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 computer-simulated 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
• Clebsch-o-matic
• 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 two-tier questionnaire on basic aspects in quantum mechanics
• Determining Plank's Constant with LEDs
• Developing a quantum mechanics concept inventory
• Developing and Assessing Research-Based Tools for Teaching Quantum Mechanics and Thermodynamics
• Developing and evaluating a tutorial on the double-slit experiment
• Developing and evaluating an interactive tutorial on degenerate perturbation theory
• Developing and Evaluating Research-Based 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 Wave-Particle 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 spins-first and position-first quantum mechanics
• Enhancing student learning of two-level 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 Relative-State 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 High-school
• 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 face-to-face 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 research-based 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 Just-in-Time 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 Wave-Like Properties of Light and Matter
• KSU Virtual Quantum Mechanics: Single Slit Diffraction
• Laboratory-tutorial activities for teaching probability
• Laser Adventure
• Lectures on Quantum Computation
• LED Constructor
• LED Spectroscopy
• Light and Waves
• Low-Cost Coincidence Counting Apparatus For Single Photon Optics Investigations
• Magnetic Resonance of Spin One-Half 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 Meta-Resources 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
• OSP-based Programs for Quantum Mechanics: Time Evolution and ISW Revivals
• OSP: Quantum-mechanical 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
• PER-Based Tutorials for Quantum Physics
• Perspectives in Quantum Physics: Epistemological, Ontological and Pedagogical
• PET Essentials E-training
• Ph 125 Quantum Mechanics
• PH425: Spin and Quantum Measurement
• Phase Matters Package
• PhET Simulation: Band Structure
• PhET Simulation: Davisson-Germer: 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: Hands-on activities integrated with technology
• Quantum Mechanics Resource Packet
• Quantum Mechanics Survey (QMS)
• Quantum Mechanics Tutorials
• Quantum Mechanics: Aharonov-Bohm Effect
• Quantum Mechanics: Identical Particles
• Quantum Mechanics: Interference
• Quantum Mechanics: Motion in a Potential
• Quantum Mechanics: Rigid Rotator Applet
• Quantum Mechanics: Stern-Gerlach
• 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 Tic-Tac-Toe
• Quantum Tic-Tac-Toe, Spooky-Coins, & Magic-Envelopes, as Metaphors for Relativistic Quantum Physics
• Quantum Tunneling
• QuantumLab
• QuILT
• Quilt JS Package: Time Evolution of a Wave Function
• QuVis: Non-interacting 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 One-dimensional Time-independent 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 graduate-level 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 Energy-eigenfunction 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 Many-Worlds Interpretation of Quantum Mechanics
• The Nobel Prize in Physics 1943 - Otto Stern
• The Quantum Mechanics of Two and Three Dimensional Nano-Structures
• The Stern-Gerlach 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 Upper-Division 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 Computer-Rich Curriculum to Teach Quantum Mechanics
• Vienna Center for Quantum Science and Technology
• Visual Quantum Mechanics
• Visual Quantum Mechanics
• Visualizing Quantum Dynamics: Bloch Spheres and Q-Functions
• Visualizing Quantum Mechanical Revivals
• Wave Function Sketcher
• Wave Packet Explorer
• Waves: An Interactive Tutorial
• We Can Figure This Out Virtual Labs
• Web-based Quantum Mechanics I Course
• Web-based 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 Quasi-probability Distribution for the Infinite Square Well: Energy Eigenstates and Time-dependent Wave Packets
• Witnessing Entanglement