Interpretations of quantum mechanics

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Explores conformal blocks in quantum physics and eigenstates of energy.

Explains wave-particle duality, complex wavefunctions, Hermitian operators, and the quantization of particle energies in quantum mechanics.

Covers the Stochastic Schrödinger equation, Lindblad equation, Monte-Carlo w.f. algorithm, homodyning, and quantum state diffusion.

Covers the implementation of a Bell test protocol using superconducting qubits to demonstrate quantum entanglement over a distance of 30 meters.

Covers entanglement, Bell inequalities, CSHS requirements, EPR paradox, and experimental verification in quantum mechanics.

Explores the CHSH inequality in quantum information and its implications.

Explores quantum mechanics from atomic to molecular orbitals, covering the Schrödinger equation, quantum numbers, and wavefunction interpretation.

Covers the evolution of the universe with a focus on matter and radiation contributions.

Covers the concept of quantum measurements and probability outcomes after observing results.

Covers the basics of finite element modeling and discusses common pitfalls in modeling, discretization, resolution, and result interpretation.