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首页> 外文期刊>IEEE Transactions on Electron Devices >High-Performance Flexible Resistive RAM With PVP:GO Composite and Ultrathin HfOx Hybrid Bilayer
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High-Performance Flexible Resistive RAM With PVP:GO Composite and Ultrathin HfOx Hybrid Bilayer

机译:具有PVP的高性能柔性电阻RAM:GO Composite和Ulthath HFOX Hybrid Bilayer

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摘要

Resistive switching behavior of poly (4-vinylphenol):graphene oxide (PVP:GO) composite and ultrathin HfOx hybrid bilayer was explored for developing high-performance flexible resistive random accessmemory (RRAM) devices. These devices, fabricated with a PVP:GO equivolume solution spin-coated and atomic layer deposited ultrathin HfOx as an active bilayer, exhibited excellent bipolar switching behavior with set and reset voltages as low as 0.6 and -1.46 V, ION/ IOFF of >10(5), and ac and dc switching endurance of over 1400 and 800 cycles, respectively. The same device configuration realized over a flexible polyethylene terephthalate (PET) substrate exhibited a memory window of >103 even after undergoing large mechanical strain (correspoding to a 5-mm bending radius). In addition, after 150 cumulative cycles of consecutive tensile and compressive strain at a 5-mm bending radius, flexible RRAMs demonstrated a clear memory window of 4 x 10(3) for 104 s. Overall, the incorporation of GO into the PVP solution resulted in achieving better control over conductive filament (CF) growth and, therefore, improved repeatability and reliability. This article indicates that the strategy of incorporating composite and organic-inorganic active bilayer can lead toward the development of highperformance flexible RRAMs.
机译:探讨了聚(4-乙烯基苯酚)的电阻切换行为:石墨烯氧化物(PVP:GO)复合材料和超薄HFOX混合双层,用于开发高性能柔性电阻随机接入机械(RRAM)器件。用PVP制造的这些器件:Go Equolume溶液旋转涂层和原子层沉积的超薄HFOX作为活性双层,具有低至0.6和-1.46 V,离子/ Ioff的设定和复位电压的优异双极切换行为。 (5),AC和DC切换耐久性分别超过1400和800次循环。在经历大机械应变之后,在柔性聚乙烯对苯二甲酸乙二醇酯(PET)基板上实现了柔性聚乙烯对苯二甲酸乙二醇酯(PET)基板的相同装置配置,其甚至在经历大的机械应变之后(折断为5mm弯曲半径)。另外,在5mm弯曲半径的连续拉伸和压缩应变的150个累积循环之后,柔性RRAM显示为104秒的透明记忆窗口为4×10(3)。总的来说,进入PVP解决方案的掺入导致对导电丝(CF)生长的更好控制,因此改善了可重复性和可靠性。本文表明,掺入复合材料和有机无机活性双层的策略可以导致高度柔性RRAM的开发。

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