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Flipping Physics
The Derivative and Uniformly Accelerated Motion Equations
Alternate Uniformly Accelerated Motion (UAM) equations are introduced. The derivative is used to derive one UAM equations from another UAM equation.
Flipping Physics
Longitudinal Standing Waves Demonstration
Standing longitudinal waves are demonstrated and compared to an animation to help with understanding what the heck is going on.
Flipping Physics
Electric Potential - Review for AP Physics C: Electricity and Magnetism
AP Physics C: Electricity and Magnetism review of Electric Potential including: derivation of electric potential energy, derivation of electric potential and electric potential difference, a discussion of the electronvolt, electric...
Flipping Physics
Deriving Escape Velocity of Planet Earth
Escape velocity is defined and illustrated. The escape velocity of planet Earth is derived.
Flipping Physics
How the Force of Tension on a Pulley Changes with Acceleration
We predict and measure the force of tension acting on a pulley while the system is at rest and accelerating.
Flipping Physics
Introduction to Elastic and Inelastic Collisions
Learn about Elastic, Inelastic and Perfectly Inelastic collisions via a demonstration
Flipping Physics
Wind Instrument Frequencies
The equations for the harmonic frequencies of open and closed pipe wind instruments are derived. An animation of a longitudinal standing wave pattern in a closed pipe is shown. Displacement and pressure nodes and antinodes are shown.
Flipping Physics
How Is This Standing Wave Possible?
When standing waves are allowed at 15, 30, and 45 hertz on a string, then we should not see a standing wave pattern at 22 hertz. Yet, we do in this demonstration. This explains why.
Flipping Physics
Standing Waves Introduction
Reflection with and without inversion caused by fixed and free ends are demonstrated. Standing wave patterns at 5 different frequencies are demonstrated. A standing wave animation is shown to understand to how standing wave patterns are...
Flipping Physics
Introduction to Circular Motion and Arc Length
Cartesian and polar coordinates are introduced and how to switch from one to the other is derived. The concept of angular displacement and arc length are demonstrated. Circumference is shown to be an arc length.
Flipping Physics
Introductory Uniformly Angularly Accelerated Motion Problem - A CD Player
What is the angular acceleration of a compact disc that turns through 3.25 revolutions while it uniformly slows to a stop in 2.27 seconds?
Flipping Physics
Nonuniform Circular Motion - Ball in a Vertical Circle
Analyzing the velocities, accelerations, forces, and nonuniform circular motion of a ball on a string moving in a vertical circle. Want Lecture Notes?
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Flipping Physics
Inductance - Review for AP Physics C: Electricity and Magnetism
AP Physics C: Electricity and Magnetism review inductance, inductors, and self-inductance. The equation for the inductance of an ideal solenoid is derived. The differences between resistance, resistors, resistivity, inductance,...
Flipping Physics
Introductory Arc Length Problem - Gum on a Bike Tire
How far does a piece of gum stuck to the outside of a 67 cm diameter wheel travel while the wheel rotates through 149°? A conversion from revolutions to degrees is performed.
Flipping Physics
Proving and Explaining Impulse Approximation
Know when and how to use the “Impulse Approximation”.
Flipping Physics
Biot-Savart and Ampere's Laws - Review for AP Physics C: Electricity and Magnetism
AP Physics C: Electricity and Magnetism review of magnetic fields including: the basics of magnetic dipoles, ferromagnetic and paramagnetic materials, the Earth’s B field, magnetic permeability, the magnetic force on a moving charge, the...
Flipping Physics
Gravitational Field Introduction
The gravitational field is introduced and illustrated. For a constant field and a non-constant field around a spherical object.
Flipping Physics
Simple Harmonic Motion - Velocity and Acceleration Equation Derivations
Deriving the velocity and acceleration equations for an object in simple harmonic motion. Uses calculus.
Flipping Physics
Integral Introduction via Work
The definite integral is defined using work. Several simple math examples are worked through. 3 different examples determining area “under” curve are solved. The positive and negative value of area “under” a curve is demonstrated. Want...
Flipping Physics
Demonstrating Beat Frequency - A Video Project by Bo
Bo teaches us about beat frequency. You get to hear what beats sound like, see the constructive and destructive interference wave forms, and learn a practical application of beats while tuning a guitar.
Flipping Physics
Are Linear and Angular Momentum Conserved for a Satellite?
When a satellite is moving along an elliptical orbit, are linear momentum and angular momentum of the satellite conserved?
Flipping Physics
Comparing Simple Harmonic Motion to Circular Motion - Demonstration
Demonstrating that Circular Motion, when viewed from the side, is Simple Harmonic Motion.
Flipping Physics
Apparent Weightlessness Introduction
Learn why astronauts in the International Space Station appear to have no weight.
Flipping Physics
Which Will Be First? (Rolling Down an Incline)
A hollow sphere, solid sphere, and thin hoop are simultaneously released from rest at the top of an #incline. Which will reach the bottom first? Assume all objects are of uniform density. #RollingWithoutSlipping