Tansel Karabacak Institution Verified
Sourced from institutional research profiles (UAMS TRI or ARA).
Antibacterial Materials and Battery Technologies
University of Arkansas at Little Rock
faculty
Research Areas
Biography and Research Information
OverviewAI-generated summary
Tansel Karabacak's research focuses on the development and application of nanostructured materials, particularly for antibacterial and photocatalytic purposes. His work has involved enhancing the antibacterial properties of common materials like aluminum foil through surface nanostructuring techniques, such as hot water and steam treatments. These modified surfaces have demonstrated efficacy against bacteria like E. coli, with applications in food preservation.
In addition to antibacterial applications, Karabacak investigates the photocatalytic potential of nanostructures, notably zinc oxide (ZnO). He has studied the in situ growth and UV photocatalytic effects of ZnO nanostructures on zinc plates for applications in wastewater treatment. His research also includes the synthesis of copper oxide nanostructures and their characterization through cyclic voltammetry and specific capacitance studies, indicating potential for energy storage applications.
Karabacak is a member of the ARA Academy and is recognized as a highly cited researcher in the field of nanotechnology. He maintains an active research group at the University of Arkansas at Little Rock and collaborates with several colleagues within the institution, including Nawzat S. Saadi, Shanzida Haque, Laylan B. Hassan, and Quinshell Smith.
Metrics
- h-index: 36
- Publications: 191
- Citations: 3,824
Selected Publications
- Antibacterial efficacy and adaptive proteomic strategies of antibiotic-resistant pathogens on nanostructured copper surfaces (2026) DOI
ARA Academy 2017 ARA Fellow
Dr. Karabacak specializes in nanostructured and thin film materials. His pioneering innovations include glancing angle deposited (GLAD) nanostructures, conformal physical vapor deposition, high pressure sputtering, and metal oxide nanostructures. Applications span alternative energy (fuel cells, batteries, solar cells, hydrogen storage) and emerging areas including superhydrophobic coatings, oil-water separation, atmospheric water generation, and photodetectors.
Policy Impact
Developing nanostructured materials for alternative energy, atmospheric water generation, and solar applications with direct commercialization potential for Arkansas industries.
Growth Areas
['Materials Engineering Applications']
Collaborators
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