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Quantum.org is a resource hub for learning quantum physics, offering clear explanations of core concepts and current research. It features articles, tutorials, and educational materials on quantum theory, experiments, and applications.
More resources on Quantum Physics
Atomic and Optical Physics II (MIT 8.422)
Sequel to 8.421 covering squeezed and non-classical light, multiphoton and Raman processes, coherence and superradiance, light forces, laser cooling and trapping, atom optics, and ultracold collisions. 28 lecture videos and problem sets bring learners to the frontier of quantum optics research.
Atomic and Optical Physics I (MIT 8.421)
Graduate foundations of atom-light interaction: resonance, absorption and emission, the dressed-atom picture, masers and lasers, cavity QED, atomic structure in strong fields, and tests of time reversal, parity and Bell's inequalities. 25 lecture videos, problem sets and exams prepare learners for AMO research.
Quantum Physics II (MIT 8.05)
The general formalism of quantum mechanics: Dirac notation, the harmonic oscillator, three-dimensional problems, angular momentum, spin, and addition of angular momentum. 26 lecture videos, detailed lecture notes that became Zwiebach's Mastering Quantum Mechanics, problem sets and exams.
Quantum Physics I (MIT 8.04)
The experimental basis of quantum physics, wave mechanics, and the Schrödinger equation in one and three dimensions. 24 lecture videos, lecture notes, exams, and problem sets with solutions prepare learners to solve standard quantum systems and continue to 8.05.
Quantum Country
Essays by Andy Matuschak and Michael Nielsen with embedded spaced-repetition quizzes; after reading you can follow quantum circuit notation, explain superposition and entanglement mathematically, and trace how Grover's search algorithm works.
Quantum Mechanics
Course 2 of Statistical Thermodynamics presents an introduction to quantum mechanics at a level appropriate for those with mechanical or aerospace engineering backgrounds. Using a postulatory approach that describes the steps to follow, the Schrodinger wave equation is derived and simple solutions obtained that illustrate atomic and molecular structural behavior. More realistic behavior is also explored along with modern quantum chemistry numerical solution methods for solving the wave equation.