The Physics curriculum offers a rigorous and conceptually integrated study of the fundamental laws governing nature, spanning classical mechanics, waves, electromagnetism, quantum mechanics, thermal and statistical physics, and solid-state physics. Students develop strong analytical and mathematical skills while exploring motion, energy, fields, waves, and matter from macroscopic to microscopic scales. Advanced courses examine quantum behavior, thermodynamic systems, and the physics of solids, linking theory to modern technologies such as semiconductors, superconductors, quantum computing, and electronic devices. Emphasizing problem-solving, experimentation, computation, and research-based learning, the programme fosters critical thinking and prepares students to engage with contemporary scientific and technological challenges.
Introduction to Classical Mechanics introduces students to the principles of motion, forces, energy, and fluids. The course covers linear and circular motion, Newton’s laws, rotational dynamics, work and energy, and the basics of fluid mechanics. Through interactive lectures, problem-solving, and hands-on experiments, students develop analytical and critical thinking skills. The course provides a strong foundation in mechanics, preparing learners for advanced studies in physics, engineering, and applied sciences, while fostering practical understanding and scientific reasoning.
Waves, Light, and Electromagnetism introduces wave motion, light, and electromagnetic phenomena. Students study optics, wave properties, diffraction, interference, electrostatics, circuits, magnetic fields, and electromagnetic waves. The course combines lectures, demonstrations, experiments, and problem-solving. Hands-on experiments reinforce concepts, while assessments include reports, problem sets, presentations, and exams. Recommended texts include Griffiths, Young and Freedman, Feynman, and Halliday. This course builds a solid understanding of physics principles and their practical applications in electricity, magnetism, and wave phenomena.
Mathematical Methods in Physics equips students with essential mathematical tools required to understand and solve physical problems. The course covers algebra, vector analysis, calculus, differential equations, linear algebra, and probability and statistics. Emphasis is placed on interpreting mathematical notation, graphical representations, and modeling physical systems using equations. Students learn to apply derivatives, integrals, and matrices to describe physical phenomena and analyze data. Through problem sets, computational exercises, and interactive discussions, the course strengthens analytical thinking and builds a strong foundation for advanced studies in physics and engineering.
Introduction to Quantum Mechanics familiarizes students with the fundamental principles governing physical systems at atomic and subatomic scales. The course explores the concept of measurement, wave–particle duality, and the mathematical description of quantum states through wave functions. Students learn to solve the Schrödinger equation for simple systems, analyze tunnelling and scattering phenomena, and understand operators, eigenvalues, and angular momentum. Applications to the hydrogen atom and multi-particle systems are discussed, along with an overview of modern technologies based on quantum physics. Emphasis is placed on conceptual clarity, problem-solving, and connecting theory with physical phenomena.
Thermal and Statistical Physics introduces students to the macroscopic laws of thermodynamics and their microscopic foundations through statistical mechanics. The course explores energy conservation, heat, work, and the behavior of ideal gases, along with the functioning and efficiency limits of heat engines. Students learn to analyze systems using microcanonical, canonical, and grand canonical ensembles, and understand when quantum effects become significant. Classical and quantum statistical mechanics are applied to ideal and realistic systems such as gases, photon radiation, and solids. Emphasis is placed on problem-solving, computational methods, and research-oriented learning.
Solid State Physics introduces students to the fundamental principles governing the structure and properties of condensed matter. The course emphasizes how microscopic atomic arrangements and bonding determine macroscopic material behavior. Students study crystal structures, lattice dynamics, reciprocal lattices, and Brillouin zones, along with electron behavior in periodic potentials and band theory. Classical and quantum models are applied to understand metals, semiconductors, and insulators, as well as modern semiconductor devices. Through problem-solving, computational exercises, and research-oriented learning, students develop fluency in the language and methods of solid state physics, enabling them to analyze materials and engage with contemporary research literature.
