The past few decades have witnessed growing research interest in developing powerful
nanofabrication technologies for three-dimensional (3D) structures and devices to achieve …

Current graphene‐based plasmonic devices are restricted to 2D patterns defined on planar
substrates; thus, they suffer from spatially limited 2D plasmon fields. Here, 3D graphene …

The coupling system with dynamic manipulation characteristics is of great importance for the
field of active plasmonics and tunable metamaterials. However, the traditional metal-based …

Plasmonic sensors are commonly defined on two-dimensional (2D) surfaces with an
enhanced electromagnetic field only near the surface, which requires precise positioning of …

The controllable manipulation of graphene to create three-dimensional (3D) structures is an
intriguing approach for favorably tuning its properties and creating new types of 3D devices …

Highly asymmetric bimetal nanostructures, such as AuPt nanorings and Au–Ag nanoplates,
possess superior plasmonic properties owing to various synergistic effects between different …

Due to its one atom thickness, optical absorption (OA) in graphene is a fundamental and
challenging issue. Practically, the patterned graphene-dielectric-metal structure is commonly …

Graphene has great potential for use in infrared (IR) nanodevices. At these length scales,
nanoscale features, and their interaction with light, can be expected to play a significant role …

Plasmonically induced transparency (PIT), a classical analog of electromagnetically induced
transparency in quantum systems, could offer an efficient way to engineer light–matter …

Properties of graphene, such as electrical conduction and rigidity can be tuned by
introducing local strain or defects into its lattice. We used optical forging, a direct laser …