MemoryLake
Engineering & Developermemory store for autonomous agents

Give Autonomous Agents a Memory Store Built for Long-Running Work

Autonomous agents that run for hours or days need a memory store that survives restarts, hand-offs, and model swaps. MemoryLake gives autonomous agents structured, versioned memory with millisecond retrieval — so a six-hour research run never starts over from step one.

DAY 1 · WITHOUT MEMORYAutonomous agents that run for hours or days need a memory store that survive…Got it, I'll remember.DAY 7 · NEW SESSIONSame task, please?Sure — what was the context again?(forgot every detail you taught it)WITH MEMORYLAKEMemory auto-loadedSix memory types tuned for agent stateConflict resolution between tool outp…Git-style branches for exploratory ru…SESSION OUTPUTSame prompt, on-brand answerGet Started Free →

Give Autonomous Agents a Memory Store Built for Long-Running Work

Get Started Free

Free forever · No credit card required

The problem: autonomous agents have nowhere durable to keep state

In-process variables die when the agent crashes. Vector stores blur the difference between facts and observations. Custom databases require a schema for every new tool the agent learns. The result: autonomous agents that look impressive in a demo and collapse in production.

How MemoryLake solves the memory store problem for autonomous agents

Six memory types tuned for agent state — Facts the agent verified, events it observed, reflections it generated, skills it learned. Each gets its own typed store with its own retrieval logic.

Conflict resolution between tool outputs — When two tools return contradicting data, MemoryLake flags it and applies your resolution strategy. The agent stops trusting stale facts.

Git-style branches for exploratory runs — Spin up a memory branch for a speculative plan. Merge it if the plan worked. Roll it back if it didn't.

Provenance trail per memory — Every fact links to the tool, document, or conversation that produced it. Critical for debugging and compliance.

DAY 1 · WITHOUT MEMORYAutonomous agents that run for hours or days need a memory store that survive…Got it, I'll remember.DAY 7 · NEW SESSIONSame task, please?Sure — what was the context again?(forgot every detail you taught it)WITH MEMORYLAKEMemory auto-loadedSix memory types tuned for agent stateConflict resolution between tool outp…Git-style branches for exploratory ru…SESSION OUTPUTSame prompt, on-brand answerGet Started Free →

Give Autonomous Agents a Memory Store Built for Long-Running Work

Get Started Free

Free forever · No credit card required

How it works for autonomous agents

  1. Connect — Wire MemoryLake into the agent's planning and tool-use loop via SDK or MCP.
  2. Structure — Each tool result and reflection gets classified, deduped, and stored.
  3. Reuse — Before the next planning step, the agent retrieves the most relevant prior facts, events, and skills.

Before vs. after: autonomous agent memory

Without MemoryLakeWith MemoryLake
Six-hour research run crashes at hour fiveRestart from scratchResume from last commit
Two tools return contradicting factsAgent gets confusedConflict surfaced and resolved
Reusing a learned skill across runsCopy-paste promptsSkill memory called directly
Auditing "why did the agent decide X?"No recordFull provenance chain

Who this is for

Teams building autonomous agents for research, operations, browsing, coding, or trading — where the agent runs unattended for long stretches and the cost of restarting from zero is real money.

Related use cases

Frequently asked questions

How is this different from saving state to a database?

A database stores rows. MemoryLake stores typed memory with conflict detection, versioning, and retrieval ranking. You'd otherwise build all of that yourself on top of Postgres.

Can agents share memory with each other?

Yes. Multiple agents can read from and write to the same memory namespace with fine-grained access control over which memory types each agent can see.

What's the retrieval latency?

Millisecond-range for typical retrieval calls. Tested on production workloads with 100M+ memory items.