Single crystal ingot grown via optical floating zone method (Zevalkink)

This research area centers on designing materials with tailored electronic, optical, magnetic, or ionic properties for applications spanning solar energy conversion, lighting, semiconductors, sensing, and quantum technologies. A major theme is the engineering of thin films and crystalline structures — from organic and molecular semiconductors to low-dimensional van der Waals materials and metal chalcogenides — where precise control over crystal growth, nucleation, and defect chemistry determines device performance. Work also spans excitonic and photophysical phenomena in molecular electronics for transparent solar cells and next-generation light-emitting diodes, alongside solid-state ionic materials for fuel cells, sensors, and emerging thermoelectric and quantum-enabled devices. A related thread investigates polymer- and biomolecule-based functional materials — including ion-conducting membranes, self-assembled block copolymers, and stimuli-responsive interfaces — that bridge soft-matter chemistry with electronic and energy-relevant function.

Understanding lattice dynamics using Resonant ultrasound spectroscopy of thermoelectric materials (Zevalkink)
Using organic molecules as absorbers for transparent photovoltaics (Lunt)
RHEED images taken during the epitaxial growth of organic photovoltaics (Lunt)

Faculty

Card Section

Dmitri Cordova

Dmitri Cordova

Chengcheng Fang

Chengcheng Fang

Michael A. Hickner

Michael A. Hickner

Richard R. Lunt

Richard R. Lunt

Jose Mendoza Cortes

Jose Mendoza Cortes

Jason Nicholas

Jason Nicholas

Jonathan Turnley

Jonathan Turnley

Ruigang Wang

Ruigang Wang

Alexandra Zevalkink

Alexandra Zevalkink