A developer released Reflex, a GGUF-native Rust/CUDA inference engine (MIT licensed) built for cold-start latency rather than steady-state throughput. It supports DeepSeek-V2/V3 Multi-head Latent Attention and Qwen3 family models, and benchmarks ~1.3-1.4x faster than llama.cpp cold-start on an A6000. It targets one-shot/serverless embedding, not server deployment.
The developers of Paddock, a Rust/C++ inference engine with its own CUDA kernels, released the code as open source on schedule, fulfilling an August commitment to ship in September. The public repo is their internal repo, including kernels, and the engine already serves roughly 300B tokens per year in production at their company. Practitioners get a single binary exposing OpenAI- and Anthropic-style APIs that loads GGUF and safetensors weights.
The developers of Paddock, a Rust/C++ inference engine with its own CUDA kernels, released the code as open source on schedule, fulfilling an August commitment to ship in September. The public repo is their internal repo, including kernels, and the engine already serves roughly 300B tokens per year in production at their company. Practitioners get a single binary exposing OpenAI- and Anthropic-style APIs that loads GGUF and safetensors weights.
A from-scratch LLM inference engine written in Rust and CUDA, specifically tuned for the RTX 5090 Laptop GPU (Blackwell sm_120a). It supports NVFP4 quantization, mixture-of-experts (MoE), and multi-token prediction (MTP) speculative decoding, achieving up to 1.6x speedup over llama.cpp on target models. Designed for developers who need maximum inference performance on a single high-end laptop GPU.
A from-scratch LLM inference engine written in Rust and CUDA, specifically tuned for the RTX 5090 Laptop GPU (Blackwell sm_120a). It supports NVFP4 quantization, mixture-of-experts (MoE), and multi-token prediction (MTP) speculative decoding, achieving up to 1.6x speedup over llama.cpp on target models. Designed for developers who need maximum inference performance on a single high-end laptop GPU.
A developer released Gewell, a custom inference engine for running Gemma 4 31B on Blackwell GPUs under high concurrency. It exploits Gemma's tied K/V weights on global attention layers to store KV cache at 0.625x the usual VRAM, mathematically losslessly. It also features a smarter checkpoint eviction policy and a custom mixed-precision quant format, targeting multi-prompt agentic workloads that vLLM's cache handles poorly.
A developer released Gewell, a custom inference engine for running Gemma 4 31B on Blackwell GPUs under high concurrency. It exploits Gemma's tied K/V weights on global attention layers to store KV cache at 0.625x the usual VRAM, mathematically losslessly. It also features a smarter checkpoint eviction policy and a custom mixed-precision quant format, targeting multi-prompt agentic workloads that vLLM's cache handles poorly.
A Reddit post lays out a thesis that specialized inference engines (ninfer, dwarfstar, Splash, llamAmpere, gufo) will proliferate and outpace general engines like llama.cpp and vLLM, because they optimize kernels and compute graphs for a single model/hardware combo. It ties this to AI coding lowering the barrier to building engines, since 'make tok/s go up' is a fully specified task suitable for autonomous implementation. The author also outlines alternative futures: plugin-ified kernels, AI-ified general-engine workflows, or compilers like MLIR/Mojo eliminating hardware-specific tinkering.
A Reddit post lays out a thesis that specialized inference engines (ninfer, dwarfstar, Splash, llamAmpere, gufo) will proliferate and outpace general engines like llama.cpp and vLLM, because they optimize kernels and compute graphs for a single model/hardware combo. It ties this to AI coding lowering the barrier to building engines, since 'make tok/s go up' is a fully specified task suitable for autonomous implementation. The author also outlines alternative futures: plugin-ified kernels, AI-ified general-engine workflows, or compilers like MLIR/Mojo eliminating hardware-specific tinkering.
A solo developer released Flyweight, an open-source C++/CUDA GGUF inference runtime that runs MoE models larger than a single GPU's VRAM by keeping experts in system RAM with a hot set cached on-card. It ships OpenAI/Anthropic-compatible APIs, a chat UI, image generation, and quantized KV cache, with benchmarks from a 12 GB laptop GPU. The Apache-2.0 project is on PyPI and actively requesting contributors for hardware and model coverage.
A solo developer released Flyweight, an open-source C++/CUDA GGUF inference runtime that runs MoE models larger than a single GPU's VRAM by keeping experts in system RAM with a hot set cached on-card. It ships OpenAI/Anthropic-compatible APIs, a chat UI, image generation, and quantized KV cache, with benchmarks from a 12 GB laptop GPU. The Apache-2.0 project is on PyPI and actively requesting contributors for hardware and model coverage.