claude-mem vs tldr MCP Gateway

claude-mem is an open-source memory compression plugin that gives Claude Code a persistent brain across sessions. It hooks into six Claude Code lifecycle events to automatically capture tool observations, compress them into semantic summaries, and store everything in a local SQLite + Chroma vector database. When a new session starts, relevant context is injected automatically — no copy-pasting, no re-explaining architecture decisions you made last week. The system achieves roughly a 10x token reduction through progressive disclosure: it retrieves only what's relevant for the current task rather than dumping everything into context. Developers can query their memory store via natural language through MCP tools (search, timeline, get_observations), and a built-in web viewer at localhost:37777 lets you inspect memory streams visually. Privacy controls via <private> tags let you keep sensitive content out of the store. Install is a single npx command, and it works with Claude Code, Gemini CLI, and OpenClaw gateways. The project hit 48K+ GitHub stars and is clearly scratching a real itch: the loss of context between sessions is one of the most consistent pain points for AI-assisted development.

tldr is a local proxy that sits between your AI coding harness and upstream MCP servers, solving one of the most underappreciated problems in agentic workflows: context bloat from tool schema proliferation. When you connect GitHub MCP, filesystem MCP, and a few others, you can easily be sending 24,000+ tokens of tool schemas to the model before any work begins. Instead of passing all those schemas directly, tldr exposes exactly five wrapper tools to the model: search_tools, execute_plan, call_raw, inspect_tool, and get_result. The model learns which underlying tools exist on-demand through search_tools, then calls them through the proxy. GitHub MCP's 24,473-token schema surface compresses to 3,482 tokens — an 86% reduction. Output responses are further compressed through field stripping, a 4,096-token cap, and a 64KB byte limit. This is a genuinely practical solution for power users running multi-MCP setups who've noticed degraded performance as their tool count grows. The tradeoff is one extra hop of indirection, but the token savings pay for themselves in improved model attention and lower API costs.