Overview | Semiconductors | Catalysts | Protection | StructuresDevices | Systems

We are currently pursuing a wide-ranging research portfolio including analysis of large scale energy system decarbonization, fundamental science for solar-driven electrochemical fuel generation, and new methodology for template-free programmable assembly of ordered nanostructures. Our research spans from the km to nm length scales and is highly interdisciplinary.

Macro Energy Systems

We are modeling macro energy systems to holistically study energy sector decarbonization despite significant uncertainty in futures resource availability, costs, and public policy.1,2 Our modeling is geophysically based and involves analysis of long term weather data sets.

Solar-Driven Electrochemical Fuel Generation

We are developing semiconductor photoelectrodes for the solar-driven electrochemical generation of fuels (e.g. hydrogen).3,4

We are investigating new materials that can be integrated with semiconductors to improve durability towards photoelectrochemical operation to enable long-term stable fuel-forming devices. We are also working on the integration of heterogenous electrocatalyst materials into such assemblies.

Inorganic Phototropic Growth

We are mimicking the natural the phototropic growth of plants to generate highly ordered mesostructures in a rapid and scalable manner without the use of any lithography.5,6


  1. Dowling, J. A. et al. Role of Long-Duration Energy Storage in Variable Renewable Electricity SystemsJoule, 2020, 4, 1907-1928.
  2. Kennedy, K. M. et al. The Role of Concentrated Solar Power with Thermal Energy Storage in Least-Cost Highly Reliable Electricity Systems Fully Powered by Variable Renewable EnergyAdvances in Applied Energy, 2022, 6, 100091.
  3. Hu, S. et al. Amorphous TiO2 Coatings Stabilize Si, GaAs, and GaP Photoanodes for Efficent Water OxidationScience, 2014, 344, 1005.
  4. Yu, W. et al. Investigations of the stability of etched or platinized p-InP(100) photocathodes for solar-driven hydrogen evolution in acidic or alkaline aqueous electrolytes. Energy & Environmental Science, 2021, 14, 6007.
  5. Meier, M. C. et alInorganic Phototropism in Electrodeposition of Se-Te. Journal of the American Chemical Society, 2019, 141, 18658.
  6. Hamann, K. R. et al. Plastic Morphological Response to Spectral Shifts During Inorganic Phototropic Growth JACS Au, 2015, 8, 3166-3172.