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Vertica

OpenText Analytics Database unlocks advanced analytics capabilities across data warehouse and data lakehouse environments with unmatched performance

Status source →
Type
Cloud Data Warehouse
Deployment
Cloud or self-hosted
Last updatedSeptember 21, 2026
AcquiredStatus confirmed

Vertica is now sold under new ownership

Vertica is now sold by Rocket Software, which completed its acquisition of the product from OpenText on 11 May 2026. Pricing and packaging are set by Rocket Software; vertica.com redirects to their product page.

Source

Editor's Take

We recommend Vertica for data teams that need advanced analytics across both data-warehouse and data-lakehouse environments and prioritize high-performance analytical workloads over Snowflake-style simplicity. Its usage-based pricing can suit variable demand, but the available context provides no dollar pricing, deployment evidence, or public proof of enterprise adoption, so we suggest validating total cost and operational fit in a production-scale pilot.

— Egor Burlakov, Editor

Evaluate Vertica

Comparisons

Vertica: product and architecture

Our verdict: Vertica is a strong choice for enterprises that need fast, large-scale analytics across data warehouse and data lakehouse environments and are prepared to evaluate a usage-based commercial model. This Vertica review finds a technically focused analytics database with columnar storage, compression, and in-database machine learning as its clearest differentiators, but with limited evidence in the supplied data about setup experience, cloud-provider breadth, and support responsiveness.

Vertica is positioned by OpenText as an analytics database for advanced analytics with “unmatched performance,” flexible deployment, robust security, and low total cost of ownership. Those are meaningful claims for data leaders, but the evidence supplied does not include benchmark results, deployment prerequisites, supported cloud platforms, or named ecosystem integrations. We recommend Vertica for organizations that value database-centric analytics and can validate operational fit in a proof of concept; teams seeking a broadly documented, low-friction managed platform should compare alternatives carefully.

Overview

Vertica is a unified analytics platform in the data-warehouse category, designed for large-scale analytics workloads. Its product description identifies three central technical capabilities: columnar storage, advanced compression, and in-database machine learning. That combination makes Vertica relevant when a team wants analytical data storage and advanced analysis to remain close to the database rather than splitting those concerns across multiple systems.

OpenText describes the product as the “OpenText Analytics Database” and positions it across both data warehouse and data lakehouse environments. The vendor’s stated focus is fast, scalable analytics, supported by built-in machine learning, security, flexible deployment, and low total cost of ownership. This is a clear enterprise-data positioning: Vertica is not presented as a lightweight departmental analytics tool or a general-purpose operational database.

The provided information also frames Vertica within OpenText’s broader data strategy: unifying enterprise data, reducing silos, making information AI-ready, and supporting security and compliance requirements throughout the information lifecycle. For a data leader, that matters because the product is being sold as part of a governed information environment rather than solely as a SQL engine. The trade-off is that the supplied evidence is stronger on positioning than on independently measured outcomes.

User feedback is notably positive in aggregate: Vertica has a 10/10 rating from 30 reviews in the provided data. Review volume is still a limited public signal, not proof of broad enterprise adoption, and it should not substitute for reference checks in your own industry. The reviews do, however, consistently surface themes relevant to analytics teams: real-time use, SQL Server familiarity, fast loading, self-service, scaling, analysis, and disk-space efficiency.

Key Features and Architecture

Vertica’s architecture starts with columnar storage. Instead of organizing data primarily around complete rows, a column-oriented design stores values by column, which aligns naturally with analytical queries that read selected fields across many records. For data engineers and analytics engineers, this matters because warehouse-style work commonly scans measures, dimensions, and aggregates rather than retrieving every attribute of an individual transactional record.

Advanced compression is the second explicitly documented architectural capability. Compression can reduce the storage footprint of analytical data, which directly connects to the “disk space” benefit reported by users. Compression is not free: teams should validate its impact on ingestion, query behavior, operational processes, and cost under their own workload, because the supplied data does not quantify compression ratios or throughput.

Third, Vertica includes in-database machine learning capabilities. This is important because it places machine-learning functionality inside the analytics database environment rather than making it only an external downstream activity. The data does not specify algorithms, model lifecycle features, notebooks, model-serving functions, or MLOps integrations, so do not assume Vertica replaces a dedicated machine-learning platform without testing the required workflow.

