TY - JOUR
T1 - Soft microfluidic assemblies of sensors, circuits, and radios for the skin
AU - Xu, Sheng
AU - Zhang, Yihui
AU - Jia, Lin
AU - Mathewson, Kyle E.
AU - Jang, Kyung In
AU - Kim, Jeonghyun
AU - Fu, Haoran
AU - Huang, Xian
AU - Chava, Pranav
AU - Wang, Renhan
AU - Bhole, Sanat
AU - Wang, Lizhe
AU - Na, Yoon Joo
AU - Guan, Yue
AU - Flavin, Matthew
AU - Han, Zheshen
AU - Huang, Yonggang
AU - Rogers, John A.
PY - 2014
Y1 - 2014
N2 - When mounted on the skin, modern sensors, circuits, radios, and power supply systems have the potential to provide clinical-quality health monitoring capabilities for continuous use, beyond the confines of traditional hospital or laboratory facilities. The most well-developed component technologies are, however, broadly available only in hard, planar formats. As a result, existing options in system design are unable to effectively accommodate integration with the soft, textured, curvilinear, and time-dynamic surfaces of the skin. Here, we describe experimental and theoretical approaches for using ideas in soft microfluidics, structured adhesive surfaces, and controlled mechanical buckling to achieve ultralow modulus, highly stretchable systems that incorporate assemblies of high-modulus, rigid, state-of-the-art functional elements. The outcome is a thin, conformable device technology that can softly laminate onto the surface of the skin to enable advanced, multifunctional operation for physiological monitoring in a wireless mode.
AB - When mounted on the skin, modern sensors, circuits, radios, and power supply systems have the potential to provide clinical-quality health monitoring capabilities for continuous use, beyond the confines of traditional hospital or laboratory facilities. The most well-developed component technologies are, however, broadly available only in hard, planar formats. As a result, existing options in system design are unable to effectively accommodate integration with the soft, textured, curvilinear, and time-dynamic surfaces of the skin. Here, we describe experimental and theoretical approaches for using ideas in soft microfluidics, structured adhesive surfaces, and controlled mechanical buckling to achieve ultralow modulus, highly stretchable systems that incorporate assemblies of high-modulus, rigid, state-of-the-art functional elements. The outcome is a thin, conformable device technology that can softly laminate onto the surface of the skin to enable advanced, multifunctional operation for physiological monitoring in a wireless mode.
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U2 - 10.1126/science.1250169
DO - 10.1126/science.1250169
M3 - Article
C2 - 24700852
AN - SCOPUS:84897552123
SN - 0036-8075
VL - 344
SP - 70
EP - 74
JO - Science
JF - Science
IS - 6179
ER -