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Z.H. Ren, X.Y. Shi *, Q. Yang, C.S. Li, H.Q. Liu, T.S. Bai, Y. Ma, P. Das, H.F. Liu, E.D. Yang, S.Y. Jin, L. Feng, Q. Shi, X.H. Bao, H.-M. Cheng * and Z.-S. Wu *

Nature Communications, 2025, 16.

DOI: 10.1038/s41467-025-56881-z [PDF]

发布时间:2025-01-19    栏目名称:2025

Z.H. Ren, X.Y. Shi *, Q. Yang, C.S. Li, H.Q. Liu, T.S. Bai, Y. Ma, P. Das, H.F. Liu, E.D. Yang, S.Y. Jin, L. Feng, Q. Shi, X.H. Bao, H.-M. Cheng * and Z.-S. Wu *

Nature Communications, 2025, 16.

DOI: 10.1038/s41467-025-56881-z [PDF]

For electronics to be wearable, contactless charging and overall deformability are necessary pre-conditions. However, the current heterogeneous integration based on different active materials and separate manufacturing often leads to mechanical mismatch. Here, we report an ultrastretchable all-in-one integrated MXene-based microsystem comprising wireless coils, micro-supercapacitors (MSCs) and strain sensors. The seamless configuration without any connecting interface dramatically improves the structural integrity of the microsystem, and a pre-crumpled structure endows it with superior stretchability. Attributed to these, our MSCs can be wirelessly charged in approximately 20 s under various types of deformation and are capable of powering strain sensors, responding rapidly to body motion signals. Moreover, the MSCs display a high specific capacitance of 76.82 F cm–3, and superb mechanical stability with 98.5% capacitance retention after biaxial stretching 1000 cycles from 0% to 500% areal strain. Therefore, this work sheds new insights into design and implementation of skin-attachable wireless microelectronics.

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