Video Library
160 lessons · filter and browse by level, path, or provider
160 lessons
Beginner to Advanced
- CoreBeginner3Blue1BrownBut what is quantum computing? (Grover's Algorithm)
Build intuition for quantum computing before you watch this lesson.
- CoreBeginnerWIREDQuantum Computing Expert Explains One Concept in 5 Levels of Difficulty
Build intuition for quantum computing before you watch this lesson.
- CoreBeginnerIBM TechnologyWhat is Quantum Computing?
Build intuition for quantum computing before you watch this lesson.
- CoreIntroIBM Quantum / QiskitUnderstanding Quantum Information and Computation — Course Overview
Build intuition for quantum information before you watch this lesson.
- CoreIntermediateIBM Quantum / QiskitSingle Systems
Build intuition for quantum foundations before you watch this lesson.
- CoreAdvancedIBM Quantum / QiskitGrover's Algorithm | Understanding Quantum Information & Computation | Lesson 08
Build intuition for quantum information before you watch this lesson.
- RecommendedIntroPBS Space TimeSo You Want to Understand Quantum Mechanics...
Build intuition for quantum mechanics before you watch this lesson.
- RecommendedIntermediate+MIT OpenCourseWareLecture 1: Introduction to Superposition
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- RecommendedIntermediate+MIT OpenCourseWareLecture 3: The Wave Function
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- RecommendedIntermediate+MIT OpenCourseWareLecture 5: Operators and the Schrödinger Equation
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- RecommendedIntermediate+MIT OpenCourseWareLecture 10: Clicker Bonanza and Dirac Notation
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- RecommendedIntermediate+MIT OpenCourseWareLecture 15: Eigenstates of the Angular Momentum Part 1
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- RecommendedIntermediate+MIT OpenCourseWareLecture 23: More on Spin
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- RecommendedIntermediate+MIT OpenCourseWareLecture 24: Entanglement: QComputing, EPR, and Bell's Theorem
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- RecommendedAdvancedIBM Quantum / QiskitThe Quantum Fourier Transform Explained with Music
Build intuition for quantum Fourier transform before you watch this lesson.
- Deep DiveIntermediate+MIT OpenCourseWareLecture 2: Experimental Facts of Life
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- Deep DiveIntermediate+MIT OpenCourseWareLecture 4: Expectations, Momentum, and Uncertainty
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- Deep DiveIntermediate+MIT OpenCourseWareLecture 6: Time Evolution and the Schrödinger Equation
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- Deep DiveIntermediate+MIT OpenCourseWareLecture 7: More on Energy Eigenstates
Advanced MIT OCW segment: understand the role of energy eigenstate before following the derivation.
- Deep DiveIntermediate+MIT OpenCourseWareLecture 8: Quantum Harmonic Oscillator
Advanced MIT OCW segment: understand the role of quantum harmonic oscillator before following the derivation.
- Deep DiveIntermediate+MIT OpenCourseWareLecture 9: Operator Methods for the Harmonic Oscillator
Advanced MIT OCW segment: understand the role of quantum harmonic oscillator before following the derivation.
- Deep DiveIntermediate+MIT OpenCourseWareLecture 11: Dispersion of the Gaussian and the Finite Well
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- Deep DiveIntermediate+MIT OpenCourseWareLecture 12: The Dirac Well and Scattering off the Finite Step
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- Deep DiveIntermediate+MIT OpenCourseWareLecture 13: More on Scattering
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- Deep DiveIntermediate+MIT OpenCourseWareLecture 14: Resonance and the S-Matrix
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- Deep DiveIntermediate+MIT OpenCourseWareLecture 16: Eigenstates of the Angular Momentum Part 2
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- Deep DiveIntermediate+MIT OpenCourseWareLecture 17: More on Central Potentials
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- Deep DiveIntermediate+MIT OpenCourseWareLecture 18: "Hydrogen" and its Discontents
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- Deep DiveIntermediate+MIT OpenCourseWareLecture 19: Identical Particles
Advanced MIT OCW segment: understand the role of identical particles before following the derivation.
- Deep DiveIntermediate+MIT OpenCourseWareLecture 20: Periodic Lattices Part 1
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- Deep DiveIntermediate+MIT OpenCourseWareLecture 21: Periodic Lattices Part 2
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- Deep DiveIntermediate+MIT OpenCourseWareLecture 22: Metals, Insulators, and Semiconductors
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
Advanced Physics & Research — graduate level
- CoreAdvanced+IBM Quantum / QiskitCoding with Qiskit 1.x — Series Entry
Build intuition for Qiskit before you watch this lesson.
- RecommendedExpertIBM Quantum / QiskitDynamic Circuits — Coding with Qiskit
Build intuition for dynamic circuit before you watch this lesson.
- Deep DiveResearchMIT OpenCourseWareLecture 1: Wave Mechanics
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- Deep DiveResearchMIT OpenCourseWareLecture 2: Wave Mechanics (cont.)
