Electrochemical Engineering for Reactive Separations and Chemical Conversions

The Yap lab develops next generation electrochemical separation and conversion technologies. We achieve this by combining a fundamental understanding of thermodynamics, kinetics, and transport with material design and reactor engineering to unlock new pathways to achieve electrochemical separations and conversions. We tune electrochemical interfaces and the interactions between these interfaces to achieve high performance electrochemical reactors.

Our research topics include:

Electrochemical Interface Design

Electrochemical interfaces can be used to achieve simultaneous reactive separation and chemical conversion. We engineer electrochemical interfaces using methods including:

  • Electrocatalyst design

  • Electrode design

We analyze these interfaces against

  • Electrochemical reaction performance

  • Electrocatalyst stability

Current electrochemical reactions we are interested in exploring include:

  • Organic oxidation reactions

  • Oxygen evolution reaction

  • Halide-assisted reactions

  • Reduction reactions

Electrolyte Design

Electrolytes can influence the electrochemical reaction microenvironment and dictate the transport of reactive (and non-reactive) species between electrodes. We are interested in exploring:

  • Aqueous and non-aqueous electrolyte compositions

  • Solid-state electrolytes

  • Ion effects on electrochemical performance

Our toolbox for probing electrochemical interfaces includes:

  • Electrochemical techniques

  • In situ surface sensitive spectroscopy

  • Online mass spectrometry

Selective Ion Transport

We are interested in exploring how material properties and electrochemical reactor design can influence selective ion transport for resource recovery. Our research interests in this area include:

  • Materials for selective transport

  • Reactor design and variable operation

Our toolbox for probing ion transport through various materials and interfaces includes:

  • Electrochemical techniques

  • Scattering techniques

  • Fluorescence techniques

  • Nuclear magnetic resonance spectroscopy