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April 1, 2026Sensors0 citationsOpen Access

Radar-Based Monitoring: A Proof of Principle Study in a Piglet Model for a Novel Approach in Non-Contact Vital Sign Monitoring

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SGSybelle Goedicke-FritzDSDaniel SchmiechRTRené Thull

Key Points

  • The study aims to establish a radar-based system for non-contact monitoring of respiratory rates in neonatal care.
  • Developed a radar-based monitoring system for respiratory rate in pediatric incubators.
  • Employed a four-channel I/Q FMCW radar with specific antennas designed for infant thorax coverage.
  • Tested the system in six anesthetized newborn piglets.
  • Successfully detected thorax movements and calculated respiratory rates using radar.
  • Showed high correlation between radar-detected respiratory signals and those from a cable-bound monitor.

Abstract

(1) Background: Hospitalized preterm infants often require months of vital signs monitoring in the neonatal intensive care unit. Today, wired sensors are essential for survival, but are associated with numerous disadvantages including sensor dislocations, skin trauma and hygiene risks. Non-contact vital sign monitoring would therefore represent a significant improvement in the care of hospitalized neonates. (2) Objective: This study aims to lay the foundation for non-contact radar-based monitoring of the respiratory rate, which could be used in the neonatal intensive care unit. (3) Methods: We developed a radar-based vital parameter monitoring system for recording the respiratory rate of premature infants in a pediatric incubator. The novel system employs a four-channel I/Q FMCW radar with compact, application-specific antennas optimized to cover the defined area of interest on the infant’s thorax. As a proof-of-principle study, the system was tested in six anesthetized newborn piglets. (4) Results: Using the radar-based system, thorax movements were detected and the respiratory rate was calculated. We observed a high accordance between the signals of respiration detected by the novel radar sensor with the signals of the cable-bound monitor in resting piglets. (5) Conclusions: The novel radar sensor is suited for measuring respiration in the piglet model. In future, the sensor should be optimized in order to improve its robustness against disturbances body movements and in order to allow detection of heartbeat.

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Cite This Study

Goedicke-Fritz et al. (2026) studied this question.

synapsesocial.com/papers/69cd7b695652765b073a9745https://doi.org/10.3390/s26072139
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