Luminescence of graphene

Graphene emits luminescence. Due to its unique properties, the luminescence of graphene can be controlled in spectral and temporal aspects. The steep energy dispersion relation of electrons results in a low density of states and low specific heat. Current- and photo-excitations readily achieve a high electron temperature, leading to a wide spectral range of luminescence extending to the visible and ultraviolet regions. The low density of states enables control of the Fermi energy over a range of several hundred millielectronvolts through electron and hole doping, resulting in a highly controllable spectrum. The ultrathin thickness allows graphene to be aligned with various structures, such as trench substrates and photonic crystals, to control the luminescence spectrum using interference. The low dimensionality strengthens the screened Coulomb interactions between electrons and holes. This leads to the appearance of a Fermi edge singularity in the luminescence due to many-body electron-hole interactions. This review introduces the luminescence of graphene and various control techniques, as well as future research directions.

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Publication Details

Journal
Journal of Physics Condensed Matter
Published
2026-05-21
DOI
https://doi.org/10.1088/1361-648x/ae649c
Primary Topic
Graphene research and applications
Type
article
Field-Weighted Citation Impact
0.00

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article

Luminescence of graphene

Hideo Kishida, Takeshi Koyama
Journal of Physics Condensed Matter
Graphene research and applications
article

Luminescence of graphene

Hideo Kishida, Takeshi Koyama
article en

Abstract

Graphene emits luminescence. Due to its unique properties, the luminescence of graphene can be controlled in spectral and temporal aspects. The steep energy dispersion relation of electrons results in a low density of states and low specific heat. Current- and photo-excitations readily achieve a high electron temperature, leading to a wide spectral range of luminescence extending to the visible and ultraviolet regions. The low density of states enables control of the Fermi energy over a range of several hundred millielectronvolts through electron and hole doping, resulting in a highly controllable spectrum. The ultrathin thickness allows graphene to be aligned with various structures, such as trench substrates and photonic crystals, to control the luminescence spectrum using interference. The low dimensionality strengthens the screened Coulomb interactions between electrons and holes. This leads to the appearance of a Fermi edge singularity in the luminescence due to many-body electron-hole interactions. This review introduces the luminescence of graphene and various control techniques, as well as future research directions.

Journal of Physics Condensed MatterVol. 38(20)
Nagoya University (JP)
Murata Science Foundation, Shorai Foundation for Science and Technology
Affordable and clean energy
Openalex Percentile: Top 12%
Graphene research and applications
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