Light-/steam-driven polymeric crosslinking with porous multistructure pattern for ultrastable and fast-speed memory

Organic memories typically comprise memristive polymer mediums sandwiched between two electrodes, with the advantages of wet manufacturing and modulated function. However, the issues associated with structural instability, low-speed switch, and hard pattern in polymeric memories are the main obstacl...

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Veröffentlicht in:Science China materials 2023-05, Vol.66 (5), p.2023-2031
Hauptverfasser: Ban, Chaoyi, Yin, Yuhang, Luo, Xu, Liu, Zhengdong, Chen, Kang, Tang, Minghua, Dong, Xuemei, Zhang, Dengfeng, Li, Zifan, Wu, Yueyue, Liu, Juqing, Huang, Wei
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container_end_page 2031
container_issue 5
container_start_page 2023
container_title Science China materials
container_volume 66
creator Ban, Chaoyi
Yin, Yuhang
Luo, Xu
Liu, Zhengdong
Chen, Kang
Tang, Minghua
Dong, Xuemei
Zhang, Dengfeng
Li, Zifan
Wu, Yueyue
Liu, Juqing
Huang, Wei
description Organic memories typically comprise memristive polymer mediums sandwiched between two electrodes, with the advantages of wet manufacturing and modulated function. However, the issues associated with structural instability, low-speed switch, and hard pattern in polymeric memories are the main obstacles towards practical uses. Here, we present an ultrastable and fast-speed memory array that uses amorphous polymer nanofilm with light-/steam-driven crosslinked porous multistructure as memristive materials. The polymer diode shows nonvolatile rewritable flash memory characteristics, with a high ON/OFF ratio, long retention time, and high speeds of set (70 ns) and reset (845 ns) operations. Impressively, the memory cell undergoes harsh conditions in ultraviolet irradiation and extreme temperatures. By rationally integrating the array with target sensors, an artificial sensory memory architecture is constructed to mimic visual/thermal perception and recording, demonstrating great potential for biomimetic neuromorphic electronics. Our results advance a commercial perspective on memristive organics capable of integration patterns and high performance.
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source Springer Nature - Complete Springer Journals; Alma/SFX Local Collection
subjects Amorphous materials
Biomimetics
Chemistry and Materials Science
Chemistry/Food Science
Computer architecture
Crosslinking
Flash memory (computers)
Low speed
Materials Science
Polymers
Porous materials
Sensor arrays
Structural stability
Ultraviolet radiation
title Light-/steam-driven polymeric crosslinking with porous multistructure pattern for ultrastable and fast-speed memory
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