10.1021/nl503997m.s001
Suk-Won Hwang
Suk-Won
Hwang
Chi Hwan Lee
Chi Hwan
Lee
Huanyu Cheng
Huanyu
Cheng
Jae-Woong Jeong
Jae-Woong
Jeong
Seung-Kyun Kang
Seung-Kyun
Kang
Jae-Hwan Kim
Jae-Hwan
Kim
Jiho Shin
Jiho
Shin
Jian Yang
Jian
Yang
Zhuangjian Liu
Zhuangjian
Liu
Guillermo A. Ameer
Guillermo A.
Ameer
Yonggang Huang
Yonggang
Huang
John A. Rogers
John A.
Rogers
Biodegradable Elastomers and Silicon Nanomembranes/Nanoribbons
for Stretchable, Transient Electronics, and Biosensors
American Chemical Society
2015
nanomembrane
application
exploits materials
manner
biofluid
strain deformation
technology
BiosensorsTransient electronics
hydrolysis
diode
strategy
Experimental
type
groundwater
Inorganic semiconductor nanomaterials
design layouts
transistor
inverter
Biodegradable Elastomers
component
choice
Silicon
Stretchable
biosensor
stretchable configurations
device
circuit characterization
design strategies
Nanomembrane
substrate
loads validates
Transient Electronics
silicon
elastomer
2015-05-13 00:00:00
Journal contribution
https://acs.figshare.com/articles/journal_contribution/Biodegradable_Elastomers_and_Silicon_Nanomembranes_Nanoribbons_for_Stretchable_Transient_Electronics_and_Biosensors/2207533
Transient
electronics represents an emerging class of technology that exploits
materials and/or device constructs that are capable of physically
disappearing or disintegrating in a controlled manner at programmed
rates or times. Inorganic semiconductor nanomaterials such as silicon
nanomembranes/nanoribbons provide attractive choices for active elements
in transistors, diodes and other essential components of overall systems
that dissolve completely by hydrolysis in biofluids or groundwater.
We describe here materials, mechanics, and design layouts to achieve
this type of technology in stretchable configurations with biodegradable
elastomers for substrate/encapsulation layers. Experimental and theoretical
results illuminate the mechanical properties under large strain deformation.
Circuit characterization of complementary metal-oxide-semiconductor
inverters and individual transistors under various levels of applied
loads validates the design strategies. Examples of biosensors demonstrate
possibilities for stretchable, transient devices in biomedical applications.