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» The Quantum Exchange Library Materials
The Quantum Exchange Library Materials
Total Materials:
310
1D Quantum States Applet
1D Quantum Transitions Applet
2D Circular Square Well Applet
2D Quantum Harmonic Oscillator Applet
2D Rectangular Square Well Applet
3D calculation of wave packet tunneling through a supported carbon nanotube
3D Quantum Harmonic Oscillator Applet
3Ms for Instruction: Reviews of Maple, Mathematica, and Matlab
5 1/2 Examples in Quantum Mechanics
A computersimulated Stern–Gerlach laboratory
A Gallery of Quantum States  An Introduction to Quantum Optics
A Modern Approach to Quantum Mechanics
A New Model Course in Applied Quantum Physics
A New Model Course in Applied Quantum Physics: Examination Questions
A new multimedia resource for teaching quantum mechanics concepts
A Practical Guide to SPM: Scanning Probe Microscopy
A Quantum Bouncing Ball
A Radically Modern Approach to Introductory Physics
AAPT New Faculty Workshop
Active Quantum Mechanics: Tutorials and writing assignments for engaging students in the study of quantum mechanics
Addressing Student Models of Energy Loss in Quantum Tunneling
Advanced Laboratory Physics Association
Advanced Visual Quantum Mechanics
An Introduction to the Basics of Dephasing
An Open Source XML Framework for Authoring Curricular Material
Applying Spectra and Energy Diagrams to Learn About Stars
Assessing and improving student understanding of quantum mechanics
Atomic Dipole Transitions Applet
Atomic Orbitals
Band Structure  An Electron Lattice Example
Categorization of quantum mechanics problems by professors and students
Central Force Motion Example: Hydrogen Atom
Centre for Quantum Information and Foundations
Characterizing representational learning: A combined simulation and tutorial on perturbation theory
Circular Well Model
Circular Well Superposition Model
Clebschomatic
Collaboration Bohmian Mechanics
Comparing Students performance in QM between China and US
Complex Numbers
Computation and Problem Solving in Undergraduate Physics
Creating an Energy Level to Model LEDs
Delta Function Potential Example
Design and validation of a twotier questionnaire on basic aspects in quantum mechanics
Determining Plank's Constant with LEDs
Developing a quantum mechanics concept inventory
Developing and Assessing ResearchBased Tools for Teaching Quantum Mechanics and Thermodynamics
Developing and evaluating a tutorial on the doubleslit experiment
Developing and evaluating an interactive tutorial on degenerate perturbation theory
Developing and Evaluating ResearchBased Learning Tools for Quantum Mechanics
Developing and Researching PhET simulations for Teaching Quantum Mechanics
Diode Laser
Dirac Delta Scattering Model
Discrete Energy Levels in Bound States: Numerical Solutions
Double Slit Diffraction
Double Slit WaveParticle JS Model
Dynamics of Student Modeling: A Theory, Algorithms, and Application to Quantum Mechanics
Eigenstate Superposition Model
Electrons in a 2D lattice: Energy contours and density of states
Encyclopedia of Laser Physics and Technology
Energy Band Creator
Energy Diagram Explorer
Energy measurement resources in spinsfirst and positionfirst quantum mechanics
Enhancing student learning of twolevel quantum systems with interactive simulations
Enhancing student visual understanding of the time evolution of quantum systems
EPR/Bell's Theorem
Essay Assignment System
Everett's RelativeState Formulation of Quantum Mechanics
Examining the Evolution of Student Ideas About Quantum Tunneling
Experimenting from a Distance: Remote Controlled Lab experiments for teaching Physics at Highschool
Exploring Student Understanding of Energy through the Quantum Mechanics Conceptual Survey
Faculty Disagreement about the Teaching of Quantum Mechanics
Falling  A Constant Force Example
Fluorescence Spectroscopy
From Cbits to Qbits: Teaching computer scientists quantum mechanics
From Einstein to Quantum Information
Gas Lamp Absorption
Gas Spectroscopy
Gaussian Wave Packet: Step Scattering
Graduate Quantum Mechanics Reform
Helium Neon Laser
How does Quantum Mechanics turn into Classical Mechanics?
Hydrogen Atom Applet
Hydrogen Spectroscopy
Hydrogen Spectroscopy II
HydrogenLab  Pictures of the Hydrogen Atom
I suddenly have to move my facetoface physics/astronomy course online!
