• Fundamental strategies to design new electrocatalysis
  • Mechanistic understanding
  • In situ and Operando Analyses
  • Molecular, inorganic, reticular, biologic and hybrid catalytic systems
  • International perspectives on sustainable energy
  • Hydrogen production
  • Hydrogen conversion
  • Green environment: Gas reforming, greenhouse gas mitigation by hydrogen, gasification processes
  • Earth abundant materials
  • Aqueous batteries
  • Electrolytes and interphases/interfaces for post-lithium energy storage
  • Metal-air Batteries
  • Novel methods for materials recycling, including but not limited to direct recycling
  • Optoelectronics applications
  • Technological feasibility. Materials processes and fabrication
  • Perovskite materials fundamentals
  • Frontier phenomena
  • Photophysics of 2D & bulk 3D halide perovskites
  • Photophysics of perovskite nanocrystals, rods, platelets
  • Optoionics & halide migration
  • Defect photophysics & photochemistry
  • Synthesis of novel 2D perovskite phases
  • Challenges in film growth
  • Structure-property relationships: strain, light emission, ferroic behavior, photophysics
  • Applications: light emission, quantum information, random-access memory, photodetection, solar cells
  • Development of highly efficient organic solar cells molecules
  • Stability of organic solar cells
  • Upscaling of solar cell devices
  • Novel application areas for organic solar cells
  • Rational design and synthesis approaches
  • New insights on materials growth and properties
  • Theory and computational studies on electronic structure and defects
  • New phenomena: photoferroelectrics, ultrathin nanocrystal absorbers
  • Electrical characterization: From frequency-domain to time transient methods
  • Understanding charge transport and recombination
  • Dynamical behavior of advanced materials
  • Ab initio molecular dynamics analysis
  • Elucidating the dominant role of energetic disorder in optoelectronic devices
  • Nanocrystal synthesis: Composition, morphology, heterostructues, assembly, dispersion control, and mechanisms
  • Nanocrystal surface chemistry: Fundamental properties and targeted function
  • Nanocrystal properties: New insights from spectroscopy, theory, and simulation
  • Nanocrystal applications
  • Chemical design of nanomaterials: Advanced synthetic routes, experimental and theoretical studies
  • Interactions in nanomaterials: Chemical and physical properties of nanomaterials, interphases, and surfaces
  • Application of nanomaterials: the road ahead for nanotechnology and the key role of chemistry in engineering of better materials
  • Fundamental science of 2D nanomaterials & new 2D nanomaterials
  • Electrical, optical, thermal and mechanical properties of 2D nanomaterials
  • Spectroscopy and microscopy of 2D nanomaterials. Theory and simulation of 2D nanomaterials
  • Quantum transport, magnetism, and spintronics
  • Light-matter interactions
  • Self-assembly and cooperative phenomena
  • Fabrication and investigation of topological materials
  • 2D van der Waals magnetic materials
  • Theory and simulations of field-matter interactions and their applications
  • Materials for new circuit and computing concepts
  • Electrical and Spintronic devices
  • Neuromorphic computing
  • Artificial Intelligence
  • Unconventional computing systems
MATSUS Symposia
  • Fundamental strategies to design new electrocatalysis
  • Mechanistic understanding
  • In situ and Operando Analyses
  • Molecular, inorganic, reticular, biologic and hybrid catalytic systems
  • International perspectives on sustainable energy
  • Hydrogen production
  • Hydrogen conversion
  • Green environment: Gas reforming, greenhouse gas mitigation by hydrogen, gasification processes
  • Earth abundant materials
  • Aqueous batteries
  • Electrolytes and interphases/interfaces for post-lithium energy storage
  • Metal-air Batteries
  • Novel methods for materials recycling, including but not limited to direct recycling
  • Optoelectronics applications
  • Technological feasibility. Materials processes and fabrication
  • Perovskite materials fundamentals
  • Frontier phenomena
  • Photophysics of 2D & bulk 3D halide perovskites
  • Photophysics of perovskite nanocrystals, rods, platelets
  • Optoionics & halide migration
  • Defect photophysics & photochemistry
  • Synthesis of novel 2D perovskite phases
  • Challenges in film growth
  • Structure-property relationships: strain, light emission, ferroic behavior, photophysics
  • Applications: light emission, quantum information, random-access memory, photodetection, solar cells
  • Development of highly efficient organic solar cells molecules
  • Stability of organic solar cells
  • Upscaling of solar cell devices
  • Novel application areas for organic solar cells
  • Rational design and synthesis approaches
  • New insights on materials growth and properties
  • Theory and computational studies on electronic structure and defects
  • New phenomena: photoferroelectrics, ultrathin nanocrystal absorbers
  • Electrical characterization: From frequency-domain to time transient methods
  • Understanding charge transport and recombination
  • Dynamical behavior of advanced materials
  • Ab initio molecular dynamics analysis
  • Elucidating the dominant role of energetic disorder in optoelectronic devices
  • Nanocrystal synthesis: Composition, morphology, heterostructues, assembly, dispersion control, and mechanisms
  • Nanocrystal surface chemistry: Fundamental properties and targeted function
  • Nanocrystal properties: New insights from spectroscopy, theory, and simulation
  • Nanocrystal applications
  • Chemical design of nanomaterials: Advanced synthetic routes, experimental and theoretical studies
  • Interactions in nanomaterials: Chemical and physical properties of nanomaterials, interphases, and surfaces
  • Application of nanomaterials: the road ahead for nanotechnology and the key role of chemistry in engineering of better materials
  • Fundamental science of 2D nanomaterials & new 2D nanomaterials
  • Electrical, optical, thermal and mechanical properties of 2D nanomaterials
  • Spectroscopy and microscopy of 2D nanomaterials. Theory and simulation of 2D nanomaterials
  • Quantum transport, magnetism, and spintronics
  • Light-matter interactions
  • Self-assembly and cooperative phenomena
  • Fabrication and investigation of topological materials
  • 2D van der Waals magnetic materials
  • Theory and simulations of field-matter interactions and their applications
  • Materials for new circuit and computing concepts
  • Electrical and Spintronic devices
  • Neuromorphic computing
  • Artificial Intelligence
  • Unconventional computing systems
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