Symposium HH-Optical Metamaterials—From New Plasmonic Materials to Metasurface Devices

Metamaterials and plasmonics have generated new research paradigms at the interface of material science and nanophotonics, and greatly strengthened our understanding of light-matter interaction as well as material property engineering. Most recently, a number of emerging sub-fields of metamaterials and plasmonics, for example, metasurface structures and tunable optical/plasmonic materials beyond gold and silver have attracted wide attention and advanced the scientific knowledge in multiple dimensions.

In general, this symposium will provoke deeper thoughts about the future developments in directions including quantum metamaterials, parity-time symmetry, nonlinear and ultrafast dynamics in metamaterials, structured and tunable optical/plasmonic materials, etc. and discuss the potential synergy between these vital directions.

• Quantum plasmonics and quantum metamaterials
• Novel designs and computational studies of metamaterials and metasurfaces
• Parity-time photonics and optical magnetis
• Tunable and switchable metamaterials and metasurfaces
• Recent progresses in non-metal plasmonic materials
• Nonlinear and Ultrafast Plasmonics and Metamaterials
• Scalable and sustainable manufacturing techniques for 3D metamaterials
• Application of new plasmonic materials in metamaterials and metasurfacesand other photonic structure design
• Non-electromagnetic metamaterials
• All-dielectric metamaterials

• HH_Optical Metamaterials—From New Plasmonic Materials to Metasurface Devices _0 (University of Texas, Austin, USA)
• HH_Optical Metamaterials—From New Plasmonic Materials to Metasurface Devices _1 (Sandia National Laboratories, USA)
• HH_Optical Metamaterials—From New Plasmonic Materials to Metasurface Devices _2 (Stanford University, USA)
• HH_Optical Metamaterials—From New Plasmonic Materials to Metasurface Devices _3 (Harvard University, USA)
• HH_Optical Metamaterials—From New Plasmonic Materials to Metasurface Devices _4 (University of Science and Technology, Hong Kong, Hong Kong)
• HH_Optical Metamaterials—From New Plasmonic Materials to Metasurface Devices _5 (University of Pennsylvania, USA)
• HH_Optical Metamaterials—From New Plasmonic Materials to Metasurface Devices _6 (Stanford University, USA)
• HH_Optical Metamaterials—From New Plasmonic Materials to Metasurface Devices _7 (Massachusetts Institute of Technology, USA)
• HH_Optical Metamaterials—From New Plasmonic Materials to Metasurface Devices _8 (Universidad Autonoma de Madrid, Spain)
• HH_Optical Metamaterials—From New Plasmonic Materials to Metasurface Devices _9 (University of Stuttgart, Germany)
• HH_Optical Metamaterials—From New Plasmonic Materials to Metasurface Devices _10 (Technion, Israel)
• HH_Optical Metamaterials—From New Plasmonic Materials to Metasurface Devices _11 (CIC nanoGUNE, Spain)
• HH_Optical Metamaterials—From New Plasmonic Materials to Metasurface Devices _12 (Los Alamos National Laboratory, USA)
• HH_Optical Metamaterials—From New Plasmonic Materials to Metasurface Devices _13 (Norvolk State University, USA)
• HH_Optical Metamaterials—From New Plasmonic Materials to Metasurface Devices _14 (The Institute for Atomic and Molecular Physics, Netherlands)
• HH_Optical Metamaterials—From New Plasmonic Materials to Metasurface Devices _15 (Purdue University, USA)
• HH_Optical Metamaterials—From New Plasmonic Materials to Metasurface Devices _16 (Iowa State University, USA)
• HH_Optical Metamaterials—From New Plasmonic Materials to Metasurface Devices _17 (University of Birmingham, United Kingdom)
• HH_Optical Metamaterials—From New Plasmonic Materials to Metasurface Devices _18 (University of California, Berkeley, USA)
• HH_Optical Metamaterials—From New Plasmonic Materials to Metasurface Devices _19 (University of Southampton, United Kingdom)