The Advanced Labs Library Materials

Total Materials: 248

• LCphysX: Teaching Undergraduate Physics Majors Multi- Media Science Communication Skills for Public Outreach
• 2009 Topical Conference on Advanced Laboratories
• 2012 BFY Conference, W20: Frontiers in Contemporary Physics Education - Gold Nanoparticle Photoabsorption Lab Experiment & Handouts
• 2015 AAPT-ALPhA Award - Mechanical Chaotic Oscillator
• 2015 BFY Proceedings
• 2016 AAPT-ALPhA Award - The Hong-Ou-Mandel Effect
• 2016 AAPT-ALPhA Award Lab Manual
• 2018 BFY Proceedings
• 2018 BFY Proceedings
• 532 nm Laser Lab
• A Differential Thermal Analysis Apparatus for Exploring the Glass Transition
• A Lab for Exploring the Precession and Nutation of a Gyroscope
• A Lab to Detect Radio Pulsars Using a Remotely Accessed 18-Meter Radiotelescope
• A mechanical analog of nuclear magnetic resonance
• A multi-functional apparatus for alpha and beta spectroscopy utilizing a permanent ring-magnet beta spectrometer
• A multi-purpose apparatus for alpha and beta spectroscopy
• A New Sequence of Advanced Laboratory Courses at the University of Wisconsin Oshkosh
• A Peer Review Writing Workshop in the Advanced Lab
• A simple, inexpensive Langmuir Probe Experiment
• A Spectral Analysis of Laser Induced Fluorescence of Diatomic Iodine
• A summary of research-based assessment of students' beliefs about the nature of experimental physics
• AAPT Advanced Laboratory Task Force Final Report
• Acid Strong Base Titrations JS Model
• Acid Strong Base Titrations Model
• Active learning in intermediate optics through class tutorials and concept building laboratories
• Adiabatic Processes
• Advanced Lab Listserv
• Advanced Labs
• AJP Guest Editorial: What happened to the Advanced Lab?
• An Arduino-Based Alternative to the Traditional Electronics Laboratory
• An Examination of Quantized Conductance in Nanowires
• An Intensive Short Course on Atomic-Force Microscopy
• An Introduction to Atomic Force Microscopy
• An Introduction to the Lock-In Amplifier and a Mie Scattering Experiment
• An Introduction to the Lock-In Amplifier and a Mie Scattering Experiment
• An Optics Laboratory Module on Image Formation, Aberrations, and Lens Design
• An undergraduate laboratory experiment on quantized conductance in nanocontacts
• Angular Correlation of Gammas
• Assessing modeling in the lab: Uncertainty and measurement
• Background on Cell Motion
• Band Structure and Electrical Conductivity in Semiconductors
• Beyond Diffraction: Extending Labs for Student Autonomy
• Blackbody Radiation and the Solar Photosphere Temperature
• Boltzmann Machine Model
• Boston University Physics Labs: Graphical Analysis
• Brownian Motion
• BYU Optics Education
• CAEN Educational: Nuclear and Particle Physics Experiments
• Case Study on How to Develop 3D Labs with Theoretical, Experimental, and Computational Goals
• Chaos - Chaotic Pendulum Experiment
• Chaos and Non-Linear Physics
• Chaotic Electric Circuit Explorer
• Comparing Electronic and Traditional Lab Notebooks in the Advanced Lab
• Compton Scattering
• Compton Scattering of Cs-137 Gamma Rays
• Cosmic Ray Statistics using LabVIEW
• Counting Statistics
• Creating, implementing, and sustaining an advanced optical spectroscopy laboratory course
• Curricular resources for writing in physics research course sequence
• Data Tool JS
• DeskCATTM: a multi-slice optical scanner for teaching CT and SPECT imaging physics
• Determining the index of refraction using the Pfundt method
• Developing skills versus reinforcing concepts in physics labs: Insight from a survey of students’ beliefs about experimental physics
• Deybe-Sears Effect
• Differential X-Ray Absorption JS Model
• Differential X-Ray Absorption Model
• DNA electrophoresis
• Doppler Free Laser Spectroscopy
• Doppler-free Laser Spectroscopy
• Double Pendulum Tracker Experiment
• Dynamic Light Scattering
• Dynamics of a Sliding Ladder using Tracker
• Effectiveness of flipped classroom techniques in an advanced laboratory physics course
• Ejs Lagrange Top Model
• EJS Measurements with Phidgets: Solar Collector
• Electron Paramagnetic Resonance
• Electron Spin Resonance
• Experiment on diffusion in aqueous solutions
• Experimenting from a Distance: Remote Controlled Lab experiments for teaching Physics at High-school
• Exploring the Rotating Reference Frame in Off-Resonance Pulsed NMR
• Faraday Optical Rotation
• Faraday's Effect
• Fluorescence Correlation Spectroscopy
• Fluorescence Correlation Spectroscopy
• Fluorescence Correlation Spectroscopy (FCS) module for advanced undergraduate laboratories
• Forked diffraction pattern
• Fourier Transform Spectroscopy in the Visible Range
• From a Low Cost Spectrograph to a High Resolution Spectrograph
• Gamma Cross Sections
• Gamma Spectroscopy
• Getting Started with Tracker Tutorial
• Granular Materials
• Graphical Approach to Multi-slit Interference Analysis
• Hall Effect
• Heat Capacity
• Heat-Flow System Control Model
• Helium Spectrum Analysis
• High Tc Superconductors
• Holographic Real-Time Imaging of Standing Waves in Gases
• Holography
• Hydrogen Spectrum, Mass of the Deuteron
• I suddenly have to move my lab course online!
