Instructional Video19:07
Schooling Online

Physics Kinematics: Motion in a Straight Line - Equations of Motion Part 1

3rd - Higher Ed
Deep underground, Carmen and Alexandra ‘Lexi’ Luthor perform a top-secret science experiment. Will they unlock the power to rival Vector Man? This lesson will perform calculations using the equations of motion for uniform acceleration....
Instructional Video2:50
Virtually Passed

curvilinear motion intuition

Higher Ed
The development of the n - t coordinate system paved the way for circular motion formulas and polar equations of motion formulas. In a nutshell, t is the direction tangential to your path and n is the direction towards the inside of your...
Instructional Video3:39
Curated Video

Deep Learning CNN Convolutional Neural Networks with Python - Convergence Animation

Higher Ed
This video explores convergence animation. This clip is from the chapter "Deep Neural Network Overview" of the series "Deep Learning CNN: Convolutional Neural Networks with Python".This section focuses on the overview of the deep neural...
Instructional Video2:56
Flipping Physics

Experimentally Graphing the Force of Friction

12th - Higher Ed
To help understand the force of friction, mr.p pulls on a wooden block using a force sensor.
Instructional Video6:03
msvgo

Acceleration

K - 12th
This nugget explains about the acceleration,average acceleration and its SI units, veloocty-time graph and time-velocity graph.
Instructional Video13:28
Virtually Passed

Relative Motion with rotating reference axes Example (part 2)

Higher Ed
To solve for the acceleration of a point A moving relative to an object that is rotating then we can use the relative velocity (for rotating reference frames) equation: Aa = Ab + Arel + Ap/b + 2 w x Vrel
Instructional Video5:45
Flipping Physics

Demonstrating the Directions of Tangential Velocity and Acceleration

12th - Higher Ed
The best way to understand how tangential velocity and tangential acceleration are related is to visualize from above. Will you look at that! This video does exactly that.
Instructional Video11:23
Flipping Physics

Average and Instantaneous Power Example

12th - Higher Ed
An 8.53 kg pumpkin is dropped from a height of 8.91 m. What is the power delivered by the force of gravity (a) over the whole displacement of the pumpkin, (b) right after the pumpkin is dropped and (c) right before the pumpkin strikes...
Instructional Video9:24
Flipping Physics

(part 1 of 2) An Introductory Projectile Motion Problem with an Initial Horizontal Velocity

12th - Higher Ed
Can you drop a ball from a moving vehicle and get it to land in a bucket? You can using Physics! In this video we solve an introductory projectile motion problem involving an initial horizontal velocity and predict how far in front of...
Instructional Video5:55
Flipping Physics

AP Physics 1: Linear Momentum and Impulse Review

12th - Higher Ed
Review of the topics of Linear Momentum and Impulse covered in the AP Physics 1 curriculum.
Instructional Video9:38
Schooling Online

Physics Introduction to Statics and Dynamics: Forces and Newton's Laws - Inertia

3rd - 12th
Although the impromptu surgery was a success, Shannon is taken to the hospital. This lesson will define inertia and apply Newton’s Law of Inertia. Definitions included: inertia Misconceptions included: inertia is a force, objects only...
Instructional Video5:16
Flipping Physics

Reviewing One Dimensional Motion with the Table of Friends

12th - Higher Ed
We get to start our Table of Friends today. Dimensions are your friends and there are so many dimensions to keep track of, so we create our Table of Friends to help us keep track of them. Today's friends have to do with One Dimensional...
Instructional Video9:32
Flipping Physics

Nerd-A-Pult #2 using Unit Vectors

12th - Higher Ed
Solving an intermediate projectile motion problem using unit vectors. Also culling information from the quadratic formula.
Instructional Video1:20
Virtually Passed

Relative acceleration of rigid links summary

Higher Ed
Relative acceleration of rigid links summary
Instructional Video13:47
Flipping Physics

2 Masses on a Pulley - Torque Demonstration

12th - Higher Ed
0.100 kg and 0.200 kg masses hang from either side of a frictionless #Pulley with a rotational inertia of 0.0137 kg·m^2 and radius of 0.0385 m. (a) What is the #AngularAcceleration of the pulley? (b) What is the #TensionForce in each...
Instructional Video8:59
Flipping Physics

An Introductory Tension Force Problem

12th - Higher Ed
Learn how to solve a basic tension force problem with demonstration!
Instructional Video4:07
Flipping Physics

Dropping Dictionaries Doesn't Defy Gravity, Duh!

12th - Higher Ed
Video Proof of the Mass Independence of the Acceleration due to Gravity and a little dancing.
Instructional Video21:30
Schooling Online

Physics Kinematics: Motion in a Straight Line - Acceleration

3rd - Higher Ed
With Pilot Mitchell’s help, Lotus Lang continues hunting for clues. Will she strike gold and pick up the lost trail? This lesson will lay the foundations for understanding acceleration and its close relationship with velocity....
Instructional Video1:56
Science360

Water hammer

12th - Higher Ed
Using the power of air pressure to blow out the bottom of a bottle. Parts needed: 1 glass bottle, 1 rubber hammer.
Instructional Video12:33
Flipping Physics

Effects of Drag Force on Free Fall

12th - Higher Ed
The proportionality constant drag force equation is introduced. The acceleration of the ball for its entire path is discussed. Terminal velocity is derived. The time going up vs. time going down is determined and demonstrated. The...
Instructional Video13:19
Flipping Physics

Indefinite Integral Introduction and 4 Kinematic (UAM) Equation Derivations

12th - Higher Ed
The indefinite integral is defined and used to derive 4 kinematic or uniformly accelerated motion equations. Want Lecture Notes? https://www.flippingphysics.com/kinematic-equation-derivations.html This is an AP Physics C: Mechanics topic.
Instructional Video16:11
Virtually Passed

Rectilinear motion example problem

Higher Ed
This video covers a very challenging rectilinear motion problem. Every problem you're going to face (excluding circular motion) will only require you using two formulas; dx/dt = V and dV/dt = a. All other formulas can be derived from...
Instructional Video8:50
Flipping Physics

Simple Harmonic Motion - Graphs of Position, Velocity, and Acceleration

12th - Higher Ed
Position, velocity, and acceleration as a function of time graphs for an object in simple harmonic motion are shown and demonstrated.