing strategy, queries can retrieve narrow byte ranges from object storage, reducing the latency for both searching and retrieving data. Learn More

Visuals demonstrating the deployment and scaling capabilities of Hydrolix clusters in a user's VPC.

Scaling

All components autoscale individually to meet demand, ensuring your infrastructure remains efficient. You can also manually scale to ensure optimal performance during major events or even scale down to zero to reduce compute and costs during off-peak times. Learn More

Visuals demonstrating the deployment and scaling capabilities of Hydrolix clusters in a user's VPC.

Immutable, append-only data

Data is immutable and append-only, ensuring data integrity and leading to faster reads and writes. Learn More

Traditionally, enterprises have relied on costly, vertically-scaled hardware to deliver real-time analytics. For big data, this approach is challenging to scale and too expensive. Hydrolix combines the power of modern cloud computing with an engineering approach that maximizes the performance of distributed object storage.

All components are stateless and decoupled, allowing each subsystem to scale independently and without resource contention. For example, ingest scales to handle peak events. Meanwhile, you can scale up query during urgent investigations. Learn More

All components use massive parallelism to maximize the benefits of cloud computing. For example, a Hydrolix cluster can scale to hundreds of intake heads, all writing partitions in parallel for major events. Learn More

With columnar storage, you can query individual columns, leading to more efficient queries than row-based storage. Columnar storage also makes it possible to compress columns individually for greater compaction. Learn More

Advanced algorithms optimize compression for each column individually based on data type and other factors. Compression rates are typically 20x-50x, leading to faster read and write times and lower storage costs. Learn More

Data is written to object storage. In addition to being cost-effective, it is highly scalable for big data and long-term retention. Learn More

Real-time streaming and data transformation (streaming ETL) optimizes data for storage. This process includes standardizing, compressing, and partitioning data for optimized query performance. Learn More

Summary tables store real-time aggregations and metrics separate from raw data tables. Summary tables are updated as data is ingested, ensuring they remain highly accurate. Learn More

All data is partitioned by time, using partition pruning to make time-based queries efficient. Learn More

Partitions are small at ingest time (resulting in faster time to insights). Over time, an automated merge service runs in the background and optimizes partitions for improved compaction and query performance. Learn More

All components autoscale individually to meet demand, ensuring your infrastructure remains efficient. You can also manually scale to ensure optimal performance during major events or even scale down to zero to reduce compute and costs during off-peak times. Learn More

Transforms are write schemas used to configure how you index, enrich, standardize, normalize, and store incoming data from one or more sources to a given table. 

Data is immutable and append-only, ensuring data integrity and leading to faster reads and writes. Learn More