Fourth, the official feature description identifies fast and scalable analytics as a core capability. This aligns with user-reported strengths including “fast loading,” “real time,” “scale up,” and “data analysis.” These are useful operational signals, but they are not published performance benchmarks: no query latency, concurrency figure, data-volume limit, or load-rate measurement is provided, so a buyer should require workload-specific validation rather than treating “fast” as a guaranteed outcome.

Fifth, OpenText lists robust security as a built-in feature. Security matters in a shared analytics environment because warehouse and lakehouse data often contains sensitive enterprise information. However, the supplied material does not identify specific authentication methods, encryption controls, role models, auditing features, certifications, or compliance frameworks; the presence of a security claim should begin a security review, not complete one.

Sixth, Vertica is described as supporting flexible deployment and as operating across data warehouse and data lakehouse environments. That is strategically useful for organizations that do not want their analytics architecture defined by one deployment pattern. The limitation is material: the provided data names no cloud providers, no on-premises options, no managed-service boundaries, and no deployment topology, so technical buyers should ask directly which environments and operating responsibilities are supported.

Finally, the product has a SQL-oriented analytics identity, reinforced by users listing “Sql server” among strengths. That feedback suggests SQL accessibility is part of Vertica’s practical appeal, especially for teams already organized around warehouse queries and analytics engineering. It does not establish full SQL compatibility with any particular product, and the data does not provide version, dialect, migration, or connector details.

Ideal Use Cases

Vertica is best suited to enterprise analytics teams working with large-scale data in a warehouse or lakehouse context. The product description explicitly identifies large-scale analytics, and its columnar storage, compression, and in-database machine learning make the strongest case when teams need more than simple dashboard serving. We recommend Vertica for a centrally governed data organization that wants SQL-based analysis, storage efficiency, and advanced analytics capabilities in one analytics database.

A second fit is a data engineering and analytics engineering group supporting fast-loading or real-time analytical workloads. Actual user feedback identifies “Real time” and “Fast loading” as strengths, while the official description emphasizes fast, scalable analytics. This can be a practical fit for a team whose business users need timely analysis and self-service access, but they should define acceptance tests before buying because no latency, concurrency, or ingestion-rate target is supplied.

A third fit is an organization pursuing advanced analytics while keeping work close to its data warehouse or lakehouse environment. Vertica’s built-in machine learning provides a reason to evaluate it when analysts and data scientists need database-resident analytical functionality. This is particularly relevant where data governance and data movement are decision factors, although the supplied evidence does not describe model-development workflows, supported languages, or integration with external ML tooling.

A fourth fit is an enterprise that needs deployment flexibility as part of a broader data-management strategy. OpenText describes Vertica as offering flexible deployment and robust security, and its broader platform messaging emphasizes information security, compliance, and reducing silos. The responsible buying approach is to map those claims against the organization’s specific environment, controls, and operating model rather than infer details that have not been documented.

Do not use Vertica if your decision depends on confirmed support for a particular cloud provider, specific integration, published performance number, or turnkey setup experience and you cannot obtain that evidence during evaluation. User-reported weaknesses include “Cloud providers,” “Setting up,” “Limited options,” and “Fast support,” which are direct warning signs for teams that require broad provider choice, minimal administration, extensive configuration options, or rapid vendor assistance. Avoid treating a positive average score as a substitute for validating these operational concerns.

Strengths & Trade-offs

Vertica’s strongest advantages are concrete, but they should be evaluated against operational requirements rather than accepted as broad platform claims.

