A developer released Project Zero, an inference engine written from scratch in pure C99 that runs both 1.58-bit ternary BitNet models and standard dense GGUF models as a single binary with no Python or CUDA. On a Xeon it reports 36 tok/s on BitNet b1.58-2B-4T, about 1.8x faster than bitnet.cpp. It ships with an OpenAI-compatible API and offers a pre-built Linux binary, though some quantization paths still lag llama.cpp.
A developer released Project Zero, a pure C99 CPU-only inference engine for BitNet b1.58-2B-4T and Qwen Bonsai-27B, achieving 36 tok/s on a Xeon — 1.8× faster than bitnet.cpp. The single-binary, zero-dependency tool is open-source and seeking community benchmarks.
A developer released Project Zero, a pure C99 CPU-only inference engine for BitNet b1.58-2B-4T and Qwen Bonsai-27B, achieving 36 tok/s on a Xeon — 1.8× faster than bitnet.cpp. The single-binary, zero-dependency tool is open-source and seeking community benchmarks.
A developer created a CPU-first inference engine in pure C99 with no Python, CUDA, or BLAS dependencies, targeting 1.58-bit ternary models. The engine achieves 36.25 tok/s on BitNet b1.58-2B-4T using 4 threads on an Intel Xeon, leveraging custom AVX2/AVX-512 routines with VNNI instructions.
A developer created a CPU-first inference engine in pure C99 with no Python, CUDA, or BLAS dependencies, targeting 1.58-bit ternary models. The engine achieves 36.25 tok/s on BitNet b1.58-2B-4T using 4 threads on an Intel Xeon, leveraging custom AVX2/AVX-512 routines with VNNI instructions.
A developer building a C99 inference engine for BitNet's ternary models on CPU achieved a 29x speedup in a matmul kernel using AVX-512BW instructions, but end-to-end improvement is only 6-10% because DRAM bandwidth is the bottleneck. The kernel is not yet integrated into the full engine.
A developer building a C99 inference engine for BitNet's ternary models on CPU achieved a 29x speedup in a matmul kernel using AVX-512BW instructions, but end-to-end improvement is only 6-10% because DRAM bandwidth is the bottleneck. The kernel is not yet integrated into the full engine.
A developer released PicoLM v1.0-rc1, an LLM inference engine written in C99, on GitHub and announced it on Hacker News. It supports llama-2, GPT-2, Qwen 3.6/3.8 with MoE, and Gemma-3n models, with heavy emphasis on CPU SIMD acceleration and cross-platform portability. For practitioners, it offers a lightweight inference option spanning platforms from DOS to modern OSes.
A developer released PicoLM v1.0-rc1, an LLM inference engine written in C99, on GitHub and announced it on Hacker News. It supports llama-2, GPT-2, Qwen 3.6/3.8 with MoE, and Gemma-3n models, with heavy emphasis on CPU SIMD acceleration and cross-platform portability. For practitioners, it offers a lightweight inference option spanning platforms from DOS to modern OSes.
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.