Lecture

Quantum Physics I

Related lectures (32)

Covers angular momentum generators, operators, and finite rotations in quantum mechanics.

Explores angular momentum, rotation theory, and spherical harmonics in 3D quantum systems.

Explores the behavior of a particle in a central potential and its invariance under rotations.

Explores orbital angular momentum in quantum mechanics, including rotation operators and eigenvalues.

Covers rotation matrices, orthogonal matrices, and quantum physics computations related to rotations and angular momentum.

Covers the angular momentum operations in quantum physics.

Covers torque force, angular momentum theorem, gyroscopic effects, and procession of the earth's axis.

Explores diagonalization of moment of inertia and principal directions in orthonormal base vectors.

Explores quantum mechanics concepts applied to composite systems and angular momentum, emphasizing the importance of understanding the basics.

Explores the theoretical aspects of the hydrogen-like atom in quantum mechanics.

Explores eigenvalues, ladder operations, and quantum number values in quantum physics.

Explores the addition of angular momenta in quantum mechanics and the properties of the total angular momentum operator.

Covers the fundamentals of quantum physics, including operators, spin, and angular momentum.

Explores spin as angular momentum, its operators, commutation relations, and eigenstates in quantum mechanics.

Explains how to determine the instantaneous center of rotation and covers angular momentum concepts.

Explores quantum sensing, rotations, and coherent states in the context of two-level systems, the Bloch Sphere, and Rabi oscillations.

Explores Newtonian physics, ballistics laws, and angular momentum principles in motion analysis.

Explores spin operators in quantum chemistry, focusing on their properties and commutation rules with orbital angular momentum operators.

Explores spherical harmonics, discussing their mathematical properties and significance in quantum mechanics.

Analyzes Coulomb collisions between charged particles and the conservation of energy, momentum, and angular momentum.