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October 24, 2017ACS Applied Materials & Interfaces277 citations

An All-Silk-Derived Dual-Mode E-skin for Simultaneous Temperature–Pressure Detection

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CWChunya WangKXKailun XiaMZMingchao Zhang

Key Points

  • This research aims to develop a multifunctional electronic skin that can simultaneously detect temperature and pressure.
  • Assembled a temperature sensor and a strain sensor using silk-nanofiber-derived carbon fiber membranes (SilkCFM).
  • Measured temperature sensitivity at 0.81% per centigrade and strain sensitivity with a gauge factor of ∼8350 at 50% strain.
  • Evaluated performance in detecting various stimuli such as exhaling and finger pressing.
  • The E-skin can accurately detect and differentiate between temperature and pressure stimuli simultaneously.
  • Temperature sensitivity was found to be 0.81% per centigrade, and the strain sensor showed extreme sensitivity with a gauge factor of ∼8350.
  • The design allows integrated sensors to be passive to other stimuli, enhancing overall detection accuracy.

Abstract

Flexible skin-mimicking electronics are highly desired for development of smart human-machine interfaces and wearable human-health monitors. Human skins are able to simultaneously detect different information, such as touch, friction, temperature, and humidity. However, due to the mutual interferences of sensors with different functions, it is still a big challenge to fabricate multifunctional electronic skins (E-skins). Herein, a combo temperature-pressure E-skin is reported through assembling a temperature sensor and a strain sensor in both of which flexible and transparent silk-nanofiber-derived carbon fiber membranes (SilkCFM) are used as the active material. The temperature sensor presents high temperature sensitivity of 0.81% per centigrade. The strain sensor shows an extremely high sensitivity with a gauge factor of ∼8350 at 50% strain, enabling the detection of subtle pressure stimuli that induce local strain. Importantly, the structure of the SilkCFM in each sensor is designed to be passive to other stimuli, enabling the integrated E-skin to precisely detect temperature and pressure at the same time. It is demonstrated that the E-skin can detect and distinguish exhaling, finger pressing, and spatial distribution of temperature and pressure, which cannot be realized using single mode sensors. The remarkable performance of the silk-based combo temperature-pressure sensor, together with its green and large-scalable fabrication process, promising its applications in human-machine interfaces and soft electronics.

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Cite This Study

Wang et al. (2017) studied this question.

synapsesocial.com/papers/6a1727cc25571367076c0fa6https://doi.org/10.1021/acsami.7b13356
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Also Consider

Synapse has enriched 5 closely related papers on similar clinical questions. Consider them for comparative context:

  1. 1Silk Fabric E-Skin with Bioinspired Fingerprint Design Enabled by a Mixed-Dimensional Assembly Strategy2026
  2. 2A Highly Elastic, Strain-Insensitive, Wearable Pressure–Temperature Dual-Mode Sensor2026
  3. 3Bio-Skin-Inspired Flexible Pressure Sensor Based on Carbonized Cotton Fabric for Human Activity Monitoring2024 · 4 citations
  4. 4Flexible Thermal Perception Electronic Skin for Matter, Temperature, and Wind Detection2024 · 3 citations
  5. 5Flexible Self-Powered Multimodal Sensor for Simultaneous Temperature, Strain, and Pressure Detection with Signal Decoupling2026