• I2 spectroscopy with diode laser & HeNe linewidth measurement
• Ideal Gas Laws
• Improvement or selection? A longitudinal analysis of students’ views about experimental physics in their lab courses
• Improving Students' Understanding of Lock-In Amplifiers
• Infra-red Absorption in Semi-conductors
• Integrating Commercial Solar Panels in the Physics Curriculum
• Interferometric Faraday effect magnetic field measurements
• Interferometric Faraday effect magnetic field measurements
• Interferometric Faraday effect magnetic field measurements
• Introducing Students to Nonlinear Model Fitting with Jupyter Notebooks Through a Quantitative Diffraction Experiment
• Introducing students to single photon detection with a reverse-biased LED in avalanche mode
• Investigating student ownership of projects in an upper-division physics lab course
• Investigation Of The Bragg-Snell Law In Photonic Crystals
• Investigation of Vortex Light Produced by Diffraction Gratings
• Javaoptics Package
• Johnson Noise and Shot Noise
• Johnson NoiseCircuit Update
• JOptics
• Laser Cooling and Trapping
• Laser spectroscopy and a home-built laser diode
• Lebow Company - A commercial source for specialty filters, thin films, and ultrathin foils
• LEDP - Laboratory Equipment Donation Program
• Lessons Learned from Five Years of Student Self-directed Experimental Projects in the Advanced Lab
• Light Intensity, Blackbody Radiation and the Stefan-Boltzmann Law.
• Lighting the Fire
• Limits of Precision in the Balmer Lines Spectroscopy Lab
• Lock-in Amplifier Tutorial
• Low-Cost Capacitance Profiling of a Semiconductor
• Low-Cost Coincidence Counting Apparatus For Single Photon Optics Investigations
• Maker Lab course materials
• Maxima: A Computer Algebra System
• Michelson Interferometry
• Micro-ESR As A Laboratory Teaching Tool
• Micropipette Calibrations
• Microscopy and Cell Motility
• Millikan Oil Drop Experiment JS
• MIT: Experimental Physics I & II
• Modern Undergraduate Quantum Mechanics Experiments
• Molecular Imaging PicoSubstrates
• Mössbauer Effect
• Motor Control with Phidgets
• Multimode fiber optics
• Multiple Slit Diffraction Model
• Muon Decay Experiment
• Muon Experiment
• Nanotubes
• Nonlinear Dynamics on the Cheap in the Junior Laboratory
• Normal Modes
• Nuclear Magnetic Resonance and Magnetic Field Measurements
• NuDat (Nuclear Structure and Decay Data)
• Observation of the Cosmic Microwave Background
• On Being a Scientist: A Guide to Responsible Conduct in Research
• Open-ended versus guided laboratory activities: Impact on students’ beliefs about experimental physics
• Optical Faraday Rotation AJP Article
• Optical Trapping
• Optical Tweezer
• Optical Tweezers
• Optics CCLI Project: Improving Conceptual Understanding and Complex Problem Solving Skills in Intermediate Optics
• Optics using matrix representation
• Ortec: AN34 Experiment 1 - Basic ID in Electronic Measurement Systems
• Ortec: AN34 Experiment 2 - Geiger Counting
• Ortec: AN34 Experiment 3 - Gamma-Ray Spectroscopy Using NaI(Tl)
• Ortec: AN34 Supplement - NIM and CAMAC Electronics Standards and Definitions
• Oscillations Experiments and Tutorials for Classical Mechanics
• Oscillations Experiments for Classical Mechanics
• Paraxial ray optics cloaking
• Particle Physics with Low Cost SiPM Based Detectors
• PhET: Physics Education Technology
• Photoelectric Effect Model
• Photon Quantum Mechanics
• Physics for the 21st Century
• Physics of Light and Optics
• PhysPort: Research-Based Assessments
• Polarization Studies of 3D Photonic Crystals Using Transmission and Reflection Experiments
