基于PMOS有机晶体管的逻辑门和存储元件设计与仿真

P. Branchini, Andrea Fabbh, Domenico Riondino, L. Mariucci, M. Rapisarda, A. Valletta, A. Aloisio, F. Capua
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引用次数: 1

摘要

在100 μm厚的柔性聚乙烯-萘酸酯(PEN)衬底上制备了交错顶栅结构的多翼缘otft。采用喷墨印刷技术建立银触点,采用旋涂法沉积有机层和介电含氟聚合物。p型聚合物半导体是由6,13-二(三异丙基-硅乙基)并戊烯溶液加工而成。半导体层厚度约为30 nm,而介电含氟聚合物的厚度为400 nm。对这些晶体管进行了表征和直流,并开发了瞬态精确模型并导入CADENCE。最后,利用SPECTRE对基于该器件的模型电路进行了仿真。在本工作中,我们描述了高频逻辑门的设计和触发器的初步设计,利用PMOS有机晶体管及其预期的性能。
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Logic gates and memory elements design and simulation using PMOS organic transistor
Multi-flngered OTFTs, with staggered top-gate configuration have been fabricated on flexible polyethylene-naphtalate (PEN) substrates (100 μm thick). Inkjet printing technique has been used to setup the silver contacts, while the organic layers and the dielectric fluoropolymer have been deposited by spin-coating. The p-type polymeric semiconductor is a solution processed 6,13-bis(triisopropyl-silyletynyl) pentacene. The semiconductor layer thickness is about 30 nm, while the dielectric fluoropolymer is 400 nm thick. These transistors have been characterized and a DC, and a transient accurate models have been developed and imported in CADENCE. Finally, SPECTRE has been used to simulate model circuits based on such a device. In this work we describe the design of high frequency logic gates and preliminary flip-flops design, exploiting PMOS organic transistor and its expected performances.
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