Physics
Virtual Lab
Prijil Mathew
Module 1
Electricity and Magnetism
Electric Fields from Continuous Distributions
Line of Charge
Ring of Charge
Electric Field Lines
Electric Field Lines of a Point Charge
Electric Field Lines of a Dipole: Changing Viewpoint
Electric Field Lines of a Dipole: Changing Charge Seperation
Flux
Motion of a Charge in a Magentic Field
Charge in a Uniform B Field
Charge in a Uniform B Field II
Charge in a Toroidal B Field
Sources of Magnetic Fields
Magnetic Field of a Point Charge
dB for a Piece of a Line of Current
Integrating dB for a Line of Current
dB for a Piece of a Loop of Current
Integrating dB for a Loop of Current
B Field Lines in a Stack of Coils
Electron Guns
Electron Gun
Electron Gun with Defleting Plates
Electromagnetic Waves
Electromagnetic Plane Wave I
Electromagnetic Plane Wave II
Circularly Polarized Electromagnetic Wave
Electromagnetic Wave with Elliptical Polarization
Standing Electromagnetic Wave
Module 2
Mechanics
Projectile Motion
Aircraft Dropping a Bomb on Target
Galileo’sExperiment: Varying Height
Galileo’s Experiment: Varying Speed
Breaking Projectile Motion into Horisontal and Vertical Components
Kinematics
Kinematics in 1D
Kinematics in 1D: Car Chase Example
Galileo and Motion
Kinematics in 2D
Changes in Motion from Aerodynamic Forces
A Visual Effect of Relative Motion (Driving Through a Snowstorm)
Newton’s Laws
Creating Free Body Diagrams: An Example
Calculating the Components of Weight Relative to a Ramp
Energy
Converting Potential Energy to Kinetic Energy on a Frictionless Ramp
Converting Potential Energy to Kinetic Energy Rolling Down Various Ramps
Moment of Inertia and Converting Potential Energy to Kinetic Energy Rolling Down a Ramp
Circular Motion
Circular Motioncircular Motion and Centripetal Acceleration as a Limit
The Kinematics of Circular Motion
Circular Motion and Tension
Car on a Level Track
Car on a Banked Frictionless Track
Conical Pendulum
Lift and Weight Produce Circular motion in Banked Flight
Motion in a vertical Circle
Coasting Through a Vertical Loop (with Reaction Forces)
Medium Speed (Tension Remains Positive)
Tension When Tension Just Goes to Zero at the Top
Tension When a Mass Just Coasts Around a Vertical Circle
Car Coasting Through a Vertical Loop
Car Failing to Coast Through a Loop
Inertial Frames of Refernce
Motion on a Merry Go Round
Motion on a Merry Go Round I
Motion (multiple objects) on a Merry Go Round
Motion (multiple objects) on a Merry Go Round I
Coriolis Effect on the Surface of the Earth
Rotation of the Earth and the Foucault Pendulum
Gravitation
Cavendish experiment to determine G
Gyroscopes
Precession
Precession and Nutation
Precession I
Precession and Nutation I
Wobble
Oscillations
Tension in a Pendulum String for Large Oscillations
Tension in a Pendulum String for Medium Oscillations
Tension in a Pendulum String for Small Oscillations
Newton’s cradle
The Newton’s cradle is a device that demonstrates the conservation of momentum and the conservation of energy with swinging spheres. The device is named after 17th-century English scientist Sir Isaac Newton and designed by French scientist Edme Mariotte. It is also known as Newton’s pendulum, Newton’s balls, Newton’s rocker or executive ball clicker
When one sphere at the end is lifted and released, it strikes the stationary spheres, transmitting a force through the stationary spheres that pushes the last sphere upward. The last sphere swings back and strikes the nearly stationary spheres, repeating the effect in the opposite direction.
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