Pros

  • Columnar storage supports analytics-oriented access patterns. Vertica is explicitly built with columnar storage, a relevant architectural strength for warehouse and lakehouse analytics where selected columns are frequently analyzed across large datasets.
  • Advanced compression addresses storage efficiency. Compression is a documented capability, and “Disk space” is also listed among user-reported strengths. That provides both product-level and user-feedback support for evaluating Vertica where analytical storage efficiency matters.
  • In-database machine learning differentiates the analytics database. The product includes in-database machine learning, offering a database-centric advanced-analytics option beyond storage and SQL querying alone.
  • Users report practical speed and accessibility benefits. In the 30-review, 10/10 feedback set, users cite “Real time,” “Fast loading,” “Easy to use,” “Self service,” and “Data analysis.” These are direct signals that the product can be effective for analyst-facing analytical work.
  • The product has enterprise-oriented security and deployment positioning. OpenText explicitly lists robust security and flexible deployment, which makes Vertica worth evaluating in governed enterprise environments.

Cons

  • Setup is a documented concern. “Setting up” is listed as a user-reported weakness. That directly undercuts any assumption that Vertica will be quick to deploy or easy to operationalize without experienced technical ownership.
  • Cloud-provider fit is not established. Users identify “Cloud providers” as a weakness, and the supplied product information names no cloud providers. Teams with a fixed cloud-standard requirement should treat this as a validation gate.
  • Support responsiveness is a stated weakness. “Fast support” appears in the reported weaknesses. For production analytics platforms, support expectations should be contractual and tested through references rather than inferred from vendor positioning.
  • The available evidence does not describe integration breadth. No named integrations are provided. That is a real evaluation limitation for data engineering teams that need connectors, orchestration compatibility, transformation workflows, or business-intelligence interoperability confirmed before adopting a warehouse platform.
  • Pricing clarity is weak in the supplied data. The $3.19/mo starting-price entry conflicts with the $3.19-per-hour pricing detail, while Enterprise license, DBaaS subscription, and OEM or ISV licenses have no published dollar amounts or tier inclusions here.

The aggregate 10/10 rating from 30 reviews is encouraging, but it must be read alongside the weakness list rather than used to erase it. In our evaluation, Vertica’s technical concept is compelling for large-scale analytics; its operational fit needs more diligence than the marketing description alone provides.

Vertica pricing

Starting at
Usage-based
Free access
No free option documented

View full Vertica pricing intelligence →

Alternatives to Vertica

The reviewed substitutes for Vertica among the cloud data warehouses, and what would make each one the better answer.

Direct alternatives

Reviewed substitutes: products bought for the same job, where a team picks one.

Snowflake
Choose Snowflake if your team wants a zero-maintenance warehouse with strong SQL analytics, governance features, and the ability to share live data across organizations without replication.Applies to: Choosing between two products of the same kind for one job.
Amazon Redshift
Choose Redshift if your organization is already invested in AWS and wants tight integration with services like SageMaker for ML, Kinesis for streaming, and S3 for data lake queries.Applies to: Choosing between these two for the cloud data warehouses decision.
Teradata
Two analytical warehouses serving the same central-store decision. They are compared for one budget, differ on pricing shape and deployment, and an organisation loads its data into one.Applies to: Choosing the warehouse that will hold the organisation's analytical data.
Google BigQuery
Choose BigQuery if you want true serverless analytics with no infrastructure to manage and your workloads align with a pay-per-query or slot-based model.Applies to: Choosing between these two for the cloud data warehouses decision.
Azure Synapse Analytics
Two products of the same kind on one reviewed shortlist, answering the same purchase. warehouse buyer's guides and vendor comparison pages weigh these platforms for one central store, and a team adopts one, so the comparison is a substitution.Applies to: Choosing between these two for the cloud data warehouses decision.

Other approaches

A different approach to the same problem. Each substitutes only for the workload named beside it.

Databricks
Choose Databricks if your workloads span data engineering, ML model training, and analytics on a single platform, and your team is comfortable with Spark-based processing.Applies to: Deciding whether analytical data is loaded into one platform or queried in open formats where it sits.
See detailed alternatives analysis

Vertica (now OpenText Analytics Database) is a columnar MPP analytics platform known for fast query performance, advanced compression, and in-database machine learning. With usage-based pricing starting at $3.19 per hour, flexible licensing options (enterprise license, DBaaS subscription, OEM), and a 10/10 rating from 30 reviews, Vertica has served enterprise analytics teams for years. However, the rise of cloud-native data warehouses, open-source OLAP engines, and lakehouse architectures has created compelling Vertica alternatives for teams seeking lower operational overhead, more flexible deployment models, or better price-performance at scale.

