Course Outcome

• Understand the commutation relations, including angular momentum and ladder operators, and their applications in quantum mechanics.
• Develop proficiency in approximation methods such as perturbation theory and the variation method, and apply them effectively to solve problems related to atomic systems.
• Acquire knowledge of fundamental concepts in tunnelling and barrier shapes, enabling analysis of quantum phenomena in various systems.
• Understand the principles governing organometallic compounds of transition elements, including their stability and catalytic roles in chemical reactions.
• Master crystal field theory, ligand field theory, and molecular orbital theory, and their applications in predicting and interpreting complex structures and electronic configurations.
• Explore the diverse chemistry of boranes, inorganic polymers, organoboron, and organosilicon compounds, including synthesis, structure, bonding, and their significance in organic synthesis and materials science.