Photo‐Responsive Molecular Junctions Activated by Perovskite/Graphene Heterostructure Electrode

Abstract

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Magnetic and Electric Field Dependent Charge Transfer in Perovskite/Graphene Field Effect Transistors

“…This phenomenon can induce a range of interesting physical phenomena, such as an optically induced Stark effect, [20] large hysteresis on the gate voltage dependence of the graphene resistance, [19] and enhancement of the photoresponsivity. [21,22] However, to fully exploit the potential of perovskite/graphene structures, a comprehensive understanding of their properties is still needed. High magnetic fields are invaluable for interrogating fundamental physical processes Stable all-inorganic CsPbX 3 perovskite nanocrystals (PNCs) with high optical yield can be used in combination with graphene as photon sensors with high responsivity (up to 10 6 A W −1 ) in the VIS-UV range.…”

Conductive ionogel for the study of charge transport through SAM-based junctions in aqueous solution

“…20 Takhee Lee et al reported photo-responsive molecular junctions enhanced by different intrinsic dipole moments. 21 The dipole interaction in a liquid environment could also influence the measured tunneling current by the STM break junction technique. 22–24…”

“…20 Takhee Lee et al reported photo-responsive molecular junctions enhanced by different intrinsic dipole moments. 21 The dipole interaction in a liquid environment could also influence the measured tunneling current by the STM break junction technique. [22][23][24] This paper demonstrates that the charge transport measurements under different aqueous solutions can, to a certain extent, recognize molecule-originated transport signals and be applied to studying the charge transport through fully hydrated proteins.…”

Molecular Van Der Waals Heterojunction Photodiodes Enabling Dipole‐Induced Polarity Switching

“…the molecular-scale is the primary objective and a prerequisite toward realizing commercial molecular electronic device applications. [7][8][9][10][11][12][13][14] In this context, molecular optoelectronics have emerged as a promising field capable of controlling the device characteristics using light as a physical stimulus, as well as assisting the comprehension of the intrinsic transport behavior through the interaction between molecular orbital level and light. [11][12][13][15][16][17][18][19][20][21][22][23] In the infancy of this field, Yasutomu et al were the first to report molecular photodiode systems based on two different types of self-assembled monolayers (SAMs) of helical peptides possessing selective excitation molecular groups.…”