COURSE CURRICULUM

The physics program offers a comprehensive exploration of various core and advanced topics across three years. In the first year, students develop a solid foundation in essential physics principles, starting with electricity, magnetism, and Maxwell's equations. They also gain practical experience in computational physics using Python and MATLAB, essential for solving real-world problems in physics. Laboratory skills are further refined through experiments in both laboratory and field settings, where students learn to manage uncertainties, document findings, and communicate results effectively. Other modules introduce space science and the application of physics to global contexts, helping students understand physics' relevance in areas like energy, astronomy, and heat. Students also begin mastering the mathematical tools required for physical modeling, progressing from calculus to linear algebra and beyond. In the second year, the focus shifts to advanced mathematical techniques for solving complex physical problems, such as those found in electromagnetism, thermodynamics, and quantum mechanics. Students study the principles of waves and optics and explore the limitations of classical physics, diving into modern physics concepts like quantum mechanics and special relativity. Practical lab work continues, with students engaging in projects that involve real-world scenarios and industry collaboration. The third year brings even deeper insights into specialized areas, including quantum mechanics, solid-state physics, and the application of physics in sustainability technologies. Students are equipped with the knowledge and practical experience to critically analyze physical systems and contribute to cutting-edge advancements in physics research and industry applications. The program culminates in providing students with the skills needed for a career in physics, whether in academia, research, or industry.