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π RuView

Turns commodity WiFi Channel State Information into spatial sensing: 17-keypoint pose estimation, presence detection, and contactless breathing/heart-rate monitoring through walls, with no camera. Runs on a mesh of ESP32-S3 nodes (~$9 each).

Introduction

Every WiFi router is already a sensor. It constantly measures how radio waves bounce, bend, and fade across a room just to keep your connection stable — and then throws that data away. RuView's bet is that this discarded Channel State Information encodes enough about the human body to recover much of what a camera would see, without the camera. That quietly reframes ambient WiFi from a networking detail into a privacy-preserving alternative to optical surveillance.

What Sets It Apart
  • Commodity hardware, not lab gear. It runs on a mesh of four to six ESP32-S3 microcontrollers at roughly $9 each, rather than research-grade NICs. That moves WiFi sensing out of academic papers and into a weekend build costing tens of dollars.
  • One signal, many readings. The same CSI stream drives 17-keypoint skeletal pose estimation, contactless breathing and heart-rate monitoring, occupancy counting, and fall detection — capabilities usually spread across separate dedicated sensors.
  • Works where cameras can't. It sees through drywall and in total darkness, and stores no imagery at all, so the privacy and data-retention surface is fundamentally smaller than a camera or always-on microphone.
How the Signal Becomes Spatial

A human body subtly distorts the radio waves passing through and around it; models trained on those distortions reconstruct pose and vital signs from the resulting CSI patterns. The approach builds on Carnegie Mellon's WiFi DensePose research, packaged here as a Rust-heavy edge stack so inference can run on the microcontrollers themselves rather than a server.

Who It's For

Great fit if you want to prototype contactless health monitoring, elder-care fall detection, or camera-free occupancy sensing, and you're comfortable flashing ESP32 firmware and tuning models to your own space. Look elsewhere if you need certified medical-grade vitals, plug-and-play consumer hardware, or dependable accuracy out of the box — CSI sensing is highly environment-sensitive and needs per-room calibration, and the headline accuracy figures come from controlled datasets, not an arbitrary living room.

Information

  • Websitegithub.com
  • OrganizationsrUv (Reuven Cohen)
  • Authorsruvnet
  • Published date2025/06/07

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