High-Density Embedded Electronics in Textiles with 3D Flex Package Transfer

M. Monshi, Jose-Solis Camara, S. Bhardwaj, J. Volakis, P. Raj
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引用次数: 1

Abstract

Hybrid device-flex-textile interconnect and integration technologies were developed to realize smart wireless sensing systems. Test vehicles were fabricated to emulate high-density 3D flex packages in textiles. Representative test chips were assembled onto patterned copper traces on Liquid Crystal Polymer (LCP) flex substrates. These flex circuits were embedded into textiles with deformable silver adhesive interconnects. Fluoroelastomers were utilized as encapsulants to suppress moisture permeation and interaction with the embedded electronics. Contact resistances of the flex-to-textile and device-to-flex interconnects were investigated after fabrication, flexing, thermal and humidity treatments. DC resistances were extracted through Kelvin Probe structures and their stability during thermal and humidity exposure conditions were investigated. In addition to DC resistance, RF loss performance was also improved when we use silver adhesive interconnects to replace bulky and inflexible solder interconnects.
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高密度嵌入式电子产品在纺织品与3D柔性包传输
为实现智能无线传感系统,开发了器件-柔性-织物混合互连和集成技术。测试车辆是为了模拟纺织品中的高密度3D柔性包而制造的。代表性的测试芯片组装在液晶聚合物(LCP)柔性衬底上的图案铜线上。这些柔性电路被嵌入到织物中,用可变形的银胶粘接。氟弹性体被用作封装剂来抑制水分渗透和与嵌入式电子元件的相互作用。研究了柔性-纺织品和器件-柔性互连在加工、弯曲、热、湿处理后的接触电阻。通过开尔文探针结构提取直流电阻,并研究其在湿热暴露条件下的稳定性。除了直流电阻外,当我们使用银胶粘剂互连来取代笨重和不灵活的焊接互连时,射频损耗性能也得到了改善。
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