השתתפות בקהילה
דו"ח מיפוי
מי אנחנו
Field
Faculty
Name
Aerospace Engineering
Gas Turbines, Micro-Turbomachinery, Design for Additive Manufacturing, Aero-Thermal Optimization, Green Aviation, Sustainable Aviation Fuels, Carbon-free Combustion, Porous Media Combustion
Aerospace Engineering
Hydrogen and electric energy production on demand from the reaction of aluminum and water
Aerospace Engineering
Clean aviation propulsion using sustainable aviation fuels, gas turbine combustion for hydrogen, novel combustion methods for ammonia fuel
Aerospace Engineering
Combustion in different aerospace propulsion system (jet engines, ramjets and rockets) as well as land-based gas turbines, with focus on combustion dynamics, operation limits and impact of fuel composition
Aerospace Engineering
Alternative Fuels; Internal Combustion Engines; Mechanical and Pneumatic Energy Storages
Aerospace Engineering
Researching interfacial transport phenomena and thermo-fluids for sustainable energy, water, and aviation technologies
Architecture and Town Planning
Smart Grid Distributed Optimization; Energy Management; Economic Dispatch, Distributed Energy Generation; Distributed Optimization
Architecture and Town Planning
Energy conservation in buildings, Energy retrofit of existing buildings, Zero Energy Design
Biology
Zero-Energy Buildings and Neighborhoods; Energy Efficiency in Buildings; Performance-Based Design; Sustainable Architecture
Biotechnology and Food Engineering
Harnessing photosynthesis to produce clean and green energy
Biotechnology and Food Engineering
Biomass to biofuel or hydrogen using biocatalysis
Wolfson Faculty of Chemical Engineering
Interface between biotic and abiotic materials. Photochemical and photoelectrochemical cells utilizing enzymes or engineered bacteria toward waste (mainly biomass) conversion to electrical power or fuels
Wolfson Faculty of Chemical Engineering
Biochemical conversion of biomass to fuels
Wolfson Faculty of Chemical Engineering
Anion-exchange membranes for electrochemical devices
Wolfson Faculty of Chemical Engineering
Membranes for energy and water, fuel cells, electrolysis, and other electro-membrane applications, water-energy nexus, membrane theory and simulations, advanced membrane characterization
Wolfson Faculty of Chemical Engineering
The Gazit group develops new catalytic materials to promote energy-efficient and environment-friendly chemical processes.
Wolfson Faculty of Chemical Engineering
CO2 Hydrogenation; Hydrogen Generation; Nanofiber catalysts; High temprature transparent ceramics; Fiber elctrodes
Wolfson Faculty of Chemical Engineering
Predictive chemical kinetic modeling of reactive systems (combustion/pyrolysis, polymer degradation, catalysis)
Wolfson Faculty of Chemical Engineering
Processes of self assembly and crystallization in the context of battery and solar cell manufacturing
Wolfson Faculty of Chemical Engineering
Photocatalysis, Transient IR in photoactive materials, Photocatalytic reduction of CO2
Wolfson Faculty of Chemical Engineering
Water-energy nexus- materials for improved membranes, Atomic layer deposition for energy storage
Wolfson Faculty of Chemical Engineering
Pure hydrogen production; Thermal recuperation in ICE; Reactor design
Wolfson Faculty of Chemical Engineering
Decentralized Hydrogen production and CO2 utilization in membrane reactors; On-board cracking of jet fuels for scramjet engines cooling
Civil and Environmental Engineering
Analysis of electrochemical impedance spectroscopy (EIS) in electrochemical devices, with an emphasis on fuel cells
Civil and Environmental Engineering
Thermoacoustic and Rotary Engines, Heat Pumps and Compressors
Civil and Environmental Engineering
Poromechanical effects of fluid injections into the underground in the energy industry
Civil and Environmental Engineering
Energy-efficient membrane separation; Recovery of valuable elements for energy production
Civil and Environmental Engineering
Recycling of photovoltaic panels; hydrogen production by water electrolysis
