Devin starts fresh every session with no memory of prior work. Here is how to add persistent memory via MCP so Devin remembers your project decisions, conventions, and debugging history.
Gemini Code Assist resets context between sessions. Here is how to add persistent memory via MCP so Gemini remembers your project, decisions, and patterns across sessions.
A technical deep-dive into how AI agents store and retrieve memory — covering memory types, storage approaches, retrieval strategies, and multi-agent patterns.
A technical deep-dive into MCP memory servers: what they are, how they differ from other MCP servers, and how MemNexus implements the full extraction-graph-retrieval pipeline.
OpenAI Codex CLI resets context between sessions. Here is how to add persistent memory via MCP so Codex remembers your project, decisions, and patterns.
A technical comparison of how LangChain, CrewAI, AutoGen, Semantic Kernel, and LlamaIndex handle agent memory — and the cross-tool gap none of them fill.
JetBrains AI Assistant resets every session. Here is how to add persistent memory via MCP so JetBrains AI remembers your project, conventions, and past decisions.
Context windows give coding agents short-term recall. MCP gives them a persistent memory layer — decisions, patterns, and architecture knowledge that survive every session restart.
Your coding agent forgets everything between sessions. Here's how to give it persistent memory that carries your architecture decisions, debugging history, and team conventions into every future session.
Five common misconceptions developers have about persistent AI memory — and what actually works for keeping structured context across tools and sessions.
Multiple agent teams contradict each other and rediscover the same bugs without shared memory. A shared knowledge base keeps every team aligned and coherent.
Most AI agents forget everything between sessions. Three patterns — session, preference, and knowledge memory — make agents genuinely useful over time.
Most developers debug the same classes of bugs repeatedly. Here's a workflow that uses persistent memory to make each debugging session faster than the last.
How to load architectural context before reviewing a PR — so your AI reviewer knows why things were built the way they were, not just what the code does.
Open source contributors context-switch between projects months apart. Persistent AI memory means you never re-explain a project's conventions or patterns.
New engineers spend weeks learning undocumented conventions, past decisions, and tribal knowledge. Shared AI memory makes that context instantly accessible.
Technical writing is hard when your AI doesn't know your product. Persistent memory gives AI context to write accurate, consistent docs without re-explaining.
ChatGPT and Claude have built-in memory. It works well — until you hit the API, switch tools, or need to build something. Here's the architectural difference.
Prompt engineering gets all the attention, but context engineering — managing what your AI knows at session start — separates productive from frustrated.
When you're the only one who knows the codebase, persistent AI memory turns your assistant into a second engineer who understands the full context over months.
LLMs are stateless by design. Built-in memory helps for simple use cases, but if you're building on the API or working across tools, you need a different approach.
CommitContext captures the reasoning behind every commit — decisions, debugging paths, and gotchas — so your agent can investigate issues and connect code.
Build-context delivers a structured briefing — active work, key facts, gotchas, recent activity — before your agent starts. One command. No cold starts.
MemNexus search now follows connections between memories — entities, facts, topics — not just similar words. 90% recall, stale results filtered by default.
mx setup auto-detects your AI agents and configures MemNexus across Claude Code, Copilot, Cursor, and more. No external binary, no secrets in config files.
We benchmarked MCP vs CLI across three AI agents. GPT-based agents were 2x faster with MCP. Claude-based Kiro performed equally well with CLI. Choose wisely.
Recursive digest synthesis partitions large memory sets into focused groups, synthesizes each at full fidelity, and merges into one comprehensive briefing.
Memory Digest assembles complete project briefings in one command. Gathers up to 100 memories, expands via topic and entity graphs, and synthesizes with LLM.
MemNexus now auto-extracts topics, facts, and entities from your memories using LLM analysis. Richer metadata, more retrieval paths, same search speed.
Complete transparency on what happens when you delete your MemNexus account — the 7-day grace period, what gets deleted, and how to permanently erase your AI memory data.
New conversation-based memory retrieval helps developers find work sessions, not just individual memories. Filter by time, group search results by conversation.
Most AI memory is a jumbled pile of everything you've ever said. MemNexus introduces memory versioning and instant recaps to fix the fundamental problems with AI memory.
Timeline Search optimizes memory retrieval for temporal understanding — reconstruct debugging sessions, review decisions, and brief teammates in one query.