Paper Infomation
Application and Performance Optimization of Polymer Materials in Flexible Electronic Devices
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Author: Zhiqing Dong
Abstract: Polymer materials have emerged as essential components in flexible electronic devices due to their unique combination of electrical conductivity, mechanical flexibility, and chemical stability. The integration of polymer-based materials in flexible electronics has enabled advancements in displays, wearable sensors, organic transistors, and energy storage devices. However, challenges such as low charge carrier mobility, environmental degradation, and mechanical durability remain significant obstacles to widespread adoption. This paper explores the diverse applications of polymer materials in flexible electronics, highlighting their roles in flexible displays, wearable electronics, sensors, transistors, and energy storage systems. Furthermore, it discusses various performance optimization strategies, including molecular design, doping, interface engineering, and mechanical enhancement. Additionally, advanced fabrication techniques such as solution processing, nanostructuring, and roll-to-roll manufacturing are examined for their potential in enabling large-scale production. By addressing these critical aspects, this study provides insights into the future directions of polymer-based flexible electronics, emphasizing material innovations and processing advancements that will drive the next generation of highly adaptable, durable, and efficient electronic devices.
Keywords: Polymer Materials; Flexible Electronics; Performance Optimization; Wearable Electronics; Organic Transistors; Energy Storage; Fabrication Techniques
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