Understanding properties of materials using fundamental principles of quantum mechanics has played a key role in the technological advances that have transformed the living standards of the human race. One important example is the transistor, discovered in 1947 at Bell labs, that is a vital building block of modern electronics and integrated circuits used in computers, televisions and mobile phones. More recently, new magnetic materials, high temperature superconductors and nanomaterials have found important applications in medical and other sciences. Without basic research in condensed matter physics, none of the above advances would have been possible.
I have been engaged in first principles and other (both formal and computational) approaches to electronic, magnetic and structural properties of condensed matter systems for several decades. My current research interests include materials with strongly correlated electrons, exact calculations of correlated nanoclusters, high temperature superconductivity, magnetism, topological materials and various symmetry breaking mechanisms in condensed matter systems.
My teaching interests include solid state physics, quantum mechanics, many-body theory, classical and statistical mechanics and mathematical methods in physics. I am also interested in improving the technical (math and physics) skills of STEM students and currently working on a related book to be published by World Scientific.
- Ph.D., Physics, Cornell University, 1985
- M.S., Physics, Cornell University, 1982
- B.S., Mathematics, University of Colombo, Sri Lanka, 1978
- 1991-present: Professor, Department of Physics, University of Connecticut
- 1987-1991: Scientist, Department of Physics, Brookhaven National Laboratory
- 1984-1986: Postdoctoral Fellow, Department of Physics, West Virginia University
- American Physical Society