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Sandwich-structure transferable free-form OLEDs for wearable and disposable skin wound photomedicine.


ABSTRACT: Free-form optoelectronic devices can provide hyper-connectivity over space and time. However, most conformable optoelectronic devices can only be fabricated on flat polymeric materials using low-temperature processes, limiting their application and forms. This paper presents free-form optoelectronic devices that are not dependent on the shape or material. For medical applications, the transferable OLED (10??m) is formed in a sandwich structure with an ultra-thin transferable barrier (4.8??m). The results showed that the fabricated sandwich-structure transferable OLED (STOLED) exhibit the same high-efficiency performance on cylindrical-shaped materials and on materials such as textile and paper. Because the neutral axis is freely adjustable using the sandwich structure, the textile-based OLED achieved both folding reliability and washing reliability, as well as a long operating life (>150?h). When keratinocytes were irradiated with red STOLED light, cell proliferation and cell migration increased by 26 and 32%, respectively. In the skin equivalent model, the epidermis thickness was increased by 39%; additionally, in organ culture, not only was the skin area increased by 14%, but also, re-epithelialization was highly induced. Based on the results, the STOLED is expected to be applicable in various wearable and disposable photomedical devices.

SUBMITTER: Jeon Y 

PROVIDER: S-EPMC6900403 | biostudies-literature | 2019

REPOSITORIES: biostudies-literature

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Sandwich-structure transferable free-form OLEDs for wearable and disposable skin wound photomedicine.

Jeon Yongmin Y   Choi Hye-Ryung HR   Kwon Jeong Hyun JH   Choi Seungyeop S   Nam Kyung Mi KM   Park Kyoung-Chan KC   Choi Kyung Cheol KC  

Light, science & applications 20191209


Free-form optoelectronic devices can provide hyper-connectivity over space and time. However, most conformable optoelectronic devices can only be fabricated on flat polymeric materials using low-temperature processes, limiting their application and forms. This paper presents free-form optoelectronic devices that are not dependent on the shape or material. For medical applications, the transferable OLED (10 μm) is formed in a sandwich structure with an ultra-thin transferable barrier (4.8 μm). Th  ...[more]

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