共形矩阵
材料科学
有机发光二极管
光电子学
皮肤当量
限制
织物
可靠性(半导体)
可穿戴计算机
生物医学工程
纳米技术
计算机科学
复合材料
角质形成细胞
化学
图层(电子)
机械工程
工程类
嵌入式系统
物理
功率(物理)
量子力学
生物化学
体外
作者
Yongmin Jeon,Hye-Ryung Choi,Jeong Hyun Kwon,Seungyeop Choi,Kyung Mi Nam,Kyoung-Chan Park,Kyung Cheol Choi
标识
DOI:10.1038/s41377-019-0221-3
摘要
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). 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.
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