A developer released Dynamic Quantiser, a free open-source tool that produces dynamic and custom quantizations of llama.cpp GGUF models at any target size without calibration data. It picks a quant level per tensor to minimize whole-model cosine deviation, which the author reports correlates 0.99 with KLD. Benchmarks against Unsloth show mixed results, with Unsloth stronger on pure text.
The creator of Voodoo Quant, a dynamic quantization method claiming SOTA results at aggressive quant levels on smaller Qwen3.5 GGUF models, has released the full toolset under an MIT license on GitHub. The method uses gradient descent to train per-tensor scalar gates that select optimal quant levels, targeting both KL divergence against the BF16 reference and a filesize target. It competes with Unsloth Dynamic 3.0, which remains proprietary.
The creator of Voodoo Quant, a dynamic quantization method claiming SOTA results at aggressive quant levels on smaller Qwen3.5 GGUF models, has released the full toolset under an MIT license on GitHub. The method uses gradient descent to train per-tensor scalar gates that select optimal quant levels, targeting both KL divergence against the BF16 reference and a filesize target. It competes with Unsloth Dynamic 3.0, which remains proprietary.
A community developer released Sakura-MicroQuality quantizations of Aleph Alpha's Kolibri-1, a ~78B MoE model with ~3.5B active parameters, compressing it to 20.94 GiB at 2.30 bpw in GGUF/llama.cpp format. The quant uses tensor/layer sensitivity to allocate bits where they matter most, achieving ~59% lower KL divergence than a standard IQ2_XS baseline and 90.5% top-token agreement against a Q8_0 reference. A second 365-expert variant prunes 950 rarely-used experts to reach 19.99 GiB at 74.4B parameters with no retraining.
A community developer released Sakura-MicroQuality quantizations of Aleph Alpha's Kolibri-1, a ~78B MoE model with ~3.5B active parameters, compressing it to 20.94 GiB at 2.30 bpw in GGUF/llama.cpp format. The quant uses tensor/layer sensitivity to allocate bits where they matter most, achieving ~59% lower KL divergence than a standard IQ2_XS baseline and 90.5% top-token agreement against a Q8_0 reference. A second 365-expert variant prunes 950 rarely-used experts to reach 19.99 GiB at 74.4B parameters with no retraining.
A developer benchmarked 16 quantizations of Qwen3.6 27B, comparing GGUF quants in llama.cpp against NVFP4, AWQ, AutoRound, and FP8 in vLLM. The comparison uses next-token probability distributions against an unquantized reference, with results and an interactive chart in a blog post.
A developer benchmarked 16 quantizations of Qwen3.6 27B, comparing GGUF quants in llama.cpp against NVFP4, AWQ, AutoRound, and FP8 in vLLM. The comparison uses next-token probability distributions against an unquantized reference, with results and an interactive chart in a blog post.
Local LLM users are sharing configurations for running Qwen 3.8 27B on consumer GPUs. An RTX 5080 setup reaches ~75 tok/s decode using a custom hybrid GGUF quant with multi-token prediction, while a 12GB laptop GPU runs it for agentic coding at 9–11 tok/s with Unsloth Dynamic 3.0 quants. An AMD RX 9060 XT user finds the 27B too slow and switches to Ornith 1.5 9B.
Local LLM users are sharing configurations for running Qwen 3.8 27B on consumer GPUs. An RTX 5080 setup reaches ~75 tok/s decode using a custom hybrid GGUF quant with multi-token prediction, while a 12GB laptop GPU runs it for agentic coding at 9–11 tok/s with Unsloth Dynamic 3.0 quants. An AMD RX 9060 XT user finds the 27B too slow and switches to Ornith 1.5 9B.
The original authors of DFlash have released a second version, DFlash 2, with GGUF quants for Qwen 3.8 27B and Muse Glimmer. An accompanying llama.cpp pull request (PR #27342) suggests integration into the main inference stack. This update likely brings performance or quality improvements for local inference of these models.
The original authors of DFlash have released a second version, DFlash 2, with GGUF quants for Qwen 3.8 27B and Muse Glimmer. An accompanying llama.cpp pull request (PR #27342) suggests integration into the main inference stack. This update likely brings performance or quality improvements for local inference of these models.