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- Deep DiveResearchMIT OpenCourseWareLecture 3: Wave Mechanics (cont.) and Stern-Gerlach Experiment
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- Deep DiveResearchMIT OpenCourseWareLecture 4: Spin One-half, Bras, Kets, and Operators
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- Deep DiveResearchMIT OpenCourseWareLecture 5: Linear Algebra: Vector Spaces and Operators
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- Deep DiveResearchMIT OpenCourseWareLecture 6: Linear Algebra: Vector Spaces and Operators (cont.)
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- Deep DiveResearchMIT OpenCourseWareLecture 7: Linear Algebra: Vector Spaces and Operators (cont.)
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- Deep DiveResearchMIT OpenCourseWareLecture 8: Linear Algebra: Vector Spaces and Operators (cont.)
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- Deep DiveResearchMIT OpenCourseWareLecture 9: Dirac's Bra and Ket Notation
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- Deep DiveResearchMIT OpenCourseWareLecture 10: Uncertainty Principle and Compatible Observables
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- Deep DiveResearchMIT OpenCourseWareLecture 11: Uncertainty Principle and Compatible Observables (cont.)
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- Deep DiveResearchMIT OpenCourseWareLecture 12: Quantum Dynamics
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- Deep DiveResearchMIT OpenCourseWareLecture 13: Quantum Dynamics (cont.)
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- Deep DiveResearchMIT OpenCourseWareLecture 14: Quantum Dynamics (cont.)
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- Deep DiveResearchMIT OpenCourseWareLecture 15: Quantum Dynamics (cont.)
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- Deep DiveResearchMIT OpenCourseWareLecture 16: Quantum Dynamics (cont.) and Two State Systems
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- Deep DiveResearchMIT OpenCourseWareLecture 17: Two State Systems (cont.)
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- Deep DiveResearchMIT OpenCourseWareLecture 18: Two State Systems (cont.), Multiparticle States and Tensor Products
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- Deep DiveResearchMIT OpenCourseWareLecture 19: Multiparticle States and Tensor Products (cont.)
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- Deep DiveResearchMIT OpenCourseWareLecture 20: Multiparticle States and Tensor Products (cont.) and Angular Momentum
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- Deep DiveL10MIT OpenCourseWareLecture 21: Angular Momentum (cont.)
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- Deep DiveL10MIT OpenCourseWareLecture 22: Angular Momentum (cont.)
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- Deep DiveL10MIT OpenCourseWareLecture 23: Angular Momentum (cont.)
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- Deep DiveL10MIT OpenCourseWareLecture 24: Addition of Angular Momentum
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- Deep DiveL10MIT OpenCourseWareLecture 25: Addition of Angular Momentum (cont.)
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- Deep DiveL10MIT OpenCourseWareLecture 26: Addition of Angular Momentum (cont.)
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL1.1 General problem. Non-degenerate perturbation theory
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL1.2 Setting up the perturbative equations
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL1.3 Calculating the energy corrections
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL1.4 First order correction to the state. Second order correction to energy
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL2.1 Remarks and validity of the perturbation series
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL2.2 Anharmonic Oscillator via a quartic perturbation
Advanced MIT OCW segment: understand the role of quantum harmonic oscillator before following the derivation.
- ProL10MIT OpenCourseWareL2.3 Degenerate Perturbation theory: Example and setup
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL2.4 Degenerate Perturbation Theory: Leading energy corrections
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL3.1 Remarks on a “good basis”
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL3.2 Degeneracy resolved to first order; state and energy corrections
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL3.3 Degeneracy resolved to second order
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL3.4 Degeneracy resolved to second order (continued)
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL4.1 Scales and zeroth-order spectrum
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL4.2 The uncoupled and coupled basis states for the spectrum
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL4.3 The Pauli equation for the electron in an electromagnetic field
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL4.4 Dirac equation for the electron and hydrogen Hamiltonian
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL5.1 Evaluating the Darwin correction
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL5.2 Interpretation of the Darwin correction from nonlocality
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL5.3 The relativistic correction
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL5.4 Spin-orbit correction
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL5.5 Assembling the fine-structure corrections
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL6.1 Zeeman effect and fine structure
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL6.2 Weak-field Zeeman effect; general structure
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL6.3 Weak-field Zeeman effect; the projection lemma
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL6.4 Strong-field Zeeman
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL6.5 Semiclassical approximation and local de Broglie wavelength
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL7.1 The WKB approximation scheme
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL7.2 Approximate WKB solutions
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL7.3 Validity of the WKB approximation
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL7.4 Connection formula stated and example
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL8.1 Airy functions as integrals in the complex plane
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL8.2 Asymptotic expansions of Airy functions
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL8.3 Deriving the connection formulae
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL8.4 Deriving the connection formulae (continued) logical arrows
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL9.1 The interaction picture and time evolution
Advanced MIT OCW segment: understand the role of interaction picture before following the derivation.