Top Alternatives Overview

Snowflake is the fully managed cloud data platform that separates compute from storage and runs across AWS, Azure, and Google Cloud. Snowflake eliminates infrastructure management entirely: there are no clusters to tune, no indexes to maintain, and no capacity planning required. It uses consumption-based pricing measured in credits, with Standard edition at approximately $2/credit and Enterprise at roughly $3/credit on-demand. Storage costs around $23 per compressed TB per month with pre-purchased capacity, with higher rates for on-demand usage depending on region. With an 8.7/10 rating from 455 reviews, users consistently praise its ease of use with standard ANSI SQL, automatic scaling for concurrent workloads, and zero-copy cloning for development environments. Choose Snowflake if your team wants a zero-maintenance warehouse with strong SQL analytics, governance features, and the ability to share live data across organizations without replication.

Databricks is the unified analytics and AI platform built on lakehouse architecture, combining data lake flexibility with warehouse structure. Built on Apache Spark with Delta Lake storage, Databricks provides collaborative notebooks, managed compute, and integrated ML tooling. Pricing uses Databricks Units (DBUs) that vary by workload type: DBU rates vary significantly by workload type, with Jobs compute being the most affordable and Serverless SQL the most expensive, plus underlying cloud infrastructure costs that typically add 50-200% on top of the DBU charges. With an 8.8/10 rating from 109 reviews, users highlight its strength in data engineering, machine learning workflows, and handling both structured and unstructured data. Choose Databricks if your workloads span data engineering, ML model training, and analytics on a single platform, and your team is comfortable with Spark-based processing.

Amazon Redshift is the fully managed, petabyte-scale cloud data warehouse from AWS. Like Vertica, Redshift uses columnar storage and massively parallel processing, but it integrates deeply with the AWS ecosystem including S3, Glue, SageMaker, and QuickSight. Redshift Serverless lets teams run analytics without provisioning infrastructure. With an 8.9/10 rating from 218 reviews, users praise its query performance, AWS ecosystem integration, and parallel processing capabilities. Choose Redshift if your organization is already invested in AWS and wants tight integration with services like SageMaker for ML, Kinesis for streaming, and S3 for data lake queries.

Google BigQuery is the serverless cloud data warehouse with pay-per-query pricing. BigQuery requires no cluster management, no index tuning, and no capacity planning. Its pricing model charges per TB of data scanned (first 1 TB free per month, then $5-$6.25 per TB) or through reserved capacity slots. With an 8.8/10 rating from 310 reviews, BigQuery stands out for its serverless architecture and deep integration with the Google Cloud ecosystem. Choose BigQuery if you want true serverless analytics with no infrastructure to manage and your workloads align with a pay-per-query or slot-based model.

ClickHouse is the open-source, column-oriented OLAP database built for real-time analytical reporting using SQL. ClickHouse is free and open-source with linear scalability across trillions of rows and petabytes of data. ClickHouse Cloud offers a managed serverless option. With a 7.1/10 rating from 9 reviews and over 46,900 GitHub stars, ClickHouse has strong community adoption for high-throughput analytical workloads. Choose ClickHouse if you need sub-second query latency on large analytical datasets and want an open-source foundation with no licensing costs.

Starburst is the enterprise analytics platform built on Trino (formerly PrestoSQL) that enables federated queries across data lakes, warehouses, and databases without moving data. Starburst offers a free tier with up to 3 clusters, a Pro tier starting at $0.50/credit, and an Enterprise tier starting at $0.75/credit. Choose Starburst if you need to query data across multiple heterogeneous sources (lakes, warehouses, databases) through a single SQL interface without consolidating everything into one platform.

Architecture and Approach Comparison

Vertica uses a shared-nothing MPP architecture with columnar storage, advanced compression algorithms, and projections (pre-sorted, pre-aggregated data structures) to deliver fast analytical query performance. It supports deployment on-premises, in the cloud, or on Apache Hadoop, and includes in-database machine learning capabilities. Vertica's architecture excels at large-scale batch analytics where data is loaded and then queried repeatedly, leveraging its K-safety protocol for fault tolerance and high availability.

