Further TDSE and the Position Representation

Further TDSE and the Position Representation In this series of physics lectures, Professor J.J. Binney explains how probabilities are obtained from quantum amplitudes, why they give rise to quantum interference, the concept of a complete set of amplitudes and how this defines a "quantum state".

Commutators and Time Evolution (the Time Dependent Schrodinger Equation)

Commutators and Time Evolution (the Time Dependent Schrodinger Equation) In this series of physics lectures, Professor J.J. Binney explains how probabilities are obtained from quantum amplitudes, why they give rise to quantum interference, the concept of a complete set of amplitudes and how this defines a "quantum state".

Operators and Measurement

Operators and Measurement In this series of physics lectures, Professor J.J. Binney explains how probabilities are obtained from quantum amplitudes, why they give rise to quantum interference, the concept of a complete set of amplitudes and how this defines a "quantum state".

Dirac Notation and the Energy Representation

Dirac Notation and the Energy Representation James Binney explains the conceptual foundations of Dirac notation, drawing an analogy between quantum states and vector spaces. The lecture demonstrates how this mathematical framework facilitates the calculation of probabilities and amplitudes, using energy representations and spin-half systems as primary examples of applying these principles to physical measurements.

Introduction to Quantum Mechanics, Probability Amplitudes and Quantum States

Introduction to Quantum Mechanics, Probability Amplitudes and Quantum States James Binney introduces foundational concepts of quantum mechanics, focusing on the fundamental role of probability amplitudes in predicting physical systems. The lecture contrasts these methods with classical physics, highlighting the mysterious nature of particles interacting with quivering electromagnetic fields.