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Highly-Robust Organometallic Small-Molecule-based Nonvolatile Resistive Memory Controlled by a Redox-Gated Switching Mechanism.

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Although organic small-molecule-based memory devices (OSMDs) have been demonstrated to show great potential for the application in next-generation data-storage technology, progress towards their further development has been hugely hindered by… Click to show full abstract

Although organic small-molecule-based memory devices (OSMDs) have been demonstrated to show great potential for the application in next-generation data-storage technology, progress towards their further development has been hugely hindered by the ambiguity of their electrical switching mechanism. Thus, purposely fabricating OSMDs with a definite switching behavior is very urgent. Here, we reported a redox-gated nonvolatile rewritable memory device using an organometallic small molecule as an active material. By introducing the redox-active ferrocene into an organic skeleton, the target small molecule exhibits reliable and robust FLASH-type bistable electrical characteristics with a clear redox-controlled switching mechanism, which leads to low operational voltages, good endurance and long retention. Our study offers a proof-of-concept strategy to design controllable OSMDs with excellent performances.

Keywords: switching mechanism; molecule; small molecule; redox; memory

Journal Title: ACS applied materials & interfaces
Year Published: 2019

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