COURSE CURRICULUM

The Computational Physics program at University of North Texas offers students a strong blend of physics theory and advanced computational training, preparing them to solve complex scientific problems using modern programming and modeling tools. The program benefits from experienced physics faculty who are actively engaged in cutting-edge research, allowing undergraduate students to participate in pathfinding research projects and contribute to meaningful scientific investigations. Because of this strong research environment, students often gain hands-on experience in groundbreaking work conducted in state-of-the-art laboratories and computational facilities. The department also maintains a low student-to-faculty ratio in upper-level courses, which ensures personalized instruction, close mentorship, and strong academic support. Students are encouraged to engage with the broader physics community through the Society of Physics Students, which organizes field trips, networking opportunities, and guest lectures from professionals in the field. In addition, the weekly Physics Colloquium provides students with exposure to current research topics and presentations by leading scientists, helping them stay connected to developments in modern physics. The program also supports students in developing practical career skills, and physics majors often find a range of job opportunities even while still completing their undergraduate studies. The curriculum emphasizes computational and analytical skills through specialized coursework such as Intermediate Computational Modeling of Physical Systems, Computer Based Physics, Quantum Mechanics, and Physics, Computation and Software Applications. These courses help students develop expertise in programming, numerical methods, simulation techniques, and the application of computational tools to solve real-world physics problems. Graduates are well prepared for careers in scientific research, data science, engineering, software development, education, and technology-driven industries, as well as for graduate study in physics or computational science. Overall, the program combines rigorous physics education with advanced computational skills, research involvement, and professional development opportunities to prepare students for success in both academic and applied scientific careers.