Topic

Quantization

9 episodes

  1. Ep 939

    The efficient frontier of LLM inference

    Baseten's 'Efficient Frontier of LLM Inference' argues that inference engineering involves two fundamentally different types of techniques: those that let you trade off between latency and throughput along an existing efficiency curve, and those that push the entire curve outward, creating universal gains. The article maps concrete techniques (batch sizing, parallelism strategies, quantization, kernel optimization, speculative decoding, prefill/decode disaggregation) onto this framework and shows that the frontier is jagged and empirically discovered, not smooth.

  2. Ep 920

    Overview: Knowledge Distillation

    We finally do the episode we kept promising — a proper ground-up explanation of knowledge distillation: what it is, how the teacher-student mechanism actually works, why soft targets carry more signal than hard labels, and where this shows up in real systems being built right now.

  3. Ep 879

    Overview: Inference Optimization

    We finally give inference optimization its own episode — the idea that's quietly under half the stories we cover. We walk through what it actually means to make a trained model run faster and cheaper, from caching to quantization to batching, and why it matters more than almost anything else once a model ships.

  4. Ep 878

    1Aggregate results comparing DFM Mimir 1B against the HRM Text 1B, Qwen 3.5 2B and Gemma 4 E2B, displaying highly competitive performance across 20 benchmarks.

    Pippa and Tyler examine DFM Mimir v1, a one-billion-parameter HRM trained from scratch with permissible post-training data, and ask whether its strong benchmark results make it genuinely useful for low-resource language work.

  5. Ep 875

    Overview: Quantization

    We finally sit down with quantization and make it concrete: why shrinking a model’s numbers can speed inference up without wrecking the thing. We walk through the trade-offs, the common formats, and where quantization still matters in practice.

  6. Ep 765

    Poolside Releases Laguna S 2 1

    Vince and Ava talk through Poolside’s Laguna S 2.1 release as an unusually practical open-weight coding model: 118B total parameters, 8B active, 1M-token context, and a real deployment story on a single DGX Spark. They dig into the mechanism, the max-thinking default, the benchmark results, and the trade-off between long-horizon capability and token spend, while keeping one eye on the broader open-vs-closed race.

  7. Ep 628

    How to Run Open Source AI Models

    Sid Saladi argues that frontier AI vendors (Claude, GPT) bundle model, compute, access, and application into one proprietary stack—trapping users in unpredictable pricing and competitive capture. The counter: open-weight models like GLM-5.2, DeepSeek V4, Qwen, and Kimi are now frontier-adjacent in capability (GLM-5.2 beats GPT-5.5 on coding benchmarks, matches Opus 4.8 on others) and cost roughly one-sixth as much. The real problem isn't model quality anymore; it's that companies like Tesla, Uber, and Meta are hemorrhaging money on metered AI because they can't decouple the stack. The guide walks four layers—model, compute, access, harness—and shows how to own each one deliberately instead of letting a vendor own all four by default.

  8. Ep 614

    Hot French startup ZML releases free product to speed inference across lots of AI chips | TechCrunch

    Laura and Harper dig into ZML's new free inference server and the bigger claim underneath it: that the real leverage now is software that decouples models from chip vendors. Harper likes the direction but doubts the article proves the hard part, while Laura thinks the product story is strong even if the benchmarks are still missing.

  9. Ep 606

    Viability of local models for coding

    Birgitta Böckeler tests local LLM viability for coding after a year away from the space. She maps a complex web of factors—RAM, model size, quantization, tool calling, context windows, reasoning modes—that determine whether small models actually work for agentic coding on consumer hardware (M3 Max / M5 Pro). Her core finding: locals are runneable and faster than a year ago, but tool calling is still shaky, reasoning can backfire, and quality is hit-or-miss. She's not claiming local models are ready to replace cloud APIs; she's charting what actually works and what doesn't on real machines.