Abstract
Current research about resistive sensors is rarely focusing on improving the strain range and linearity of resistance–strain dependence. In this paper, a bi-sheath buckled structure is designed containing buckled carbon nanotube sheets and buckled rubber on rubber fiber. Strain decrease results in increasing buckle contact by the rubber interlayer and a large decrease in resistance. The resulting strain sensor can be reversibly stretched to 600%, undergoing a linear resistance increase as large as 102% for 0–200% strain and 160% for 200–600% strain. This strain sensor shows high linearity, fast response time, high resolution, excellent stability, and almost no hysteresis.
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Wang, R., Jiang, N., Su, J., Yin, Q., Zhang, Y., Liu, Z., … Liu, Z. (2017). A Bi-Sheath Fiber Sensor for Giant Tensile and Torsional Displacements. Advanced Functional Materials, 27(35). https://doi.org/10.1002/adfm.201702134
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