Mapped to a shared offline runtime family and usable with a recording or compatible ESP32 CSI stream.
Intended capability
Evaluate the sensing evidence for “Contactless continuous vitals in step-down and med-surg beds” in a consented, ground-truthed study. This is not a medical device, clinical monitor, diagnosis, or emergency alert.
This describes the intended outcome. Readiness is shared-family mapped, evidence is class B, and a catalog mapping or recording is not proof of this outcome at a real site.
Solution blueprint
See the environment before installing it.
This exact kit is one of 191 first-class designs. It includes geometry, objects, nodes, wording, scenarios, installation, limitations, and catalog-bound readiness.
No rendered revision is available yet.
Bundled recording
A related Healthcare scene
This is one recorded vertical scenario. It is not separate validation of every capability in the catalog.
01 The physics
Thoracic wall motion during breathing (0.1-0.5Hz, ~4-12mm) and cardiac-driven surface micromotion (0.8-2Hz, sub-mm) periodically modulate the multipath phase; the chest acts as a moving reflector producing a narrowband Doppler tone whose fundamental frequency equals respiration/heart rate.
02 Shared processing path
CIR sparse recovery isolates the bed-region delay bin -> micro-Doppler spectral extraction (0.1-2Hz band) -> peak tracking for RR and cardiac harmonic -> compartment Kalman smoothing for beat-to-beat continuity
This is a capability design path. Components may be shared with other catalog entries; it is not presented as a unique algorithm.
03 Validation plan
OPERAnet includes synchronized respiration ground truth for CSI-based rate estimation; validate RR MAE <2 bpm against its reference belt, then own-hardware ESP32 bedside trial vs. hospital pulse-ox/capnography for heart-proxy correlation.
04 Commercial hypothesis
'Zero-contact bed vitals' — sold to nursing informatics/CNIO for continuous monitoring on units that currently only get vitals q4h.