IBM Scientists Make Breakthrough in Nanoscale Imaging
Illinois PER: Introductory Course Materials
Improving student understanding of addition of angular momentum in quantum mechanics
Improving Students' Understanding of Quantum Mechanics
Improving Students' Understanding of Quantum Mechanics
Improving students’ understanding of quantum measurement. I. Investigation of difficulties
Improving students’ understanding of quantum measurement. II. Development of researchbased learning tools
Infrared Detector Spectroscopy
Infrared Detector: Card Model
Institute for Quantum Information and Matter
Institute of Physics Quantum Physics Resources
Interactive Learning Tutorials on Quantum Mechanics
Interactive Quantum Mechanics Exercises for JustinTime Teaching
Interference with correlated photons: Five quantum mechanics experiments for undergraduates
International Journal of Quantum Information (IJQI)
Interpreting Wave Functions
Introduction to PET Physics
Introduction to Quantum Mechanics
Introductory Quantum Mechanics
Intuitive Quantum Physics
Investigating Student Difficulties with Dirac Notation
Investigating Student Understanding of Perturbation Theory and the Inner Products of Functions
Investigating Student Understanding of Quantum Physics: Spontaneous Models of Conductivity
Investigating transfer of learning in advanced quantum mechanics
Investigation of Student Understanding of the WaveLike Properties of Light and Matter
KSU Virtual Quantum Mechanics: Single Slit Diffraction
Laboratorytutorial activities for teaching probability
Laser Adventure
Lectures on Quantum Computation
LED Constructor
LED Spectroscopy
Light and Waves
LowCost Coincidence Counting Apparatus For Single Photon Optics Investigations
Magnetic Resonance of Spin OneHalf Particles Model
Making Quantum Mechanics Visual and Interactive
Maple, Mathematica, and Matlab: The 3M's without the Tape
Matter Waves
Millikan Oil Drop Experiment JS
Modeling Light Emission by Fluorescent Lamps
Modeling Light Emission to Explain Phosphorescence
Models of dephasing at low temperatures
Modern Undergraduate Quantum Mechanics Experiments
Molecular Orbital Viewer
Multiple Slit Diffraction Model
Nanohub
NARST 1999: Research on Teaching and Learning Quantum Mechanics
Nine formulations of Quantum Mechanics
Nine Formulations of Quantum Mechanics: Lecture
Numerical Solutions to the Schrödinger Equation
Numerical Time Development in Quantum Mechanics Using a Reduced Hilbert Space Approach
Observing the quantum behavior of light in an undergraduate laboratory
Oersted Lecture 2014: Physics education research and teaching modern Modern Physics
On the Study of Student Use of MetaResources in Learning Quantum Mechanics
Open Source and Open Access Resources for Quantum Physics Education
Open Source and Open Access Resources for Quantum Physics Education
Open Source Physics
OSP QuILT Package: Time Evolution of a Wave Function
OSPbased Programs for Quantum Mechanics: Time Evolution and ISW Revivals
OSP: Quantummechanical Measurement
Paradigms in Physics Quantum: Projection Operators
Paradigms in Physics: Finding the Coefficients of a Spherical Harmonic Series
Paradigms in Physics: Linear Combinations of Spherical Harmonics
Paradigms in Physics: Quantum Activities
Paradigms in Physics: Quantum Mechanics Activities
PERBased Tutorials for Quantum Physics
Perspectives in Quantum Physics: Epistemological, Ontological and Pedagogical
PET Essentials Etraining
Ph 125 Quantum Mechanics
PH425: Spin and Quantum Measurement
Phase Matters Package
PhET Simulation: Band Structure
PhET Simulation: DavissonGermer: Electron Diffraction
PhET Simulation: Double Wells and Covalent Bonds
PhET Simulation: Fourier: Making Waves
PhET Simulation: Lasers
PhET Simulation: Neon Lights & Other Discharge Lamps
PhET Simulation: Nuclear Fission
PhET Simulation: Photoelectric Effect
PhET Simulation: Quantum Bound States
PhET Simulation: Quantum Tunneling and Wave Packets
PhET Simulation: Quantum Wave Interference
PhET Simulation: Semiconductors
PhET Simulation: Wave Interference
PhET Simulations: Quantum Phenomena
Phosphorescence
Photoelectric Effect Model
Photon Quantum Mechanics
Physics 219: Quantum Computation
Physics Suite Sample Problems: Modern Physics
Physics Virtual Bookshelf
Physlet Quantum Physics  Introduction
Physlet Quantum Physics  Special Relativity
Physlet Quantum Physics  The Need for a Quantum Theory
Physlets for Quantum Mechanics
Physlets Quantum Physics
PICUP
Point Group Symmetry
Probability Illustrator
QM Carpet Program
QM Energy Measurement Program
QM Measurement Package
QM Measurement Program
QM Momentum Carpet Program
QM Momentum Expectation Value Program
QM Momentum Measurement Program
QM Momentum Space Program
QM Position Expectation Value Program
QM Position Measurement Program
QM Probability Program
QM Superposition Program
QM Superposition Program Distribution
QM Wigner Program
Quantiki
Quantum Computation Lecture Notes
Quantum Information Science Workshop
Quantum Mechanical Models of Solids
Quantum Mechanical Scattering
Quantum Mechanics
Quantum Mechanics Conceptual Survey
