Research Projects

Fuel Cell Research Projects 

Motivation: Increasing durability, reducing cost and increasing activity are the main motivators for this research area

  • Understanding catalyst degradation mechanisms during catalyst and support accelerated stress tests
  • Understanding degradation during start-up/shut-down
  • Water and heat management in fuel cells with the focus on GDLs and MPLs design
  • Development of multiphysics 2D and 3D models based on 3D x-ray computed tomography (CT) data for accurate physics representation
  • Advanced diagnostic techniques development

Electrolyzers Research Projects

Motivation: Increasing durability and reducing cost and improved mass-transport through materials design 

  • Design of porous transport layers (PTLs) for effective water delivery and oxygen removal in the anodes of polymer electrolyte water electrolyzers
  • Understanding of catalyst degradation and development of accelerated stress tests
  • Direct observation of degradation and mass transport with x-ray CT
  • 3D modeling of transport within the PTLs

Battery Research Projects 

Motivation: Understand mechanisms of Li-metal dendrites growth; advanced diagnostic techniques for degradation of Li-ion batteries 

  • Operando x-ray CT for visualizing Li-metal dendrites growth in Li-metal batteries
  • Glow discharge optical emission spectroscopy (GD-OES) for probing Li and other metal distributions during battery cycling
  • Zn-air batteries development of Zn-electrode and oxygen-electrode for long-lasting batteries
  • Development of 2D models to capture relevant physics

Fundamentals Research Projects

  • Electrokinetics for measurement of zeta potential at charged metal-electrolyte interface
  • Impact of confinement in micro- and meso- pores on ions transport, incorporation of ionic liquids for improved proton conductivity and use of models
  • Understanding internal wettability of porous media and correlating it to water transport
  • Understanding pyrolysis of catalysts and materials transformation under applied temperature with synchrotron techniques with goal to design better catalysts

Chemical Manufacturing Projects

Motivation: Decarbonization of chemical manufacturing industry

  • Cement production using electrochemical reactors
  • CO2 reduction within the electrolyzer reactors, optimizing local pH for Faradaic efficiency towards specific product
  • Selective laser sintering of porous metals for porous metals production