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SuperLocalMemory
COMPARISON

How SLM Compares

Choose the memory boundary that matches the way your agents actually work.

Market Map · verified 16 July 2026

Different products. Different operating boundaries.

This is not a pretend winner table. It maps the documented product boundary of each system to the job it is designed to do, using the linked primary source for every competitor.

Mem0

Memory SDK, self-hosted server, and managed platform

Multi-level memory, hybrid retrieval, entity linking, and temporal reasoning.

Choose it when: Teams choosing an SDK or managed memory platform.

Read primary source →

Zep / Graphiti

Managed Context Graph service with an open-source temporal graph engine

Temporal knowledge graphs, governed context assembly, and enterprise context infrastructure.

Choose it when: Teams building graph-centric, service-operated agent context.

Read primary source →

Letta

Stateful agent runtime and memory hierarchy

In-context memory blocks, archival memory, files, and agent-managed retrieval.

Choose it when: Builders who want to operate agents inside a dedicated runtime.

Read primary source →

LangMem

Memory primitives and managers for LangGraph applications

Hot-path tools, background extraction, prompt refinement, and LangGraph storage integration.

Choose it when: Teams already standardized on LangGraph.

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Supermemory

Context API, app, plugins, and MCP service

Memory, profiles, RAG, connectors, and personal-assistant workflows.

Choose it when: Teams seeking an API-led context stack or personal-memory app.

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Memobase

User-profile and event-timeline memory service

Profile construction, buffered processing, and per-user event memory.

Choose it when: Product teams optimizing personalized user experiences.

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Where SuperLocalMemory fits

Choose SLM when your developers need a local-first operating control plane, not only an API or agent runtime: persistent dated evidence, profile-isolated workspaces with personal/shared/global memory boundaries, graph-aware retrieval, cache and compression controls, trusted-peer Mesh, and the same system exposed through MCP, CLI/JSON, hooks, dashboard, and IDE integrations.

Mode A keeps the core memory path local after required assets are present. Modes B and C add local-LLM or external-provider capabilities by explicit choice; optional connectors and Mesh have separate network boundaries.

Benchmark Evidence

Protocol before ranking

Published V3 LoCoMo evidence is carried into V3.7 with its original scopes and answer-construction paths disclosed. This page does not rank unlike protocols.

MODE A RAW

60.4%

10 conversations / 1,276 questions. Local embeddings, local retrieval, zero-LLM answer construction.

MODE A RETRIEVAL

74.8%

10 conversations / 1,276 questions. Local retrieval with GPT-4.1-mini answer synthesis.

MODE C

87.7%

Conv-30 / 81 questions. text-embedding-3-large plus GPT-4.1-mini generation and judge.

Published V3 architecture evidence carried into V3.7. These are original protocol-scoped results, not a fresh V3.7 rerun or an ordinal comparison with competitor claims.

Why SLM

🔒

One Local Developer Control Plane

Dated memory, multi-channel retrieval, graph evidence, cache, compression, and trusted-peer coordination are operated from one runtime rather than assembled as separate products.

📐

Proof Before Superlatives

Three public preprints, protocol-scoped LoCoMo evidence, CLI JSON traces, and release-linked tests let developers inspect the mechanism rather than accept a leaderboard slogan.

🧠

Built for the Tools Developers Use

The same local system is available through MCP, structured CLI, hooks, dashboard, skills, and supported IDE configurations—without rewriting a user’s entire tool configuration.

Ready to Try It?

Open source, AGPL v3. A Qualixar Research Initiative.