Understanding On-Premises Data Lake Architecture
Blog post from Starburst
On-premises data lake architectures remain relevant for organizations with data sovereignty, regulatory, latency, security, or long-term cost-control requirements that make moving large volumes of sensitive data to public clouds impractical. Modern implementations replace rigid Hadoop-centric designs with local object storage or HDFS, open table formats such as Apache Iceberg, Delta Lake, or Hudi, distributed SQL engines such as Trino, and governance layers for metadata, access controls, and lineage. These components separate storage from compute, support ACID transactions and schema evolution, and enable federated querying across on-premises, cloud, SaaS, and edge environments without requiring complete data centralization. Common deployment patterns include single-site lakehouses, multi-site federated clusters, hybrid cloud integrations, and edge-to-core systems for manufacturing and IoT data. While on-premises platforms offer greater control and low latency, they require capacity planning, hardware maintenance, disaster-recovery design, and specialized expertise; modernization commonly involves incrementally migrating Hive-based lakes to Iceberg-based lakehouses. Starburst presents its Trino-based platform as one option for federated access and governance, citing Lockheed Martin and GEODIS as examples of organizations reporting operational and query-performance improvements.
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