MatSE faculty and students at the University of Illinois are making significant discoveries that will change the world, including self-healing materials such as polymer coatings that protect materials from the effects of environmental exposure.
Expert faculty lead students in their maximization of the world-class research infrastructure and cutting-edge technology
Materials Research Areas Are Cross-Disciplinary
This research area focuses on fundamentally understanding materials used for energy generation and storage technologies from heat engines to solar cells, as well as on materials for water purification. Studies include developing novel materials with advanced heat transport or heat resistance, understanding how these materials work at the atomic scale, and improving them.
This concentration designs, synthesizes, and fabricates novel functional materials and explores their biomedical and biological applications. Research crosses many disciplines including chemistry, physics, chemical, biological, mechanical and electronic engineering, pharmaceutical and life sciences, and computational sciences.
Structural applications, from airplane fuselage to car chassis to computer and cell phone cases, often call for materials that are stronger and lighter, and can maintain high performance in harsh environments. Research in this area combines experiments, numerical simulations, and modeling to improve existing materials and to develop new materials that will meet the requirements of these demanding applications.
Nanoscale science and technology is a cross-cutting area of research that seeks advances in basic understanding of the synthesis, processing, and properties of nanoscale materials and the development of new nanoscale materials for energy, medicine, information technology, transportation, and the environment. Research utilizes multiple areas of expertise: electron microscopy and diffraction, synthesis of low-dimensional semiconductors, assembly of nanostructures into hierarchical structures, excited-state electronic structure, and transport of electronic, magnetic, and vibrational excitations at the nanoscale.