Access the full text.
Sign up today, get DeepDyve free for 14 days.
Wei Chen, Liu-Xin Liu, Hao‐Bin Zhang, Zhongzhen Yu (2021)
Kirigami-Inspired Highly Stretchable, Conductive, and Hierarchical Ti3C2Tx MXene Films for Efficient Electromagnetic Interference Shielding and Pressure Sensing.ACS nano
Sen Li, J. Chu, Baoqing Li, Yu Chang, T. Pan (2019)
Handwriting Iontronic Pressure Sensing Origami.ACS applied materials & interfaces
Qiang Zou, Shihao Li, T. Xue, Zhuomin Ma, Zhiming Lei, Qi Su (2020)
Highly sensitive ionic pressure sensor with broad sensing range based on interlaced ridge-like microstructureSensors and Actuators A-physical, 313
Chaoxing Wu, Tae Kim, J. Park, Bonmin Koo, Sihyun Sung, Jiajia Shao, Chi Zhang, Zhong Wang (2019)
Self-Powered Tactile Sensor with Learning and Memory.ACS nano
Zijie Zhu, Ruya Li, T. Pan (2018)
Imperceptible Epidermal–Iontronic Interface for Wearable SensingAdvanced Materials, 30
Y. Huang, Yun Chen, Xiangyu Fan, Ningqi Luo, Shuang Zhou, S. Chen, N. Zhao, C. Wong (2018)
Wood Derived Composites for High Sensitivity and Wide Linear-Range Pressure Sensing.Small
Baoqing Nie, Siyuan Xing, J. Brandt, T. Pan (2012)
Droplet-based interfacial capacitive sensing.Lab on a chip, 12 6
K. Song, Rudai Zhao, Zhong Wang, Ya Yang (2019)
Conjuncted Pyro‐Piezoelectric Effect for Self‐Powered Simultaneous Temperature and Pressure SensingAdvanced Materials, 31
C. Mu, Junpeng Li, Yuanqiang Song, Wutong Huang, Ao Ran, Kai Deng, Jiani Huang, Weihua Xie, Rujie Sun, Huaiwu Zhang (2018)
Enhanced Piezocapacitive Effect in CaCu3Ti4O12–Polydimethylsiloxane Composited Sponge for Ultrasensitive Flexible Capacitive Sensor
Qiupeng Lin, Jun Huang, Junlong Yang, Yi Huang, Yifan Zhang, Yueji Wang, Jianming Zhang, Yan Wang, Linlin Yuan, Minkun Cai, Xingyu Hou, Weixing Zhang, Yunlong Zhou, S. Chen, C. Guo (2020)
Highly Sensitive Flexible Iontronic Pressure Sensor for Fingertip Pulse MonitoringAdvanced Healthcare Materials, 9
Sudeep Sharma, Ashok Chhetry, M. Sharifuzzaman, H. Yoon, J. Park (2020)
Wearable Capacitive Pressure Sensor Based on MXene Composite Nanofibrous Scaffolds for Reliable Human Physiological Signal Acquisition.ACS applied materials & interfaces
Jun Yang, Jin-Oh Kim, Jinwon Oh, S. Kwon, J. Sim, Da Kim, Han Choi, Steve Park (2019)
Microstructured Porous Pyramid-Based Ultrahigh Sensitive Pressure Sensor Insensitive to Strain and Temperature.ACS applied materials & interfaces, 11 21
Yan Xiao, Yu Duan, Ning Li, Linlin Wu, B. Meng, F. Tan, Y. Lou, Hao Wang, Weiguan Zhang, Zhengchun Peng (2021)
Multilayer Double-Sided Microstructured Flexible Iontronic Pressure Sensor with a Record-wide Linear Working Range.ACS sensors
Shaodi Zheng, Xiaotian Wu, Yan-hao Huang, Zewang Xu, Wei Yang, Zhengying Liu, Ming‐bo Yang (2020)
Multifunctional and highly sensitive piezoresistive sensing textile based on a hierarchical architectureComposites Science and Technology, 197
Qingxian Liu, Zhiguang Liu, Chenggao Li, Kewei Xie, Pang Zhu, Biqi Shao, Jianming Zhang, Junlong Yang, Jin Zhang, Quan Wang, C. Guo (2020)
Highly Transparent and Flexible Iontronic Pressure Sensors Based on an Opaque to Transparent TransitionAdvanced Science, 7
