RuView vs Ternary Bonsai

RuView is an open-source platform that performs real-time 3D human pose estimation, vital sign monitoring, and presence detection using nothing but cheap WiFi signals from $9 ESP32 microcontrollers. No cameras, no video, no cloud subscription required. The system tracks 17 COCO body keypoints and measures heart rate and breathing by analyzing how bodies disrupt WiFi Channel State Information (CSI) — the same physics used in research labs, now running on a microcontroller you can buy in bulk for single-digit dollars. The architecture fuses WiFi CSI with optional depth and mmWave radar data into a real-time 3D spatial model. On-device spiking neural networks adapt to a new room's RF geometry in under 30 seconds. Total hardware cost for a full room setup: around $140. The software stack is written in Rust with pre-trained models on Hugging Face and an active Python binding layer for downstream ML pipelines. The privacy implications are significant — and cut both ways. RuView can monitor a care home resident's breathing without a camera in their bedroom, or let a smart home detect when all occupants have left. The open-source release makes the technology accessible to indie builders for the first time, but also means the underlying sensing capability is now commodity.

PrismML's Ternary Bonsai is a family of ultra-compressed language models using 1.58-bit weights — meaning every parameter is stored as -1, 0, or +1, with no higher-precision layers anywhere in the architecture. The line-up covers 8B, 4B, and 1.7B parameter models. The flagship 8B model fits in 1.75 GB of RAM, a 9x reduction versus a 16-bit baseline. Unlike earlier 1-bit experiments that felt like a party trick with serious capability regressions, Ternary Bonsai 8B outperforms PrismML's own prior 1-bit Bonsai 8B by 5 points on average across standard benchmarks. The team also ships WebGPU inference, so the 1.7B model runs entirely in a browser tab. This is the first time a production-quality chat model has run with no server at all. The real-world use case is edge and offline deployment: medical devices, air-gapped government systems, consumer apps that need to work without a signal. At 1.75 GB, the 8B model fits on the GPU RAM of a six-year-old gaming laptop. PrismML is positioning this as the foundation for truly offline AI — a credible claim if the capability benchmarks hold up under real-world testing.