AI Article Synopsis

  • The study addresses the issue of charge-trapping in conjugated polymers used in non-volatile memory, presenting a new carbonyl-decorated 2D-polymer (TpDb) that enhances memory performance.
  • TpDb shows a wide memory window of 3.2 V and operates at low programming/erasing voltages, thanks to effective charge-trapping facilitated by its structural features.
  • The polymer demonstrates impressive endurance with over 10,000 write/read cycles and retains memory for 10 seconds even at elevated temperatures (100 °C).

Article Abstract

The charge-trapping mechanism in conjugated polymers is a performance obstacle in many optoelectronic devices harnessed for non-volatile memory applications. Herein, a carbonyl-decorated organic 2D-polymer (TpDb)-based charge-trapping memory device has been developed with a wide memory window (3.2 V) with low programming and erasing voltages of +3/-2 and -3/+2. The TpDb was synthesized by a potentially scalable solid-state aldol condensation reaction. The inherent structural defects and the semi-conjugated nature of the enone network in TpDb offer effective charge-trapping through the localization of charges in specific functional groups (CO). The interlayer hydrogen bonding enhances the packing density of the 2D-polymer layers thereby improving the memory storage properties of the material. Furthermore, the TpDb exhibits excellent features for non-volatile memory applications including over 10 000 cycles of write/read endurance and a prolonged retention performance of 10 seconds at high temperatures (100 °C).

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Source
http://dx.doi.org/10.1039/d4mh00201fDOI Listing

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