This review synthesizes advancements in TENGs, encompassing architectural diversity, ultra‐high sensitivity to subtle mechanical deformations, innovations in chip‐less self‐powered wireless sensing and non‐contact perception, alongside triboelectric encoders to ensure high‐precision and stable wearable sensing.
Abstract
The evolution of wearable and implantable electronics has redefined human‐machine interaction and clinical diagnostics. However, critical bottlenecks, including sensor performance, interfacial adaptation, and sustainable energy supply, etc., continue to hinder their widespread practical integration. Triboelectric nanogenerators (TENGs) have emerged as a promising platform, leveraging their unique working mechanism, inherent material universality, and self‐powered capabilities. This review synthesizes advancements in TENGs, encompassing architectural diversity, ultra‐high sensitivity to subtle mechanical deformations, innovations in chip‐less self‐powered wireless sensing and non‐contact perception, alongside triboelectric encoders to ensure high‐precision and stable wearable sensing. Furthermore, the frontiers of active bio‐interfacial interventions, including precision neuromodulation and therapeutic electrocatalysis, are explored. This review aims to provide an in‐depth summary of TENGs' unique properties and advantages, thereby facilitating the transition of wearable/implantable electronics from laboratory prototypes to commercial products.
The proliferation of the internet of things and wearable technologies is accelerating the demand for sustainable, autonomous, and multifunctional self-powered systems. Mechanical conformability and wearer comfort are essential for the widespread adoption of wearable devices. As distributed energy-harvesting modalities,...
The fundamental principles of piezo‐coupling effects in stimuli‐responsive polymers are outlined, key stimuli‐responsive polymeric materials with fabrication strategies are highlighted, and recent progress in device architectures tailored for ultrasensitive sensing and biomedical applications are discussed.
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Origami‐ and Kirigami‐inspired structures have emerged as transformative strategies for enhancing the performance and versatility of triboelectric nanogenerators (TENGs). Their folding mechanisms facilitate efficient for contact‐separation TENGs, as well as their geometric patterns provide essential stretchability for...
Han-Lin Sun, Xiao-Cheng Sun, Zhi-Hao Zhao et al.· Advanced Energy Materials· 0 citations
The rapid growth of wearable electronics, smart textiles, and the Internet of Things (IoT) has increased the demand for sustainable, self‐powered energy solutions. Textile‐based triboelectric nanogenerators (T‐TENGs) have emerged as a promising technology by combining efficient mechanical energy harvesting with the f...
Abhinav Mahapatra, Ying Tan, Glenn Chong et al.· Advanced Energy Materials· 0 citations
This review explores the rapidly emerging, promising domain of Janus nanofiber‐based triboelectric nanogenerators (TENGs). We focus on Janus nanofibers with anisotropic, dual‐faced chemical or physical properties, due to their exceptional potential for engineering high‐performance wearable electronics and self‐powered...
S. Wani, A. H. Rather, R. Khan et al.· ChemNanoMat· 0 citations
Wearable electronics are evolving from simple motion-recording devices toward skin-conformal, textile-integrated, and continuously operating sensing systems. Pressure is a fundamental mechanical signal for pulse and respiration monitoring, plantar-force analysis, motion assessment, human-machine interaction, and electr...
Linyan Gong· Applied and Computational En...· 0 citations
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