journal article·2026-04Open access

High-performance thermoacoustically driven triboelectric nanogenerator for autonomous wireless monitoring

Geng Chen, Yawei Wang, Shancheng Tao, Jiawen Xu, Lihua Tang, Junlei Wang, Guobiao Hu, Aidong Deng

Cell Reports Physical Science· Volume 7· Issue 4

Abstract

Harvesting low-grade heat offers a promising strategy for sustainable power generation. However, existing thermoacoustic energy harvesters often suffer from low electrical output and limited practical applicability. Here, we report a thermoacoustically driven honeycomb-structured triboelectric nanogenerator (TADHS-TENG) capable of converting heat into electricity and directly powering wireless sensors. The TADHS-TENG integrates a thermoacoustic oscillator with an elastically suspended rolling-ball TENG. It achieves a maximum voltage of 124 V, a peak current of 15.82 μA, a maximum charge transfer of 50.54 nC, and a peak power of 1.2 mW, outperforming previously reported thermoacoustically driven TENGs. By incorporating a power management circuit and an energy storage module, the TADHS-TENG is capable of continuously driving a Bluetooth-enabled temperature sensor that transmits data to the cloud without reliance on external power sources. These results demonstrate the feasibility of heat-driven, self-powered, wireless monitoring and underscore the significant potential of thermoacoustically driven TENGs for driving low-power electronics in real-world environments.
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Research context

OpenAlex topics: Advanced Sensor and Energy Harvesting Materials · Gas Sensing Nanomaterials and Sensors · Acoustic Wave Resonator Technologies

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