Civil and Environmental Engineering
Water waves energy transfer and redistribution
Civil and Environmental Engineering
Multidisciplinary design optimization; offshore wind energy structures
Civil and Environmental Engineering
Energy production from solar and waste heat, energy-efficient cooling, separation and water purification
The Henry and Marilyn Taub Faculty of Computer Science
Biomass and Bioenergy; Life cycle assessment; Techno-economic analysis
The Andrew and Erna Viterbi Faculty of Electrical & Computer Engineering
Modeling and optimizing energy networks using multi-agent reinforcement learning (MARL)
The Andrew and Erna Viterbi Faculty of Electrical & Computer Engineering
Catalysis; oxide surfaces for electrocatalysis and photoelectrocatalysis
Data and Decision Sciences
Power grids, power electronics and energy conversion
Materials Science and Engineering
Thermoelectric materials; Oxides for inexpensive and environmentally-friendly waste heat recovery at elevated temperatures; Chalcogenides for efficient thermoelectric power generation at mid-range temperatures
Materials Science and Engineering
Novel materials for solar energy harvesting- nanoparticles and heterostructure of halide perovskites, self-healing materials for energy applications
Materials Science and Engineering
Magneto-electro-mechanical energy transfer and energy harvesting
Materials Science and Engineering
Computational Materials Science for energy conversion, electrochemical cells, solar cells, electrolysis, catalysis.
Materials Science and Engineering
Organic electronic devices including solar cells, diodes, transistors and electro-chemical transistors
Materials Science and Engineering
Materials and devices for energy-efficient technologies
Materials Science and Engineering
Nanoscale electronic devices, photovoltaics, reconfigurable photovoltaics based on ferroelectrics, pyroelectrics.
Materials Science and Engineering
Manipulating band gap of semiconductors for photovoltaic applications; Gold catalysis; Bioinspired materials
Materials Science and Engineering
Hydrogen interaction with metals and hydrogen storage in metal hydrides
Materials Science and Engineering
Materials and process for decoupled water electrolysis for green hydrogen production at scale
Mathematics
Energy storage and release via the encapsulation of phase change materials
Mechanical Engineering
Energy saving by friction and wear reduction in mechanical components
Mechanical Engineering
Thermodynamics, Heat Pumps, Absorption, Cooling and Air Conditioning
Mechanical Engineering
Energy losses in flow and multiphase flow; Rapid phase changes occurring due to pressure drop (cavitation); Inception of boiling processes Bubbly; flow dynamics
Mechanical Engineering
Isothermal turbine and compressor for waste heat recovery, efficient heat pump, and carnot battery
Schulich Faculty of Chemistry
exotic atoms - coulombic systems; muon catalyzed fusion, a process where exotic muonic atoms fuse to give energy
Schulich Faculty of Chemistry
Solar energy conversion from photosynthetic organisms/ complexes/ membranes. Hydrogen evolution, water splitting
Schulich Faculty of Chemistry
New proton conductive polymers based on the use of sustainable proteins for fuel cells applications
Schulich Faculty of Chemistry
Photocatalysis on the nanoscale; solar to fuel conversion
Schulich Faculty of Chemistry
Energy storage/conversion; polymeric membranes and organic electrolytes. Electrolyte decomposition
Schulich Faculty of Chemistry
Electrolyzers for fuel cells and hydrogen electrolyzers
Schulich Faculty of Chemistry
Metallocorroles as electro-, photo- and organo-catalysts for energy-relevant processes
Schulich Faculty of Chemistry
Electrocatalytic production of clean hydrogen from water
Schulich Faculty of Chemistry
Activation of energy relevant small molecules by metallocorroles
Industrial catalysis, oil refinery catalysis, carbon dioxide mitigation, fuel cells, electrocatalysis, small molecule activation