Light–matter interactions in two-dimensional (2D) materials have been the focus of research
since the discovery of graphene. The light–matter interaction length in 2D materials is …

The emergence of interlayer excitons (IX) in atomically thin heterostructures of transition
metal dichalcogenides (TMDCs) has drawn great attention due to their unique and exotic …

Localized surface plasmon resonances (LSPRs) can enhance the electromagnetic fields on
metallic nanostructures upon light illumination, providing an approach for manipulating light …

Exciton–plasmon coupling between two-dimensional transition metal dichalcogenides and
metallic nanostructures has attracted much attention as a means of creating room …

Conjugated polymers are promising material candidates for many future applications in
flexible displays, organic circuits, and sensors. Their performance is strongly affected by …

Scanning microscopy methods are crucial for the advancement of nanoelectronics.
However, the vertical nanoprobes in such techniques suffer limitations such as the fragility at …

A fully quantum, numerically accurate methodology is presented for the simulation of the
exciton dynamics and time-resolved fluorescence of cavity-tuned two-dimensional (2D) …

As traditional silicon-based materials almost reach their limits in the post-Moore era, two-
dimensional (2D) transition metal dichalcogenides (TMDCs) have been regarded as next …

Optical magnetic dipole (MD) emission predominantly relies on emitters with significant MD
transitions, which, however, rarely exist in nature. Here, we propose a strategy to transform …

By integrating dielectric and metallic components, hybrid nanophotonic devices present
promising opportunities for manipulating nanoscale light–matter interactions. Here, we …