- ProL10MIT OpenCourseWareL9.2 The interaction picture equation in an orthonormal basis
Advanced MIT OCW segment: understand the role of interaction picture before following the derivation.
- ProL10MIT OpenCourseWareL9.3 Example: Instantaneous transitions in a two-level system
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL9.4 Setting up perturbation theory
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL10.1 Box regularization: density of states for the continuum
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL10.2 Transitions with a constant perturbation
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL10.3 Integrating over the continuum to find Fermi’s Golden Rule
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL10.4 Autoionization transitions
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL11.1 Harmonic transitions between discrete states
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL11.2 Transition rates for stimulated emission and absorption processes
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL11.3 Ionization of hydrogen: conditions of validity, initial and final states
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL11.4 Ionization of Hydrogen: Matrix Element for Transition
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL12.1 Ionization Rate for Hydrogen: Final Result
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL12.2 Light and Atoms with Two Levels, Qualitative Analysis
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL12.3 Einstein’s Argument: the Need for Spontaneous Emission
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL12.4 Einstein’s argument: B and A coefficients
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL12.5 Atom-light interactions: dipole operator
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL13.1 Transition rates induced by thermal radiation
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL13.2 Transition rates induced by thermal radiation (continued)
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL13.3 Einstein’s B and A coefficients determined. Lifetimes and selection rules
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL13.4 Charged particles in EM fields: potentials and gauge invariance
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL13.5 Charged particles in EM fields: Schrodinger equation
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL14.1 Gauge invariance of the Schrodinger Equation
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL14.2 Quantization of the magnetic field on a torus
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL14.3 Particle in a constant magnetic field: Landau levels
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL14.4 Landau levels (continued). Finite sample
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL15.1 Classical analog: oscillator with slowly varying frequency
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL15.2 Classical adiabatic invariant
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL15.3 Phase space and intuition for quantum adiabatic invariants
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL15.4 Instantaneous energy eigenstates and Schrodinger equation
Advanced MIT OCW segment: understand the role of energy eigenstate before following the derivation.
- ProL10MIT OpenCourseWareL16.1 Quantum adiabatic theorem stated
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL16.2 Analysis with an orthonormal basis of instantaneous energy eigenstates
Advanced MIT OCW segment: understand the role of energy eigenstate before following the derivation.
- ProL10MIT OpenCourseWareL16.3 Error in the adiabatic approximation
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL16.4 Landau-Zener transitions
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL16.5 Landau-Zener transitions (continued)
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL17.1 Configuration space for Hamiltonians
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL17.2 Berry’s phase and Berry’s connection
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL17.3 Properties of Berry’s phase
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL17.4 Molecules and energy scales
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL18.1 Born-Oppenheimer approximation: Hamiltonian and electronic states
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL18.2 Effective nuclear Hamiltonian. Electronic Berry connection
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL18.3 Example: The hydrogen molecule ion
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL19.1 Elastic scattering defined and assumptions
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL19.2 Energy eigenstates: incident and outgoing waves. Scattering amplitude
Advanced MIT OCW segment: understand the role of energy eigenstate before following the derivation.
- ProL10MIT OpenCourseWareL19.3 Differential and total cross section
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL19.4 Differential as a Sum of Partial Waves
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL20.1 Review of Scattering Concepts Developed So Far
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL20.2 The One-Dimensional Analogy for Phase Shifts
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL20.3 Scattering Amplitude in Terms of Phase Shifts
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL20.4 Cross Section in Terms of Partial Cross Sections. Optical Theorem
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL20.5 Identification of Phase Shifts. Example: Hard Sphere
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL21.1 General Computation of the Phase Shifts
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL21.2 Phase Shifts and Impact Parameter
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL21.3 Integral Equation for Scattering and Green’s Function
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL22.1 Setting Up the Born Series
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL22.2 First Born Approximation. Calculation of the Scattering Amplitude
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL22.3 Diagrammatic Representation of the Born series. Scattering Amplitude for Spherically Symmetric Potentials
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL22.4 Identical Particles and Exchange Degeneracy
Advanced MIT OCW segment: understand the role of identical particles before following the derivation.
- ProL10MIT OpenCourseWareL23.1 Permutation Operators and Projectors for Two Particles
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL23.2 Permutation Operators Acting on Operators
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL23.3 Permutation Operators on N Particles and Transpositions
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL23.4 Symmetric and Antisymmetric States of N Particles
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL24.1 Symmetrizer and Antisymmetrizer for N Particles
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL24.2 Symmetrizer and Antisymmetrizer for N Particles (continued)
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL24.3 The Symmetrization Postulate
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.
- ProL10MIT OpenCourseWareL24.4 The Symmetrization Postulate (continued)
Advanced MIT OCW segment: understand the role of quantum mechanics before following the derivation.