A software engineer released Ninfer 4080 on GitHub, a fork of the community Ninfer CUDA runtimes tuned for RTX 4080 16GB cards, running ISTA-DASLab-Qwen-3.8-27B-GSQ with DFlash2 speculative decoding at up to 100k context. It reaches 2720 tok/s prefill and up to 262 tok/s decode, far beyond general-purpose engines like llama.cpp or vllm on the same hardware. The work matters to local-LLM practitioners because it shows how much performance specialized per-GPU runtimes can unlock over general inference engines.
A Reddit user asks which model and harness currently performs best on 16GB VRAM, noting three optimization vectors: quantized model variants, inference optimizations, and new inference servers. They suggest DASLab's GSQ-RCO was among the first models to run well on 16GB and that strata and freetoken revealed idle GPU time in llama.cpp.
A Reddit user asks which model and harness currently performs best on 16GB VRAM, noting three optimization vectors: quantized model variants, inference optimizations, and new inference servers. They suggest DASLab's GSQ-RCO was among the first models to run well on 16GB and that strata and freetoken revealed idle GPU time in llama.cpp.
A user on Reddit reports testing Qwen3.8-27B GGUF quantizations on a 16GB RTX 4080, aiming to maximize context and performance for a local Hermes agent. They built llama.cpp with the DFlash2 branch and used ngram-mod to achieve a 131072 context, sharing practical results for running large models on consumer hardware.
A user on Reddit reports testing Qwen3.8-27B GGUF quantizations on a 16GB RTX 4080, aiming to maximize context and performance for a local Hermes agent. They built llama.cpp with the DFlash2 branch and used ngram-mod to achieve a 131072 context, sharing practical results for running large models on consumer hardware.
A r/LocalLLaMA user reports running Qwen 3.8 27B locally at 90–110 t/s decode on a 16GB RTX 5080 using NInfer v1.5, up from ~75 t/s in their earlier llama.cpp setup. Across 32 Zoo Code coding-session requests the median decode was 96.45 t/s with 110,592-token context allocated and working prompt caching. The results show 27B-class models becoming practical for agentic coding on consumer 16GB GPUs.
A r/LocalLLaMA user reports running Qwen 3.8 27B locally at 90–110 t/s decode on a 16GB RTX 5080 using NInfer v1.5, up from ~75 t/s in their earlier llama.cpp setup. Across 32 Zoo Code coding-session requests the median decode was 96.45 t/s with 110,592-token context allocated and working prompt caching. The results show 27B-class models becoming practical for agentic coding on consumer 16GB GPUs.
A developer ported NInfer, a from-scratch C++/CUDA inference engine originally for Blackwell, to Turing GPUs, achieving 45 tok/s on a 22GB modded RTX 2080 Ti with Qwen3.8-27B using speculative decoding. The port targets sm_75 and is incompatible with unmodded 11GB cards.
A developer ported NInfer, a from-scratch C++/CUDA inference engine originally for Blackwell, to Turing GPUs, achieving 45 tok/s on a 22GB modded RTX 2080 Ti with Qwen3.8-27B using speculative decoding. The port targets sm_75 and is incompatible with unmodded 11GB cards.
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.