Planar graphene-C60-graphene heterostructures for sensitive UV-Visible photodetection

All-carbon hybrids for high-performance electronics, optoelectronics and energy storage

“…The device can directly convert optical stimuli into electrical pulses in a highly neuron-like fashion and exhibits flexible tuning of both the short-and long-term plasticity, as shown in Figure 6(g). Now all-carbon hybrid based on graphene/C 60 has attracted increasing attention because of their longterm stability, facile processing and large-scale processability [161][162][163][164] act as a potential candidate for future integrable optoelectronic applications. Wang group [161] demonstrated a large-scale integrable ultraviolet arrayed photodetector employing large-area graphene/C 60 hybrids, as shown in Figure 6(h) and (i).…”

“…Interestingly, the interfacial electron-hole recombination is limited by both the carrier density in graphene and the interfacial potential barrier height, showing a gate-tunnable response time. Moreover, using the gate-tunable graphene/C 60 interface barrier, Qin et al [162] demonstrated an adjustable photoresponsivity of device. All-carbon hybrids have been widely used in photon detectors devices, and the efficient electronic coupling of the all-carbon hybrids and efficient exciton dissociation at the interface are the keys for high-performance detectors.…”

Synergy between Fermi Level of Graphene and Morphology of Polymer Film Allows Broadband or Wavelength‐Sensitive Photodetection

“…[1][2][3][4][5][6][7][8][9][10][11][12] Organic compound/G hybrids are particularly interested in the related areas of photosensing because the optical/electronic properties of organic components can be adjusted facilely through structural modifications or intermolecular stacking to meet assorts of demands. [13][14][15][16][17][18][19][20][21][22][23][24][25][26] Furthermore, solution fabricating processes of these hybrids are easily scaled up with a low cost. And, excellent flexibilities of organic/G films are highly desired in foldable/wearable electronics.…”

Light-modulated vertical heterojunction phototransistors with distinct logical photocurrents

“…However, the inferior light absorption of single atomic layer graphene limits the phototransistor performance 10 . 2D/semiconductor heterojunctions are expected to break the electron-hole occupation symmetry, giving rise to the generation of photocurrents, including in quantum dot-enhanced structures 11,12 , stacked 2D heterojunction structures [13][14][15][16][17] , 2D planar structures 18,19 , dual photogating phototransistors 20 , waveguide-integrated enhanced structures 21,22 , bilayer-enhanced structures 23,24 , and even nanographite structures 25,26 . In particular, some typical 2D localized field methods incorporating 2D, organic, perovskite, and Dirac materials were subsequently proposed to realize high-performance phototransistors 23,24,[27][28][29][30][31][32][33] .…”

“…In particular, some typical 2D localized field methods incorporating 2D, organic, perovskite, and Dirac materials were subsequently proposed to realize high-performance phototransistors 23,24,[27][28][29][30][31][32][33] . Numerous localized field-enhanced phototransistors have been integrated with an electrostatic field to achieve distinct features such as a floating-gate structure 27,28 , a builtin field 19 , a photogating electric field 23,24,29,30 and a ferroelectric field 31 . For example, the ferroelectric field aims to suppress the dark current, and the floating gate aims to promote the light sensitivity.…”