用于下一代射频生物谐振器的可生物降解导电聚合物的开发和表征

C. Boutry, Wei Sun, Tobias Strunz, Hengky Chandrahalim, C. Hierold
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引用次数: 10

摘要

本研究的目的是开发一种完全聚合和可生物降解的射频驱动RLC谐振电路。新型聚合物复合材料的制备和表征:它们由导电聚合物纳米颗粒(聚吡咯PPy)嵌入可生物降解的聚合物基体(聚乳酸PLLA和聚己内酯PCL正在研究中)组成。考察了聚吡啶含量和聚合条件(温度、气氛、外加掺杂剂)对电阻率的影响。PLLA/PPy和PCL/PPy复合材料的电阻率分别大于12%和6%。电阻率0.0043Ω。m (PLLA/PPy39%)和0.0016Ω。m (PCL/PPy39%)。基于实测材料特性,对RLC谐振器进行了Matlab建模和HFSS仿真。仿真结果验证了该复合材料在RLC谐振器制造中的应用。
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Development and characterization of biodegradable conductive polymers for the next generation of RF bio-resonators
The objective of this research is to develop a completely polymeric and biodegradable RF driven RLC resonator circuit. New polymer composites are fabricated and characterized: they consist on conductive polymer nanoparticles (polypyrrole PPy) embedded in a biodegradable polymer matrix (both polylactide PLLA and polycaprolactone PCL are under investigation). The influence of PPy content and polymerization conditions (temperature, atmosphere, additional doping agent) on the resistivity are evaluated. A strong decrease of the resistivity is observed for composites containing more than 12% and 6% of PPy for PLLA/PPy and PCL/PPy, respectively. Resistivities of 0.0043Ω.m (PLLA/PPy39%) and 0.0016Ω.m (PCL/PPy39%) are achieved. A Matlab modelling and HFSS simulation of the RLC resonator performances based on the measured material properties is performed. The simulation results validate the use of these composites to successfully fabricate RLC resonators.
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