Quantum mechanics for everyone: Handson activities integrated with technology
Quantum Mechanics Resource Packet
Quantum Mechanics Survey (QMS)
Quantum Mechanics Tutorials
Quantum Mechanics: AharonovBohm Effect
Quantum Mechanics: Identical Particles
Quantum Mechanics: Interference
Quantum Mechanics: Motion in a Potential
Quantum Mechanics: Rigid Rotator Applet
Quantum Mechanics: SternGerlach
Quantum Mechanics: Sum over paths
Quantum Mechanics: Tunneling
Quantum Motion
Quantum Optics and Quantum Information Laboratory
Quantum Physics made Relatively Simple: Three Lectures by Hans Bethe
Quantum Physics Online
Quantum Physics Online: Quantization in one dimension
Quantum Physics Online: Quantization in three dimensions
Quantum Physics Online: Quantum superposition in one dimension
Quantum Physics Online: Quantum superposition in two dimensions
Quantum Physics Online: Spin 1/2
Quantum Physics Online: Wave Mechanics
Quantum Physics: Introduction
Quantum TicTacToe
Quantum TicTacToe, SpookyCoins, & MagicEnvelopes, as Metaphors for Relativistic Quantum Physics
Quantum Tunneling
QuantumLab
QuILT
Quilt JS Package: Time Evolution of a Wave Function
QuVis: Noninteracting Particles in a 1D Infinite Square Well
QuVis: Symmetric Perturbation
QuVis: The University of St Andrews Quantum Mechanics Visualisation project
RCL  Remotely Controlled Laboratories
Resources Students Use to Understand Quantum Mechanical Operators
RSPT Expansion
Ruby Laser
SEI: Modern Physics  Course Structure and Quantum Learning Goals
SEI: Modern Physics Course Materials
SEI: Quantum Mechanics I Course Materials
Simple Harmonic Motion  Example
Single Slit Diffraction
Solutions Manual for Numerical Solutions to the Schrödinger Equation
Solutions to the Onedimensional Timeindependent Schrodinger Equation
Special Functions Model
Spectroscopy Lab Suite
Spherical Harmonics Y
_{LM}
Explorer
SPINS Java Homepage
Square Wells  Example
Student Difficulties in Understanding Probability in Quantum Mechanics
Student difficulties with determining expectation values in quantum mechanics
Student Difficulties with Energy in Quantum Mechanics
Student Difficulties with Quantum Mechanics Formalism
Student difficulties with quantum states while translating state vectors in Dirac notation to wave functions in position and momentum representations
Student difficulties with quantum uncertainty in the context of discrete probability distributions
Student difficulties with representations of quantum operators corresponding to observables
Student Difficulties with Wave Concepts
Student Understanding of Period in Introductory and Quantum Physics Courses
Student understanding of potential, wavefunctions and the Jacobian in hydrogen in graduatelevel quantum mechanics
Student Understanding of Superposition: Vectors and Wave Functions
Student understanding of the measurable effects of relative phases in superposition states
Students’ Understanding of Stern Gerlach Experiment
Symbolic Mathematics Documents for Physical Chemistry
Symmetry and Degeneracy
Teaching Physics: Figuring Out What Works
Teaching Qualitative Energyeigenfunction Shape with Physlets
Teaching Quantum Theory in the Introductory Course
The Basics of MRI
The Difference Between a Probability and a Probability Density
The double slit experiment and the collapse of the wavefunction
The end of the certain world: The life and science of Max Born
The Fermi Surface Database
The Influence of Student Understanding of Classical Physics When Learning Quantum Mechanics
The ManyWorlds Interpretation of Quantum Mechanics
The Nobel Prize in Physics 1943  Otto Stern
The Quantum Mechanics of Two and Three Dimensional NanoStructures
The SternGerlach Experiment
The Teaching of Quantum Mechanics
The Transactional Interpretation of Quantum Mechanics
The use of ACER to develop and analyze student responses to expectation value problems
Transfer of Learning in Quantum Mechanics
Transforming UpperDivision Quantum Mechanics: Learning Goals and Assessment
Tutorials in Physics: Quantum Mechanics
Tutorials on thinking about quantum entities
Two Dimensional Schrodinger Equation
Two Source Interference
Understanding How Students Learn
Understanding Probabilistic Interpretations of Physical Systems: A Prerequisite to Learning Quantum Physics
Using a ComputerRich Curriculum to Teach Quantum Mechanics
Vienna Center for Quantum Science and Technology
Visual Quantum Mechanics
Visual Quantum Mechanics
Visualizing Quantum Dynamics: Bloch Spheres and QFunctions
Visualizing Quantum Mechanical Revivals
Wave Function Sketcher
Wave Packet Explorer
Waves: An Interactive Tutorial
We Can Figure This Out Virtual Labs
Webbased Quantum Mechanics I Course
Webbased Quantum Mechanics II Course
Werner Heisenberg
Who needs to learn physics in the 21st century and why?
Why we should teach the Bohr model and how to teach it effectively
Wigner Quasiprobability Distribution for the Infinite Square Well: Energy Eigenstates and Timedependent Wave Packets
Witnessing Entanglement
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