Sudeep Sharma, Ashok Chhetry, Shipeng Zhang, H. Yoon, Chani Park, Hyunsik Kim, M. Sharifuzzaman, Xue Hui, J. Park (2021)
Hydrogen-Bond-Triggered Hybrid Nanofibrous Membrane-Based Wearable Pressure Sensor with Ultrahigh Sensitivity over a Broad Pressure Range.ACS nano
(2009)
Yearb
V. Sencadas, Charbel Tawk, G. Alici (2020)
Environmentally friendly and biodegradable ultra-sensitive piezoresistive sensors for wearable electronics applications.ACS applied materials & interfaces
T. Schroeder, J. Houghtaling, B. Wilts, Michael Mayer (2018)
It's Not a Bug, It's a Feature: Functional Materials in InsectsAdvanced Materials, 30
Xianhui Liu, Ming Zhang, Jun-na Shi, Kai Li, Dong Zhang (2013)
Ultrastructure of antennal sensilla of a parasitoid fly, Pales pavida Meigen (Diptera: Tachinidae).Micron, 54-55
Hao Gong, Zijie Xu, Yun Yang, Qingchi Xu, Xuyi Li, Xing Cheng, Yaoran Huang, Fan Zhang, Jizhong Zhao, Shengyou Li, X. Liu, Qiaoling Huang, Wenxi Guo (2020)
Transparent, stretchable and degradable protein electronic skin for biomechanical energy scavenging and wireless sensing.Biosensors & bioelectronics, 169
Gengrui Zhao, Xiaodi Zhang, Xin Cui, Shu Wang, Zhirong Liu, Lin Deng, A. Qi, Xiran Qiao, Lijie Li, Caofeng Pan, Yan Zhang, Linlin Li (2018)
Piezoelectric Polyacrylonitrile Nanofiber Film-Based Dual-Function Self-Powered Flexible Sensor.ACS applied materials & interfaces, 10 18
Yongbiao Wan, Zhiguang Qiu, Jun Huang, Jingyi Yang, Qi Wang, Peng Lu, Junlong Yang, Jianming Zhang, Siya Huang, Zhigang Wu, C. Guo (2018)
Natural Plant Materials as Dielectric Layer for Highly Sensitive Flexible Electronic Skin.Small, 14 35
Ningning Bai, Liu Wang, Qi Wang, Jue Deng, Yan Wang, Peng Lu, Jun Huang, Gang Li, Y. Zhang, Junlong Yang, Kewei Xie, Xuanhe Zhao, C. Guo (2020)
Graded intrafillable architecture-based iontronic pressure sensor with ultra-broad-range high sensitivityNature Communications, 11
Ruya Li, Y. Si, Zijie Zhu, Yaojun Guo, Yingjie Zhang, N. Pan, Gang Sun, T. Pan (2017)
Supercapacitive Iontronic Nanofabric SensingAdvanced Materials, 29
Sen Li, N. Pan, Zijie Zhu, Ruya Li, Baoqing Li, J. Chu, Guanglin Li, Yu Chang, T. Pan (2019)
All‐in‐One Iontronic Sensing PaperAdvanced Functional Materials, 29
Kang Wang, Zheng Lou, Lili Wang, Lianjia Zhao, Shufang Zhao, Dongyi Wang, W. Han, Kai Jiang, G. Shen (2019)
Bioinspired Interlocked Structure-Induced High Deformability for Two-Dimensional Titanium Carbide (MXene)/Natural Microcapsule-Based Flexible Pressure Sensors.ACS nano
Zhiguang Qiu, Yongbiao Wan, Wohua Zhou, Jingyi Yang, Junlong Yang, Jun Huang, Jianming Zhang, Qingxian Liu, Siya Huang, Ningning Bai, Zhigang Wu, Wei Hong, Hong Wang, Chuanfei Guo (2018)
Ionic Skin with Biomimetic Dielectric Layer Templated from Calathea Zebrine LeafAdvanced Functional Materials, 28
Ashok Chhetry, Jiyoung Kim, H. Yoon, J. Park (2018)
Ultrasensitive Interfacial Capacitive Pressure Sensor Based on a Randomly Distributed Microstructured Iontronic Film for Wearable Applications.ACS applied materials & interfaces, 11 3
