Research objective
Investigate whether radar and inertial measurements can identify when physiological estimates are supported in changing canine wearable geometry.
Research Capability Statement
Research-stage technology overview · September 2026
Status summary based on founder reports, company materials, and source-code inspection; experiment outcomes were not independently verified for this statement.
Investigate whether radar and inertial measurements can identify when physiological estimates are supported in changing canine wearable geometry.
Coat, fit, posture, and sensor movement alter the measurement. Sensor and nearby tissue may move together, obscuring physiological motion.
Develop a joint radar-inertial validity estimator and calibrate confidence against independent reference error. References are for research and evaluation; candidate deployment inputs are radar and inertial measurements.
Human breadboard work has been conducted. Firmware source includes multi-bin fusion, motion gating, adaptive cancellation, and heuristic quality scoring. These facts do not establish canine performance.
Begin with controlled displacement and media experiments, then canine reference recordings after required veterinary and animal-use arrangements. Respiration is primary, cardiac rate secondary, and beat intervals exploratory.
Compare with radar-only estimation, fixed-threshold motion gating, and existing firmware heuristics on held-out conditions, animals, and sessions. Report error, false acceptance, and usable-recording yield together.
A potential future application is animal-health monitoring between veterinary visits, subject to validated performance, wearability, and workflow value. It is a prospective use case, not an established product or partnership. Working-dog and human uses require separate validation.
Complex Media Sensing is a research initiative of Lutz Innovations LLC. Nathaniel Lutz reports filed patent applications relating to radar sensing; filing does not establish performance or entity ownership.