Area of research
Biomedical Engineering · Electronic, Optical and Magnetic Materials
Research interest
Research interests include Materials science, Plasmon, Phase transition, Hot spot (computer programming), Optoelectronics, and Spots.
Deep ultraviolet conversion of electric and magnetic anapole modes through manipulating incident angle
Structural phase transition and physical properties in NaBr under high pressure
Bound states in the continuum in toroidal dipole metasurface: Theoretical studies
Efficient manipulation of plasmonic hot spots in nanocube-based multiparticle-on-film nanocavities
Precise Manipulation of Hot Spots in Multiparticle-Film Configurations Under Oblique Incidence
Efficient directional forward scattering by a single Cu@Si core-shell nanoparticle in visible regions
Pressure‐Induced Successive Phase Transitions and Optical Properties in Lu<sub>2</sub>SiO<sub>5</sub>
Tuning strong coupling towards the deep ultraviolet region realized through Tamm-plasmon exciton-polaritons
Mineral pressure gauge based on lattice stability and plasmonic enhancement of cobalt titanate under high pressure
Large-Area, Ultrahigh-Enhancement, and Array-Type Hot Spots in Plasmonic Nanocube Dimer-on-Film Nanocavity
Efficient Manipulation of Strong Coupling Towards the Deep Ultraviolet Region
Pressure-induced phase transition toward high symmetry in zero-strain Li<sub>2</sub>TiO<sub>3</sub>
Lattice dynamics of NiTiO3 under high pressure: Raman evidence under two pressure-transmitting mediums
Statistical Strategy for Quantitative Evaluation of Plasmon-Enhanced Spectroscopy
Efficient manipulation of plasmonic modes in single symmetry-breaking Ag nanocube
Ultrasensitive and ultrafast nonlinear optical characterization of surface plasmons
Oblique-Incidence-Excited Localized Hot Spots in Plasmonic Particle-on-Film Nanocavities
Efficient Manipulation of Plasmonic Modes in Single Symmetrybreaking Ag Nanocube
Phase Transition Toward High Symmetry Above 40 GPA in Zero-Strain Li2tio3
Phase Transition Toward High Symmetry Above 40 GPA in Zero-Strain Li2TiO3
Manipulation of Ultrafast Nonlinear Optical Response Based on Surface Plasmon Resonance