Agree with your pain points. One thing id add is GitHub makes you reapprove every PR after each push. As an OSS contributor it’s exhausting to chase re-approvals for minor tweaks.
The headline feature isn’t the 25 MB footprint alone. It’s that KittenTTS is Apache-2.0. That combo means you can embed a fully offline voice in Pi Zero-class hardware or even battery-powered toys without worrying about GPUs, cloud calls, or restrictive licenses. In one stroke it turns voice everywhere from a hardware/licensing problem into a packaging problem. Quality tweaks can come later; unlocking that deployment tier is the real game-changer.
I think you're conflating real-time monitoring with data retention. Zero retention means OpenAI doesn't store user data, but they can absolutely still filter content, rate limit and block harmful prompts in real-time without retaining anything. That's processing requests as they come in, not storing them. The NYT case was about data storage for training/analysis not about real-time safety measures.
True, but there's still a meaningful difference in friction and scale. With closed APIs, OpenAI can monitor for misuse, throttle abuse and deploy countermeasures in real-time. With open weights, a single prompt jailbreak or exploit spreads instantly. No need for ML expertise, just a Reddit post.
The risk isn’t that bad actors suddenly become smarter. It’s that anyone can now run unmoderated inference and OpenAI loses all visibility into how the model’s being used or misused. I think that’s the control they’re grappling with under the label of safety.
The repeated safety testing delays might not be purely about technical risks like misuse or jailbreaks. Releasing open weights means relinquishing the control OpenAI has had since GPT-3. No rate limits, no enforceable RLHF guardrails, no audit trail. Unlike API access, open models can't be monitored or revoked. So safety may partly reflect OpenAI's internal reckoning with that irreversible shift in power, not just model alignment per se. What do you guys think?
The modular ERP/MES/QMS approach is interesting and challenges traditional manufacturing processes. Most manufacturers obsess over single source of truth. (I.e. ensuring a part number means exactly the same thing across planning, production, and quality systems.) On the one hand, breaking these into separate apps creates potential data consistency risks. On the other hand, it could enable much better adoption. Start with MES for shop floor visibility then add QMS for compliance later rather than massive all-in-one ERP implementations that often fail. Curious, how are you handling data consistency across modules? What's been the feedback from your current or potential customers on this approach versus traditional monolithic ERP systems?
A quick table like "X agents × Y model × Z steps → tokens, $, convergence score" in the README would let new users budget experiments without having to read the whole paper plus run expensive experiments just to discover basic resource planning.
I really like seeing the segmented buffer approach. It's basically the rope data structure trick I used to hand-roll in userland with libraries like fast-json-stringify, now native and way cleaner. Have you run into the bailout conditions much? Any replacer, space, or custom .toJSON() kicks you back to the slow path?
Really like your approach of using existing Postgres/MySQL instead of dragging in Redis. It feels genuinely drop-in, but still Sidekiq-class. I know it's a bit early to ask about production patterns, but I was curious: if the worker thread flood hits the same Postgres that serves the web API, how do the job-fetch queries avoid contending with OLTP traffic? Does Sidequest follow Oban's advisory-lock approach or use a different throttling strategy?
The real win isn't static vs dynamic typing. It's immediate, structured feedback for LLM iteration. cargo check gives the LLM a perfectly formatted error it can fix in the next iteration. Python's runtime errors are often contextless ('NoneType has no attribute X') and only surface after execution. Even with mypy --strict, you need discipline to check it constantly. The compiler makes good feedback unavoidable.
Interesting approach, but I'm curious about the practical cost considerations. A 1,000-agent simulation could easily be hundreds of thousands of API calls. The repo recommends gpt-4o-mini over gpt-4 and supports local Llama models, but there's no guidance on the performance trade-offs.
Would love to see cost-per-experiment breakdowns and quality benchmarks across model tiers. Does a local Llama 3.1 8B produce meaningful economic simulations or do you need the reasoning power of frontier models? This could be the difference between $5 and $500 experiments.
I've built a couple of MCPs and what jumps out about this repo is the clean split into three MCP tools—unit, fuzz, and coverage—so an LLM can sequence tests just like any other commands. By keeping the AI layer thin and the orchestration declarative, you could swap in Hypothesis or mutation-testing backends without rewriting the workflow. It's a solid pattern for anyone grafting AI onto an existing unittest stack.
Thanks for the mention! I'm the author of Mcp-error-formatter, which was mentioned above. Exactly right about the client/server complexity. I've been working on this exact problem. Client-side heuristics can catch timeouts and HTTP codes, but nuanced business logic errors need server cooperation.
The interesting part is dual error representation: devs need full stack traces for debugging, but LLMs need clean structured metadata for retry decisions. Plus you want error telemetry flowing to observability systems.
Question for the mcp-use authors: How do you handle error propagation in multi-server setups? If Server A times out but Server B is healthy, does the agent know which server failed and whether to retry or switch servers? And are you capturing error patterns to identify flaky servers or consistently failing tool calls? The retry orchestration across multiple MCP servers seems like a really interesting problem.