Quantum Fluctuations and Saddle-Point Approximation

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Explores eigenfunctions and operators in quantum chemistry, emphasizing their significance in understanding bound states.

Explores quantum instanton theory, path integrals, reaction rates, and tunnelling phenomena.

Explores the principles of quantum mechanics, including discrete light properties and wave-particle dualism.

Explores the impact of particle detection on quantum systems, including energy outcomes, wave function behavior, and eigenstate approximation.

Explores the applicability of non-relativistic quantum mechanics and its relation to special relativity.

Analyzes the evolution of a quantum particle in a square potential well.

Covers the basics and latest developments in Path Integral Quantum Mechanics, including practical sessions and discussions.

Covers wave functions, electron density, probability distributions, and quantum operators.

Covers the quantization of the electromagnetic field, measuring quantum states of light, and the historical development of quantum optics.

Covers the calculation of the transmission coefficient for proton barrier penetration and its application in determining average passage time.