A student uses a black light to examine materials that absorb energetic radiation inside the Scintillation Materials Research Center.

Materials Science and Engineering, PhD

Materials science and engineering is a fascinating interdisciplinary field that combines design, mechanics, chemistry, physics, mathematics, and electronics for the development of new materials and improvement of existing materials. A PhD in materials science and engineering provides high-level research opportunities, interdisciplinary collaboration, advanced characterization techniques, and other skillsets for students to stay on the cutting-edge of the materials science world.

Program overview

Our PhD program prepares students to join the international ranks of professional scientists and engineers in fundamental areas of materials science and engineering and cross-disciplinary sciences for the development of new knowledge and technologies. Core research areas are as follows:

Concentrations

Students pursuing their PhD in materials science and engineering have several concentrations to choose from including:

As a student in the Materials Science and Engineering Graduate Program, you’ll have access to cutting-edge research facilities and resources like the Tennessee Ion Beam Materials Laboratory, the Center for Materials Processing, the Scintillation Materials Research Center, and more. Partnerships with national organizations like ORNL provide access to collaborative spaces for research at a premier research institution working with the latest advancements in technology.

What can you do with a PhD in Materials Science and Engineering after graduation?

Having an advanced degree in an interdisciplinary field like materials science and engineering opens the doors to a variety of careers, from energy materials scientist to metallurgist. Materials science engineers can work in a number of industries as researchers, scientists, process engineers, technical consultants, and more. With a PhD in materials science and engineering, students can pursue careers in advanced, specialized positions, or continue in academia as research and teaching professors or principal investigators for research projects.

Featured Courses

Below are some of the courses that students in our program can choose to take. For a list of courses, visit the Graduate Catalog.

MSE 511 Crystallography, Crystal Chemistry and Diffraction  

Structure of materials: chemical bonding in materials, crystal structure, defects in crystals, diffraction. This course is one of the four core courses in the graduate MSE curriculum.

MSE 512 Mechanics of Materials

Mechanics of materials: Stress and strain at a point, elastic constitutive equations, phenomenological bulk behavior, deformation mechanisms. This course is one of the four core courses in the graduate MSE curriculum.

MSE 610 Fatigue and Fracture of Advanced Materials

Fatigue and fracture of materials: stress and strain-controlled fatigue, fatigue and fracture mechanisms, theoretical cohesive strength, mechanics of fracture, fatigue and fracture behavior of conventional as well as advanced materials.

MSE 674 Quantum and Energy Materials    

Focuses on the behavior of electrons in advanced materials for quantum and energy applications, starting with basics of quantum mechanics. Solar cells, light emitting diode, atomic dynamics in liquid electrolyte for energy storage, superconductivity and quantum computing, topological materials, and materials for spintronics are discussed.

Related Programs

Check out a list of related programs to look into based on your interest in materials science and engineering:

Admissions and Aid

Choosing the right university to pursue an engineering degree is an important decision—and a significant investment. We want to make sure that you have the information you need to both apply and make attending UT affordable.