- Sandun Fernando
- Dow Professor in Bioprocess Engineering, Associate Department Head for Graduate Programs
- 303I Scoates Hall
- Undergraduate Education
- B.S., University of Peradeniya – Sri Lanka, Agricultural Engineering, 1995
- Graduate Education
- M.S., University of Nebraska – Lincoln, Agricultural and Biological Engineering, 2001
- Ph.D., University of Nebraska – Lincoln, Agricultural and Biological Systems Engineering, 2003
- • Highly Cited Researcher in Engineering (Thomson-Reuters Essential Science Indicators, 2014 -- ranking among the top 1% most cited earning the mark of exceptional impact).
- • Teaching Award of Merit, North American Colleges and Teachers of Agriculture (2015).
- • Vice Chancellor's Award for Excellence in Teaching (Texas AgriLife Research) (2015).
- • Tenneco Oil Exploration and Production Award for Meritorious Teaching in Engineering, Texas A&M University College of Engineering (2015).
- • Texas A&M University Association of Former Students Distinguished Achievement Award for Teaching at College-Level (2014).
- • Barbara and Ralph Cox ’53 Faculty Fellow 2013-2014, Texas A&M Engineering Program (College of Engineering / Texas Engineering Experiment Station).
- • Presidential Citation from the Institute of Biological Engineering for exemplary service to IBE (2012).
- • Montague Center for Teaching Excellence Scholar (Texas A&M University)(2012)
- • Teaching Excellence Award – The Texas A&M University System (2011)
- • Student Led Award for Excellence in Teaching (SLATE) – The Texas A&M University System (2010).
Our laboratory is interested in understanding and harnessing the power of biomolecular interactions. Biological systems thrive as a result of complex intermolecular interactions and deciphering these will help engineer products and processes that are critical to our day to day needs. We utilize molecular dynamic simulation assisted techniques to understand processes at a molecular level followed by experimental verification.
Some example projects that we continue to be involved in include:
- Enzyme-substrate-ligand interactions (for bioenergy, biosensing applications)
- Protein-ligand interactions (antiviral agents, antimicrobial agents, drugs)
- Catalysis (bioenergy, fuel cells)
- Surface functionalization (SAMs, separations)
We use Enhanced Ligand Exploration and Interaction Recognition Algorithm (ELIXIR-A), a platform under development in our laboratory, that uses molecular dynamics simulations to analyze intermolecular interactions for underpinning interaction points. We have the capability of sending multiple ligands simultaneously toward a receptor in an environment that closely resembles a cellular/solvent environment while the protein receptor is flexing. Interaction points identified from such a dynamic environment can be used to make highly accurate predictions of ligand-receptor behavior in the real world. We use these interaction points to understand catalyst-substrate-inhibitor behavior at a molecular level. We are using ELIXIR in high-throughput ligand (inhibitor) screening, elucidating electronic signaling in oxidoreductases and even in the development of synthetic enzymes.
- Fernando, S., Fernando, T., Stefanik, M., Eyer, L., and D. Ruzek. An Approach for Zika Virus Inhibition using Homology Structure of the Envelope Protein. Molecular Biotechnology. doi: http://dx.doi.org/10.1007/s12033-016-9979-1
- Gunawardena, D. A., and S. Fernando. 2016. Catalytic conversion of glucose micro-pyrolysis vapors in methane – with isotope labeling to reveal reaction pathways. Energy Technology. http://dx.doi.org/10.1002/ente.201600458.
- Mahadevan, A., Fernando, T. and S. Fernando. 2016. Iron-sulfur-based Single Molecular Wires for Enhancing Charge Transport in Enzyme-based Bioelectronic Systems. Biosensors and Bioelectronics. Elsevier. 15;78:477-82. PMID: 26657591 DOI: 1016/j.bios.2015.11.086
- Samarasinghe, N. and S. Fernando. 2015. Moisture Displacement and Simultaneous Migration of Surface-functionalized Algae from Water to an Extraction Solvent Using Ionic Polyelectrolytes. Renewable Energy. 2015, 81, (0), 639-643. doi:10.1016/j.renene.2015.03.053.
- Mahadevan, A.; Gunawardena*, D.; Karthikeyan, R.; Fernando, S. 2014. Potentiometric vs amperometric sensing of glycerol using glycerol dehydrogenase immobilized via layer-by-layer self-assembly. Microchimica Acta. 2014, 1-9. (DOI) 1007/s00604-014-1394-3.
- Nawaratna, G., Rooney*, W., Leonhardt*, C., and S. Fernando. 2013. Phase Stability of Triglyceride/Alcohol/Catalytic-Surfactant System in Transesterification. Energy Technology. Wiley. 1, (5-6), 359-363.
- Gunawardena, D. A., and S. Fernando. 2012. Performance Analysis of a Proton Exchange Membrane-Free Biological Fuel Cell Based on Lactate Dehydrogenase. Biological Engineering Transactions. 5 (1), 33-46.
- Nawaratna, G., Fernando, S., Lacey, R.E., and S. Adhikari. 2010. Reforming Glycerol under Electro-statically Charged Surface Conditions. Energy and Environmental Science. 2010, 3, 1593-1599. DOI: 10.1039/c0ee00047g.