• Portland State Biomedical Physics: Computed Tomography
• Precision Roller
• Preparing DNA or microtubule AFM samples
• Primer on the Lock-in Amplifier
• Qualitative investigation of students’ views about experimental physics
• Quantifying critical thinking: Development and validation of the physics lab inventory of critical thinking
• Quantum Optics and Quantum Information Laboratory
• Quantum Oscillations
• QuantumLab
• QuVis: Density Matrices for a Two-Level Spin System
• QuVis: The University of St Andrews Quantum Mechanics Visualisation project
• Ratio of Specific Heats of Gases
• RCL - Remotely Controlled Laboratories
• Research-Based Assessment of Students’ Beliefs about Experimental Physics: When is Gender a Factor?
• Rocking Semicircular Hoop Model
• Saving and Sharing Tracker Experiments Tutorial
• Savitsky-Golay Filters
• Screening Electric Fields using a Tube of Water: The Transition from Conductive to Dielectric Screening
• SEI: Advanced Laboratory Course Materials
• Sequential Introduction of Data Analysis Methods in the Modern Lab
• Servo Motor Position and Velocity Control Model
• Simple undergraduate lab experiment showing the quantized conductance of nanocontacts
• Special Functions Model
• Spectroscopy and Light Scattering
• Spin Noise Spectroscopy in Rb Vapor
• Spin Noise Spectroscopy in Rb Vapor
• Statistical Analysis of Data
• Stern-Gerlach Filters That Select Spin-up Electrons
• Students' and Instructor's Impressions of Ill-structured Capstone Projects in an Advanced Electronics Lab
• Students’ epistemologies about experimental physics: Validating the Colorado Learning Attitudes about Science Survey for experimental physics
• Students’ views about the nature of experimental physics
• Studying Phase Transition With a Strain Gage
• Superconducting Quantum Interference Devices (SQUIDs)
• Surface Plasmon Resonance Laboratory
• Surface Plasmons
• Swinging Atwood's Machine Model
• Synthesis and Ferroelectric Properties of KNO3 Films
• Teaching the concepts of measurement: An example of a concept-based laboratory course
• Technical Competencies – A Versatile Framework for Learning Practical Knowledge
• Temperature Dependent Lifetime Measurements of Fluorescence from a Phosphor
• Temperature Measurement with Phidgets
• Temperature oscillations in a metal: Probing aspects of Fourier analysis
• The Digital MultiMeter
• The Magnetic Pendulum
• The Thermographic Phosphor Labkit
• Think First, Act Later - A Course Structure for Improving Student Designed Experiments
• Tracker Video Analysis and Modeling JS
• Tracker Video Modeling with Spreadsheets
• Tracking Brownian motion through video microscopy
• Transforming the advanced lab: Part I - Learning goals
• Transient Heat Conduction
• Transmission Lines
• Tunneling in Thin-film Superconductors
• Tutorials on thinking about quantum entities
• Uncertainties in Measurements
• Uncertainty Propagation in Modern Physics Lab
• Undergraduate Advanced Laboratory Studies on Supersonic Nozzle Flow
• Using Digilent’s Basys3 FPGA board with LabVIEW for single-photon counting
• Using Split-Ring Resonators to Measure Complex Permittivity and Permeability
• Using XBee Radios for Wireless Acceleration Measurements
• Verilog Programming Exercises
• Vernier Caliper Model
• W20: Frontiers in Contemporary Physics Education - The Pedagogy
• Wave optics and interferometry
• Witnessing Entanglement
• X-ray Diffraction
• X-ray Diffraction Manual
• X-Ray Fluorescence (XRF) spectrometry for materials analysis and discovering "the atomic number"
• X-Ray Imaging JS Model
• X-Ray Imaging Model
• X-Ray Spectrum JS Model
• X-Ray Spectrum Model