What Should a Database Become When AI Agents Start Using It?

When AI agents use databases, the database is no longer only where an application stores rows. Depending on the workload, the surrounding data platform may also need to support context, memory, retrieval, safe experimentation, rollback, and a path from a local prototype to enterprise-scale operations.

That is the question behind OceanBase’s discussion of Lakebase and its AI product family: what should DB for AI look like when AI agents are first-class users?

Illustrated banner asking what databases should become when AI Agents start using them

Three vendors, three interpretations of Lakebase

“Lakebase” is not a universally standardized term. Different vendors use it to describe different combinations of data lake, warehouse, operational database, and vector-search capabilities:

Vendor Lakebase interpretation
Databricks A serverless Postgres offering positioned to connect Lakehouse analytics and operational workloads for AI applications
Zilliz A vector-database and data-lake-storage approach focused on AI search
OceanBase A lake-and-database architecture positioned around transactions, real-time services, object storage, and multimodal data governance

OceanBase presents Lakebase as the next step in its integration strategy. Rather than treating it as a single engine label, the company describes a platform intended to connect OLTP, analytics, hybrid search, and AI workloads through common data-management capabilities.

Diagram comparing Databricks, Zilliz, and OceanBase approaches to defining Lakebase

OceanBase Lakebase: a lake-and-database stack

OceanBase describes Lakebase as combining its database engine with object storage and open-compute integrations such as Spark and Ray:

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OceanBase Lakebase
├── OceanBase (transactions, hybrid search, real-time processing)
├── Spark (large-scale offline processing)
├── Ray (embedding, training, inference, Python data work)
└── Object storage (cost-efficient multimodal data at scale)

The intended outcome is to reduce data movement between separate systems while supporting OLTP, analytics, hybrid search, and AI workloads. The exact architecture, deployment model, and available integrations should be confirmed against the applicable OceanBase release documentation.

OceanBase Lakebase architecture with open compute, multimodal tables, and object storage

Lakebase, seekdb, and PowerMem: who does what

AI-agent applications often need more than a SQL endpoint. OceanBase positions three components around distinct roles:

Component Role for Agents What it provides
OceanBase Lakebase Enterprise data foundation Multimodal data management, governance, and open-compute integration
seekdb Developer-facing AI database Write, Search, Fork—hybrid search, local or server deployment, and data branching
PowerMem Memory-management layer Extract, merge, forget, and recall information that AI agents may retain across sessions

In short:

  • Lakebase is positioned as the governed data layer at scale.
  • seekdb is designed for AI agents to write state, search data, and create isolated branches.
  • PowerMem is intended to help AI agents retain useful information while allowing lower-value context to decay.

Layered OceanBase stack from Lakebase through AI database capabilities to Agent applications

seekdb: Write, Search, and Fork

seekdb is an open-source, developer-facing entry point at https://github.com/oceanbase/seekdb. Its tagline describes its intended agent workload: Write, Search, Fork. The State Store for AI Agents.

An agent asking for “angry refund-related complaints from East China last month” needs structured filters, full-text keywords, and semantic similarity at once. seekdb is designed to combine these retrieval modes in one engine.

seekdb Agent state repository supporting write, search, and fork across local and OceanBase deployments

Developers can start with the Python SDK:

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pip install -U pyseekdb
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local pyseekdb + PowerMem → seekdb server → OceanBase / Lakebase

seekdb deployment path from pip install through embedded prototype to OceanBase server

According to the project documentation, pyseekdb supports embedded, local-server, and remote OceanBase modes. This can support a progression from a laptop prototype to a server deployment; the migration path and compatibility requirements should be validated for each application.

Hybrid search can shorten the retrieval chain by combining structured filters, keyword search, and semantic vectors in one engine instead of coordinating three separate systems.

Hybrid search diagram combining structured filters, full-text keywords, and semantic vectors

seekdb also provides Fork Table and Fork Database. These data branches are analogous to Git branches for agent workloads: an agent can modify data, test a prompt, or run an evaluation in isolation, then merge a successful result or drop a failed branch. Teams should still apply least-privilege access controls and review policies; branching does not replace operational safeguards.

Agent database sandbox using fork, diff, merge, and drop to contain experimental changes

PowerMem: remember, merge, and forget

PowerMem complements seekdb by managing information an AI agent may retain. It is designed to extract important facts from dialogue and tasks, merge changing memories, age out stale information, and recall useful context when needed.

PowerMem memory layer extracting, merging, forgetting, and recalling Agent context

Not every interaction deserves permanent storage. PowerMem can organize chat content, task traces, and feedback into long-term memory, experience records, and searchable context while excluding temporary noise.

PowerMem memory filter deciding what Agent facts are worth keeping

When new information conflicts with existing memory, the system aims to reconcile and update stored facts rather than blindly appending everything. Its effectiveness will depend on the configured models, policies, and data quality.

PowerMem conflict resolution updating stored preferences when new information arrives

Over time, forgetting irrelevant details can reduce token use and keep recall focused on durable knowledge.

PowerMem memory drawer showing decay of low-value facts and retention of core concepts

🧠 Building an Agent that needs durable, self-organizing memory? Explore PowerMem at https://github.com/oceanbase/powermem and see how extract-merge-forget-recall fits into your stack.

PowerMem is designed to support multiple backends and can be paired with seekdb. In that arrangement, PowerMem decides what is worth retaining, while seekdb stores and retrieves it through hybrid search.

seekdb M0 extends the same idea toward cloud memory. OceanBase describes it as a way for chat records and task traces to become reusable experience that can be shared across AI agents; availability and feature scope should be verified in current product documentation.

seekdb M0 workflow from chat records and task traces to shared Agent experience

Key diagrams

The remaining figures summarize how the pieces fit together at a glance.

PowerMem overview of long-term memory, experience cards, and searchable recall paths

PowerMem lifecycle from raw Agent inputs through organized memory outputs

Integrated Agent data stack connecting memory, search, and governed storage

From cloud to edge: local brains and central governance

Not every AI agent will run in the cloud. Devices, robots, and edge systems may need local, low-latency state, user preferences, task traces, and retrieval indexes. Embedded seekdb plus PowerMem can provide a local memory and retrieval layer, while OceanBase Lakebase is positioned for central governance, training, evaluation, and long-term data management.

Edge-to-center architecture with seekdb and PowerMem on devices and OceanBase Lakebase in the cloud

The pattern is straightforward:

  • Edge devices can react with local state and retrieval.
  • Central Lakebase can govern training data, evaluation, and long-term data management.

This split can let teams prototype on a laptop, validate a server deployment, and then evaluate a move to enterprise OceanBase. It does not eliminate the need for schema design, security review, or migration testing.

AI for DB versus DB for AI

This leads to a more useful definition of DB for AI:

  • AI for DB helps operate a database—SQL assistance, inspection, reporting, and diagnostics.
  • DB for AI adapts data systems for AI-agent workloads, with data access, memory, security, and traceability as core concerns.

Comparison of AI for DB operations support versus DB for AI Agent-ready capabilities

OceanBase positions Lakebase in the second camp. AI-agent workloads can benefit from governed multimodal data, hybrid retrieval, isolated experimentation, and durable memory, although the right design depends on the application’s scale, risk, and existing data estate.

Lakebase landscape illustration showing Agents using a unified database foundation in production

The work is still emerging: as AI agents become database users, data systems will need to evolve to support them safely and effectively.