S. Cho, Seung Lee, Seunggun Yu, Hyeohn Kim, Sooho Chang, Donyoung Kang, Ihn Hwang, H. Kang, Beomjin Jeong, Eui Kim, Suk Cho, Kang Kim, Hyungsuk Lee, W. Shim, Cheolmin Park (2017)
Micropatterned Pyramidal Ionic Gels for Sensing Broad-Range Pressures with High Sensitivity.ACS applied materials & interfaces, 9 11
Qiang Zou, Zhuomin Ma, Shihao Li, Zhiming Lei, Qi Su (2020)
Tunable ionic pressure sensor based on 3D printed ordered hierarchical mesh structureSensors and Actuators A-physical, 308
Vipin Amoli, Joo Kim, Eunsong Jee, Y. Chung, So Kim, Jehyoung Koo, H. Choi, Yu-na Kim, Do Kim (2019)
A bioinspired hydrogen bond-triggered ultrasensitive ionic mechanoreceptor skinNature Communications, 10
Kangchen Nie, Zhaosong Wang, Ruixin Tang, Li Zheng, Caicai Li, Xiaoping Shen, Qingfeng Sun (2020)
Anisotropic, Flexible Wood Hydrogel and Wrinkled, Electrodeposited Film Electrode for Highly Sensitive, Wide-range Pressure Sensing.ACS applied materials & interfaces
S. Pyo, Jaeyong Lee, Wondo Kim, E. Jo, Jongbaeg Kim (2019)
Multi‐Layered, Hierarchical Fabric‐Based Tactile Sensors with High Sensitivity and Linearity in Ultrawide Pressure RangeAdvanced Functional Materials, 29
Minglu Zhu, Tianyiyi He, Chengkuo Lee (2020)
Technologies toward next generation human machine interfaces: From machine learning enhanced tactile sensing to neuromorphic sensory systemsApplied physics reviews, 7
Yunjian Guo, Song Gao, Wenjing Yue, Chunwei Zhang, Yang Li (2019)
AAO-Assisted Low-Cost Flexible Capacitive Pressure Sensors Based on Double-Sided Nanopillars by Facile Fabrication Method.ACS applied materials & interfaces
H. Bishara, Alina Nagel, Maya Levanon, S. Berger (2020)
Amino acids nanocrystals for piezoelectric detection of ultra-low mechanical pressure.Materials science & engineering. C, Materials for biological applications, 108
Xianhui Liu, Jia-jia Liu, Xin-Yu Li, Dong Zhang (2016)
Antennal sensory organs of Scathophaga stercoraria (Linnaeus, 1758) (Diptera: Scathophagidae): ultramorphology and phylogenetic implications.Zootaxa, 4067 3
Yu Chang, Liu Wang, Ruya Li, Zhichao Zhang, Qi Wang, Junlong Yang, C. Guo, T. Pan (2020)
First Decade of Interfacial Iontronic Sensing: From Droplet Sensors to Artificial SkinsAdvanced Materials, 33
Taiyu Jin, Yan Pan, Gukjin Jeon, H. Yeom, Shuye Zhang, K. Paik, S. Park (2020)
Ultrathin Nanofibrous Membranes Containing Insulating Microbeads for Highly Sensitive Flexible Pressure Sensors.ACS applied materials & interfaces
Xiongjie Li, Yiping Wang, Sheng Sun, Tingrui He, Querui Hu, Ying Yang, G. Yuan (2019)
Flexible and Ultrasensitive Piezoelectric Composites Based on Highly (00l)‐Assembled BaTiO3 Microplatelets for Wearable Electronics ApplicationAdvanced Materials Technologies, 4
Jun Yang, Jaewan Mun, S. Kwon, Seongjun Park, Z. Bao, Steve Park (2019)
Electronic Skin: Recent Progress and Future Prospects for Skin‐Attachable Devices for Health Monitoring, Robotics, and ProstheticsAdvanced Materials, 31
Chenghan Yi, Yuxin Hou, Ke He, Weimin Li, Nianci Li, Zhongguo Wang, Bing Yang, Shuda Xu, Heng Wang, Chuanzeng Gao, Zhengyan Wang, Guoqiang Gu, Zhixun Wang, Lei Wei, Chunlei Yang, Ming Chen (2020)
