Vibrations on a String and Resonance
|
1.9 |
waves and oscillations |
Flux and rate of change of flux with a Hall sensor and solenoids
This experiment is an upgrade to 1.8 |
1.8B |
electricity, electromagnetism, magnetism |
Electromagnetic Induction and Working of Read-Write Operations in Magnetic Media
|
1.8 |
electromagnetism, magnetism |
Latent Heat of Vaporization of Liquid Nitrogen with a Load Sensor
This experiment is an upgrade to 1.7 |
1.7B |
thermal |
Latent Heat of Vaporization of Liquid Nitrogen and Specific Heats of Metals
|
1.7 |
thermal |
Data analysis with capacitor
|
1.6A |
electronics |
Data Acquisition and Filter Design
|
1.6 |
electronics |
Optical Activity of the Chiral Solutions
This experiment is replaced by 1.22 |
1.5 |
optics |
Magnetic Phase Transitions of a Ferromagnetic Alloy
|
1.4 |
magnetism |
How do objects heat and cool? Comparing natural and forced convection
This experiment is an upgrade to 1.3 |
1.3B |
heat, thermal physics |
Electricity from the Heart
|
1.33 |
biophysics, physiology |
Arterial oscillations in blood pressure measurement
|
1.32 |
biophysics, fluid mechanics, physiology |
The Physics of Stacking
|
1.31 |
mathematics, mechanics |
Analyzing reciprocating motion: The geometry of physics
|
1.30 |
mechanics |
Heat Transfer and Newton’s Law of Cooling
|
1.3 |
thermal |
Craters in Sand (with a Magnetic Catcher)
|
1.2D |
mechanics, uncertainty analysis |
Craters in Sand
|
1.2B |
uncertainty analysis |
Moment of Inertia of a Tennis Ball
|
1.2A |
mechanics |
Quantitative verification of Faraday’s law of electromagnetic induction with PhysLogger
This experiment is an upgrade to 1.28 |
1.28B |
|
Quantitative verification of Faraday’s law of electromagnetic induction
|
1.28 |
electricity, electricity and magnetism, magnetism |
Conical Swing of a Pendulum and Centripetal Forces
|
1.27 |
mechanics |
Experiments with a linear air track
|
1.26 |
mechanics |
Rotational mechanics with a photogate
|
1.25 |
mechanics |
Measuring earth’s magnetic field from deflection of a compass needle (without hall probe)
This experiment is a modified version of 1.23. |
1.23 A |
compass, deflection, earth magnetic field, magnetism |
Measuring earth’s magnetic field from the detection of a compass needle
|
1.23 |
electricity and magnetism, electromagnetism, magnetism |
Light is a transverse wave
|
1.22 |
optics |
When are two measurements “same” or “different”? Example of conical shaped pendulums
|
1.21 |
measurements, mechanics |
Measuring the Surface Tension of Water using the Pendant Drop Method
|
1.20 |
fluids |
Rotational Dynamics, Moment of Inertia, Torque and Rotational Friction
|
1.2 |
mechanics |
A Doubly Suspended Pendulum
|
1.19 |
mechanics |
Dynamics of water discharge using Physlogger
This experiment is similar to 1.18, though it uses Physload and Physlogger made by Qosain Scientific. |
1.18B |
fluid mechanics, mechanics |
Dynamics of Water Discharge from a Cylinder
|
1.18 |
fluids |
Verifying Gas laws and thermodynamics of a heat engine with PhysLogger
This experiment is an upgrade of 1.17 |
1.17B |
|
Verification of Gas Laws
|
1.17 |
thermal |
Energy Conservation in Two Dimensions
|
1.16 |
energy, mechanics |
Imaging Electron Trajectories: e/m Measurement with a Magic Eye and ImageJ
|
1.15 |
atomic |
Verification of de Broglie’s hypothesis by Electron Diffraction from Graphite
|
1.14 |
atomic, modern |
Electron Energy Loss Investigation through the Nobel Prize Winning Franck-Hertz Experiment
|
1.13 |
atomic, modern, quantum |
Observing Hall Effect in Semiconductors
|
1.12 |
magnetism, semiconductor physics |
Measurement of Planck’s constant using a light bulb
|
1.11 |
modern physics, optics, thermal |
Natural Radioactivity and Statistics
|
1.10 |
radioactivity, statistics |
Simple Harmonic Motion is Observed through Webcam
|
1.1 |
waves and oscillations |
