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Highly stretchable wrinkled electrode based on silver ink‐elastomer nanocomposite with excellent fatigue resistance
Author(s) -
Won Joohye,
Mondal Subhadip,
Park Jongho,
Wang Wonseok,
Lee Hyunsang,
Kim Suhyun,
Shin Beomsu,
Sathi Shibulal G.,
Nah Changwoon
Publication year - 2020
Publication title -
polymer composites
Language(s) - English
Resource type - Journals
SCImago Journal Rank - 0.577
H-Index - 82
eISSN - 1548-0569
pISSN - 0272-8397
DOI - 10.1002/pc.25532
Subject(s) - materials science , elastomer , composite material , electrode , flexible electronics , stretchable electronics , ultimate tensile strength , electrical conductor , nanocomposite , silicone rubber , electronics , nanotechnology , electrical engineering , chemistry , engineering
Flexible and stretchable electrodes have attracted immense attention because of their various electronic applications on the wearable sensing electronics, but challenges regarding robust and sustainable electrical performance under static and dynamic mechanical stresses still need to be overcome. Herein, with a simple effective strategy, a highly serviceable and flexible elastomeric electrode fabricated by utilizing an interpenetrating network between acrylic rubber (AR) and silicone rubber (SR), and silver (Ag) ink to increase electrical conductivity, is introduced. Oxygen (O 2 ) plasma and sodium dodecyl sulfate (SDS) treatment on wrinkle substrate surface lead to robust adhesion of Ag ink layer, results in high electrical conductivity. Wrinkle morphology can help to stably maintain the continuous conductive Ag network during static and dynamic deformation. This stretchable electrode possessing properties such as robust and stable electrical conductivity of ~10 3 S/cm under 150% static tensile deformations and good sustainability after 1000 cycles of dynamic tensile deformations is a promising candidate for stretchable wearable electronics.