Snowflake and BigQuery take fundamentally different architectural approaches by fully separating compute from storage. Snowflake uses virtual warehouses that can be independently scaled, paused, and resumed, with automatic optimization handling most performance tuning. BigQuery goes further with a fully serverless model where compute is allocated dynamically per query. Both eliminate the cluster sizing and node management that Vertica requires.

Databricks operates on a lakehouse architecture where data stays in open formats (Delta Lake, Apache Iceberg) on cloud object storage (S3, ADLS, GCS), and compute clusters process workloads on demand. This means storage costs scale independently from compute, and the same data can serve both data engineering pipelines and SQL analytics without duplication.

Redshift shares Vertica's columnar MPP heritage but adds Redshift Serverless for on-demand workloads and deep AWS integration for zero-ETL patterns. Redshift can query data directly in S3 through Spectrum, blending warehouse and data lake approaches.

ClickHouse uses a column-oriented storage format with vectorized query execution designed for maximum throughput on analytical workloads. Its MergeTree engine family provides real-time data ingestion alongside fast analytical queries, making it particularly strong for time-series and event analytics where Vertica's batch-oriented loading is less competitive.

Starburst's federated approach is architecturally distinct: it pushes queries down to data sources rather than requiring all data to be loaded into a central warehouse. This means you can query across Vertica, S3, PostgreSQL, and other sources simultaneously without data movement, which can also serve as a gradual migration bridge away from Vertica.

Pricing Comparison

PlatformPricing ModelEntry PointMid-RangeEnterpriseKey Cost Driver
VerticaUsage-based$3.19/hourEnterprise license (custom)OEM/ISV license (custom)Compute hours + licensing
SnowflakeCredit-based~$2/credit (Standard)~$3/credit (Enterprise)~$4/credit (Business Critical)Credits consumed + storage
DatabricksDBU-basedJobs compute (lowest DBU rate)All-Purpose compute (mid-range)Serverless SQL (highest DBU rate)DBUs + cloud infrastructure
Amazon RedshiftInstance/serverlessServerless from $0.54/RPU-hrProvisioned (custom)Reserved instances (custom)Node hours or RPU-hours
Google BigQueryPay-per-query1 TB/month free$5-$6.25/TB scannedCapacity slots (custom)Data scanned or slot hours
ClickHouseOpen Source / CloudFree (self-hosted)Cloud (usage-based)Cloud Enterprise (custom)Infrastructure (self-hosted)
StarburstCredit-basedFree (3 clusters)$0.50/credit (Pro)$0.75/credit (Enterprise)Credits consumed

Vertica's usage-based pricing at $3.19/hour suits teams with predictable, steady-state workloads. Cloud-native options like Snowflake and BigQuery offer more elasticity, scaling costs with actual usage rather than provisioned capacity. Databricks' dual-cost structure (DBUs plus cloud infrastructure) requires careful planning, as cloud provider charges typically add 50-200% beyond the DBU fees alone. ClickHouse offers the most cost-effective path for teams willing to self-manage, eliminating licensing costs entirely. Starburst's federated model can reduce total costs by avoiding data duplication across systems.

When to Consider Switching

Consider moving to Snowflake or BigQuery when infrastructure management overhead is consuming too much engineering time. Vertica requires capacity planning, node sizing, projection design, and ongoing cluster maintenance. Both Snowflake and BigQuery eliminate these operational burdens entirely, freeing data teams to focus on analytics rather than infrastructure.

Consider Databricks when your use cases extend beyond traditional SQL analytics into data engineering, machine learning, and AI workloads. Vertica's in-database ML covers some scenarios, but Databricks provides a complete platform for the full data and ML lifecycle, from ingestion through model serving, with native support for Python, R, Scala, and SQL.

Consider Amazon Redshift when your organization is deeply embedded in the AWS ecosystem. Redshift's zero-ETL integrations with Aurora, DynamoDB, and Kinesis, combined with Redshift Serverless for variable workloads, provide a migration path that keeps your data close to the rest of your AWS infrastructure.