Highly Sensitive and Wide Linear-Response Pressure Sensors Featuring Zero Standby Power Consumption under Bending Conditions.ACS applied materials & interfaces
Joo Kim, Seung Lee, Jinhyun Hwang, Eunho Lee, Kilwon Cho, Sung‐Jin Kim, Do Kim, Wi Lee (2020)
Enhanced Sensitivity of Iontronic Graphene Tactile Sensors Facilitated by Spreading of Ionic Liquid Pinned on Graphene GridAdvanced Functional Materials, 30
Xiaotao Guan, Ziya Wang, Wenyu Zhao, Huayi Huang, Shaoping Wang, Qi Zhang, Dongxia Zhong, Waner Lin, Ning Ding, Zhengchun Peng (2020)
A Flexible Piezoresistive Sensor with Wide-Range Pressure Measurement based on a Graded Nest-Like Architecture.ACS applied materials & interfaces
Youngoh Lee, Jonghwa Park, Soowon Cho, Young-Eun Shin, Hochan Lee, Jinyoung Kim, Jinyoung Myoung, Seungse Cho, Saewon Kang, C. Baig, Hyunhyub Ko (2018)
Flexible Ferroelectric Sensors with Ultrahigh Pressure Sensitivity and Linear Response over Exceptionally Broad Pressure Range.ACS nano, 12 4
Iontronic sensing has experienced a rapid growth in recent years due to its ultrahigh device sensitivity, high resolution, and high spatial definition. However, most of the reported sensors usually exhibit a highly nonlinear response for the dramatic drop of sensitivity as pressure increasing. Here, a sensitive, piecewise linear flexible iontronic pressure sensor is reported. Inspired by the relationship between microstructure of fly mechanoreceptors and their associated stimuli, hill‐ridge architecture (HRA)‐based sensors with piecewise high sensitivity and linearity are designed and successfully prepared by using a simple and adjustable PDMS prestretched template. The developed sensor demonstrates a high sensitivity of 37.7 kPa–1 in the low‐pressure range (0–4 kPa) and 4.69 kPa–1 in higher load force (100–350 kPa). It is worth emphasizing that the response in both loading ranges is linear. Besides, the sensor exhibits a short dynamic response time of 23 ms together with extremely low LOD of 0.32 Pa and remarkable mechanical stability (>5000 cycles). Finally, the applications of the sensor for artery pulse detection, handwriting identification, and spatial discrimination are demonstrated. Benefiting from the unique properties, the proposed sensor can be advantageous for the potential applications in fields of motion detection, healthcare monitoring, and human‐machine interfaces.
Advanced Materials Technologies – Wiley
Published: Jan 1, 2022
Keywords: electrical double layer; iontronic pressure sensors; linear response
Read and print from thousands of top scholarly journals.
Already have an account? Log in
Bookmark this article. You can see your Bookmarks on your DeepDyve Library.
To save an article, log in first, or sign up for a DeepDyve account if you don’t already have one.
Copy and paste the desired citation format or use the link below to download a file formatted for EndNote
Access the full text.
Sign up today, get DeepDyve free for 14 days.
All DeepDyve websites use cookies to improve your online experience. They were placed on your computer when you launched this website. You can change your cookie settings through your browser.