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June 3, 2026ACS Sensors0 citations

Waterproof Pressure Sensor Leveraging Nano-/Microdeformation of Microstructure under Pressure for Collecting Wide-Range Human Physiological Signals Underwater Stably

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LWL WangJLJiaxu LiuSWS Q Wang

Key Result

A flexible, waterproof underwater physical signal collection device based on a micropillar double-layer pressure sensor accurately recognized subtle pulse vibrations and large-scale muscle signals.

Key Points

  • The aim is to develop a flexible and waterproof sensor for reliable underwater collection of human physiological signals during athletic activities.
  • Developed a dual-layer micropillar pressure sensor for underwater conditions
  • Implemented a flexible micropillar sensing layer for wide-ranging deformation
  • Used machine learning to analyze data from the underwater physical signal collection device.
  • Successfully recognized subtle pulse vibrations and large muscle signals underwater
  • Demonstrated a rapid response across different pressure levels
  • Enhanced sensing performance through protective packaging layer against water flow interference.

Structured PICO

P
Population
Not applicable (device development and testing study)
I
Intervention
Flexible, waterproof, and stable underwater human physical signal collection system based on a flexible micropillar double-layer pressure sensor (UPCD)
O
Outcome
Ability to accurately recognize subtle pulse vibrations and large-scale muscle expansion-contraction signals in watersurrogate

A novel waterproof pressure sensor can accurately collect both subtle pulse and large muscle movement signals underwater, potentially aiding in athlete health evaluation and training optimization.

Abstract

Underwater physical signal collection is crucial for helping athletes evaluate health and optimize training methods. However, it is difficult for existing underwater devices to simultaneously collect stable and accurate subtle pulse signals and large motions in complex water environments. Herein, a flexible, waterproof, and stable underwater human physical signal collection system based on a flexible micropillar double-layer pressure sensor was proposed. The developed sensor is integrated with a micropillar sensing layer and packaging layer, which exhibit a dual-mode sensing range that includes subtle and high pressure with a rapid response. The sensing layer provides wide-range deformation for improving the sensing performance; the packaging layer reduces the influence of water flow on the sensor when sensing subtle pressure underwater, which provides support for the microstructure when it senses high pressure to enhance the sensing performance. The sensor can accurately recognize both subtle pulse vibrations and large-scale muscle expansion-contraction signals in water. Therefore, an underwater physical signal collection device (UPCD) was constructed with a micropillar sensor and an information storage circuit board. The status of an underwater athlete can be estimated through a machine learning method by analyzing the data collected from the UPCD, which can recognize the training and physical conditions and further assist in optimizing the training method.

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Cite This Study

Wang et al. (2026) studied this question. Underwater physical signal collection device (UPCD) based on a flexible micropillar double-layer pressure sensor was evaluated on Accurate recognition of subtle pulse vibrations and large-scale muscle expansion-contraction signals in water. A flexible, waterproof underwater physical signal collection device based on a micropillar double-layer pressure sensor accurately recognized subtle pulse vibrations and large-scale muscle signals.

synapsesocial.com/papers/6a1fc40fdee9eb8c0dce5a83https://doi.org/10.1021/acssensors.6c00616
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