Consider ClickHouse when your primary workload is high-throughput real-time analytics, especially time-series or event data, and your team has the engineering capacity to manage open-source infrastructure. ClickHouse can deliver sub-second query latency on billions of rows without licensing costs.

Consider Starburst when you need to query data across multiple systems (including an existing Vertica deployment) without consolidating everything. Starburst's federated architecture lets you keep data where it lives while providing a unified SQL query layer, which can serve as a gradual migration strategy rather than a hard cutover.

Migration Considerations

Vertica uses ANSI-compliant SQL, which simplifies migration to other SQL-based platforms like Snowflake, Redshift, and BigQuery. Most standard SQL queries translate directly, though Vertica-specific features like projections, flex tables, and Vertica-proprietary SQL functions will require refactoring. Plan for query audit and rewrite cycles, particularly for workloads that rely on Vertica's projection-based optimization.

Data export from Vertica is straightforward using standard COPY or EXPORT commands to formats like Parquet, ORC, or CSV. Cloud platforms universally support ingesting these formats from object storage. For large datasets, parallel export to S3 or cloud storage followed by bulk load into the target platform is the most efficient approach.

Snowflake and BigQuery migrations tend to be the smoothest because both platforms handle optimization automatically. You do not need to recreate projections, sort keys, or distribution keys. Redshift migrations require some attention to sort keys and distribution styles, though Redshift's automatic table optimization reduces this burden.

For organizations with complex Vertica deployments, consider a phased migration: use Starburst to federate queries across both Vertica and the new platform during the transition period, then migrate workloads incrementally. This avoids a disruptive big-bang cutover and lets teams validate query results against Vertica before decommissioning.

ETL pipelines connecting to Vertica via JDBC or ODBC generally require only connection string changes when pointing to a new platform. However, any code using Vertica-specific client libraries (vsql, vertica-python) will need to be updated to use the target platform's drivers and APIs. Budget for thorough regression testing of all downstream dashboards, reports, and applications that consume data from the warehouse.

What users say about Vertica

Historical review enrichment from TrustRadius.

Cons

  • Big data analytics
  • Fast support
  • Easy and fast

Public signals

About these signals

Verified factual signals from public sources. They indicate observable activity or interest, not total adoption, product quality, or cost.

0 GitHub commits 90d386 GitHub stars0 vulnerabilities across 2 packagesOpenSSF score 3.2/10

See all signals from 8 sources
Source
Signals
Last updated
GitHub
Commits 90d:0Stars:386
September 21, 2026
Docker Hub
Pulls:127.1k↑1.8k
September 21, 2026
PyPI
Weekly downloads:875.0k↑53.6k
September 21, 2026
npm
Weekly downloads:5.7k↑1.4k
September 21, 2026
Google Trends
Search interest:Top 32%overallTop 39%in Data Warehouse
September 21, 2026
Stack Overflow
Questions:1.5k
September 21, 2026
OSV
Package vulnerabilities:0 vulnerabilitiesacross 2 packages

npm · vertica-nodejs@1.1.4 · PyPI · vertica-python@1.4.0

September 21, 2026
Security score:3.2/10

github.com/vertica/vertica-python

September 21, 2026

Frequently asked questions

What is Vertica?

Vertica is a unified analytics platform designed for large-scale data, providing a fast and scalable way to store, process, and analyze complex data sets.

How much does Vertica cost?

Pricing for Vertica starts at $999.00 per month, with custom quotes available for larger deployments or more advanced features.

Is Vertica better than Amazon Redshift?

Vertica and Amazon Redshift are both data warehouse solutions, but Vertica is optimized for high-performance analytics and large-scale data sets, making it a good choice for complex queries and real-time processing.

Can I use Vertica for my company's marketing analytics?

Yes, Vertica is suitable for various use cases, including marketing analytics. Its scalable architecture and advanced query capabilities make it an ideal platform for analyzing large datasets and performing complex queries.

What kind of data can I store in Vertica?

Vertica supports a wide range of data types, including structured, semi-structured, and unstructured data. This flexibility allows you to integrate various sources into a single analytics platform.

Related Cloud Data Warehouses

Other cloud data warehouses in the catalog. Same kind of product, not a substitution recommendation.