Jun Qian

TL;DR: The results suggest that highly crystalline molecular monolayers are promising form factors to build high-performance OTFTs and investigate device physics and allow us to precisely model how the molecular packing changes the transport and contact properties.

TL;DR: In this paper, the fabrication of 2D molecular single-crystal semiconductors with precise layer definition by using a floating-coffee-ring-driven assembly is presented, where bilayer molecular films exhibit singlecrystalline features with atomic smoothness and high film uniformity over a large area; field effect transistors yield average and maximum carrier mobilities of 4.8 and 13.0 cm2 V−1 s−1, respectively.

TL;DR: The presented strategy is capable of speeding up Fe-OFET memory devices by using solution-processed 2D molecular crystals via a solution-based process as the conducting channels in transistor devices, in which ferroelectric polymer acts as the gate dielectric.

TL;DR: An optically modulated organic planar‐diode‐based artificial synapse is demonstrated in which the Schottky barrier can be sensitively modulated by external UV light because of the intrinsic ultrathin nature of the bilayer organic crystalline semiconductor.