GSD (get-shit-done) vs tldr MCP Gateway

GSD (get-shit-done) is a meta-prompting and context engineering system for Claude Code that imposes software engineering discipline on AI-assisted development. It replaces ad-hoc prompting with a five-step methodology — initialize, discuss, plan, execute, verify — that keeps context fresh and quality high across long, complex projects. The system works by loading specialized documentation strategically: project vision, requirements, roadmaps, and research are injected at the right phases rather than dumped into a single bloated context window. Planning produces XML-formatted task trees with built-in verification steps, and execution happens in waves — parallel where dependencies allow, sequential where they don't. Quality gates automatically detect schema drift, security regressions, and scope creep before they compound into bigger problems. For teams that have experienced the quality degradation that hits around hour three of a long Claude Code session, GSD's architecture of fresh context windows per phase is the fix. A Quick Mode handles ad-hoc tasks without the full planning overhead, making it practical for both exploratory work and milestone-driven development. It's MIT-licensed, JavaScript-based, and designed for solo developers and small teams who want spec-driven development without enterprise process overhead.

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.