This literature review comprehensively summarizes up‐to‐date progress in pressure sensing mechanisms, materials, and structural design strategies, highlighting their potential towards developing advanced biomedical applications.
Abstract
Advances in soft electronics and soft biorobotics have accelerated progress in advanced biomedical engineering. This new frontier motivates development of next‐generation healthcare technologies focused on minimally invasive robotic surgery and continuous real‐time physiological monitoring through wearable, implantable, and personalized devices. Among different physiological parameters, pressure represents a critical factor, extensively measured using diverse sensing mechanisms such as piezoresistive, capacitive, piezoelectric, optical, triboelectric and other different modalities. The integration of these sensing principles with emerging sustainable materials with advanced fabrication techniques has enabled the creation of flexible, stretchable, and conformable pressure sensors capable of adapting to unconventional surfaces. This literature review comprehensively summarizes up‐to‐date progress in pressure sensing mechanisms, materials, and structural design strategies, highlighting their potential towards developing advanced biomedical applications. Furthermore, it discusses current challenges, and future perspectives for developing high‐performance, biocompatible, and sustainable pressure sensors that will advance healthcare monitoring.
In recent years, the rapid development of flexible electronics, smart materials, and micro/nanofabrication technologies has greatly promoted the advancement of flexible pressure sensors. These sensors have achieved significant improvements in sensitivity, detection range, stability, and functional integration, demonstr...
Xiu-Zhen Yang, Chao-Jin Chen, Meng Wang et al.· Italian National Conference...· 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
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.
Ting-Yu Wang, Kun Xu, En Zhao et al.· SmartSys· 0 citations
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.
Duc Khanh Tran, Tuan Sang Tran, Thanh-An Truong et al.· Advancement of science· 0 citations
Key scientific issues and challenges currently facing the field are identified, such as motion artifacts, long‐term biocompatibility stability, and multimodal data fusion, and future development directions for intelligent, self‐powered, and self‐healing flexible sensor are outlined, aiming to provide theoretical suppor...
Zihan Lin, Zi-Yuan Zhou, Zihan Wang et al.· Analysis & Sensing· 0 citations
Key applications in soft robotics, prosthetics, and haptic devices are examined, highlighting the transformative potential of these sensors across diverse domains, and future directions to further advance this promising technology are outlined.
M. Awais, Gayatri Indukumar, D. Cafiso et al.· Micromachines· 0 citations
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