Forskningsprosjekter

• 2
  • 2D high-entropy materials for energy conversion (HEMEC)

• A
  • Advanced Biogas-to-Methanol Electrocatalysis (ABiME)
  • Advanced additively manufactured permanent Magnets for New Energy and MObility Applications (MagNEO)
  • Akademiaavtalen med Equinor

• B
  • Battery-Grade Carbon for Sodium-ion batteries (C4Bat)
  • Bespoke zeolites for the tandem catalytic conversion of CO2 to hydrocarbons (Zeo4Fuel)

• C
  • COMBAT - COMpostie electrolytes for solid-state BATteries by design
  • Calcium-Silicon alloy-based all-solid-state batteries
  • Combinatorial Materials Science for Protonic Electrochemichal Energy Conversion (COMICON)
  • Crystalline Oxides for Next Generation Computing and Emerging Photonic Technologies (CONCEPT)
  • Cuprous Single Sites in Metal-Organic Frameworks for Fuel Synthesis by Electrocatalytic CO2 Reduction (CuMOF-eCO2RED)

• D
  • Design of electrodes for Li-ion batteries with optimized balance of energy and power (MoreIsLess)
  • Diamond and Gallium Oxide Interfaces for Power Electronics Devices (DOPED)
  • Discovery and exploration of novel materials for tandem solar cells (DENT)
  • Discovery of efficient Enzyme-like Metal Organic frameworks to activate biomethane at low temperature (DEMO)
  • Disorder Induced Ordering in Gallium Oxide (DIOGO)

• E
  • Electrolyser 2030 - Cell and stack designs (MODELYS)

• F
  • FLUFFY – Fluoridbaserte Na-ion batterikatoder for stasjonær energilagring
  • FUNctional Coatings of sulfide electrolYtes for lithium SolidState (FUNCY-SSB)

• H
  • How different parameters influence cost and performance of battery cells from material to the final cell (CellMap)
  • Hybrid protonic reactor for flexible energy conversion, storage and transmission by reversible organic electrolysis (hyPPER)

• K
  • Kombinatorisk studie av exsolutionnanopartikler for energikonverterings og -lagringsteknologier

• L
  • Li transport and interface reactions in advanced battery materials (LiTIA)

• M
  • MORTY - Momentum resolved electron band structures from electron energy loss spectroscopy
  • Microfabrication of finely segmented Silicon sensors with charge multiplication for next generation LighT sources and particle Trackers (Si-LighT)