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Hacker News - Newest: "LLM"

GitHub - lechmazur/position_bias: A benchmark for testing whether LLM judges keep the same preference when two lightly edited versions of the same story are shown in opposite orders. Flex routing (EU and EFTA) Dark Factories: Retooling for LLM Velocity Ask HN: What would be the impact of a LLM output injection attack? GitHub - Oaklight/llm-rosetta: Production-ready LLM API translation layer for Python — bidirectional conversion between OpenAI, Anthropic & Google formats via hub-and-spoke IR. Optional API gateway. Streaming & non-streaming. Zero core deps. Contributions welcome! GitHub - browser-use/browser-harness: Self-healing browser harness that enables LLMs to complete any task. GitHub - moeen-mahmud/remen: Remen turns thoughts into something you can return to Analyzing 156 LLM Launch Posts on Hacker News ChatGPT vs Gemini vs Claude: The Best LLM Subscription You Should Buy GitHub - salaamalykum/quran-semantic-search: High-density RAG Semantic Search Engine & Quran Corpus (GEO/SEO Architecture) GitHub - NVIDIA/TensorRT-LLM: TensorRT LLM provides users with an easy-to-use Python API to define Large Language Models (LLMs) and supports state-of-the-art optimizations to perform inference efficiently on NVIDIA GPUs. TensorRT LLM also contains components to create Python and C++ runtimes that orchestrate the inference execution in a performant way. The State of LLM Bug Bounties in 2026 Operational Readiness Criteria for Tool-Using LLM Agents Meshcore: Architecture for a Decentralized P2P LLM Inference Network How an LLM becomes more coherent as we train it GitHub - seetrex-ai/laimark GitHub - Jossifresben/BibCrit: AI-assited biblical textual criticism GitHub - wastedcode/memex: File system based wiki, maintained by Claude 99helpers.com GitHub - cliver-project/AITrigram GitHub - unbody-io/adapt: A self-evolving memory layer for AI agents. GitHub - hb20007/awesome-gen-ai-fails: A list of incidents where reliance on generative AI and LLMs resulted in harm to companies, individuals, or society GitHub - nevenkordic/localmind: Run any local LLM with persistent memory and context. CLI agent over Ollama with SQLite-backed hybrid recall. No cloud. Ask HN: What are the machine requirements for a LLM like Llama-3.1-8B? Faster LLM Inference via Sequential Monte Carlo grpo explained: group relative policy optimization for llm finetuning - cgft Stop comparing price per million tokens: the hidden LLM API costs · TensorZero Andrej Karpathy's LLM Wiki Is a Bad Idea GitHub - GG-QandV/mnemostroma: Offline RAM-first cognitive leer/coprocessor for AI agents and robotics. Solves "Context Abandonment" with 20-80ms latency using a dual-thread biomimetic memory architecture (ONNX + SQLite WAL). mempalace/agent at agent · skorotkiewicz/mempalace
Can I run it? — Local LLM hardware calculator
Thomas Newkirk · 2026-06-21 · via Hacker News - Newest: "LLM"

Pick a model, quant, and context length — get the real memory math and the hardware that can actually run it.

📎 Run a site or newsletter? Use the Cite or Embed buttons just above to link to this tool or embed the live version on your own page, free, no signup, just keep the credit.

One step earlier: not sure you should buy hardware at all? Our cost calculator compares buying vs renting cloud GPUs vs just paying for an API, with break-even math for your usage.

Two ways to use it: leave "Your machine" empty to shop across everything we track, or pick the hardware you already own (or enter its memory) to get a personal verdict, including, when it doesn't fit, the exact quant, context, or KV-cache change that would make it fit.

How the estimate works

The tool uses the same math from our guides, shown in the open because that's the point of this site. A model's memory cost has three parts:

  • Weights, parameters × bits-per-weight ÷ 8. A 70B model at Q4_K_M (~4.8 bits/weight) is about 42 GB. Quantization choices are covered in our plain-English quantization guide.
  • KV cache, grows with every token of context. We assume a GQA-typical attention shape and an FP16 cache; the KV-precision selector in the tool shows exactly what a Q8 or Q4 cache saves. Full math in The KV cache, explained.
  • Overhead, a flat ~1.5 GB buffer for the runtime and activations.

For Mixture-of-Experts models, memory follows total parameters but speed follows active parameters, that's why a 120B MoE can be fast on a box that would crawl on a dense 70B. The one-line rule: buy memory for the total, expect speed from the active (MoE, explained).

The "gen ceiling" column is memory bandwidth ÷ bytes streamed per token, a theoretical upper bound from the fact that token generation is bandwidth-bound, not compute-bound (why that is). Real speeds come in below it.

Honest limits

These are estimates, not lab measurements. Real usage varies by runtime (llama.cpp vs vLLM vs MLX), KV-cache precision, batch settings, and model architecture. Unified-memory machines share RAM with the OS, so we subtract an 8 GB reserve; discrete GPUs lose ~1 GB to the desktop. When a result says "tight fit," believe it, within 10% of capacity means long context or background apps will push you over. Hardware listings come from our methodology; affiliate links never influence what appears or how it ranks.