Instructional Video8:27
Curated Video

How Satellite Energy and Speed Depend on Orbit Radius

12th - Higher Ed
Explore how a satellite’s kinetic and potential energy change as it orbits Earth—yet its total mechanical energy stays constant. Learn why speed depends solely on orbital radius, why mass doesn’t matter, and how all this ties into...
Instructional Video3:09
Curated Video

How to Calculate Escape Speed: Derivation of Escape Velocity Formula

12th - Higher Ed
Explore the concept of escape velocity with Zog, an alien explorer, as he navigates the gravitational challenges of Planet Xyronis. This engaging story teaches about kinetic energy, gravitational potential energy, and the formula for...
Instructional Video13:59
Flipping Physics

AP Physics 1 Unit 7 Review: Oscillations

12th - Higher Ed
Master Unit 7 Oscillations for AP Physics 1 with this comprehensive review! Dive into the concepts of periodic motion and simple harmonic motion (SHM) as we explore mass-spring systems, pendulums, and energy transformations in SHM....
Instructional Video3:15
Curated Video

Understanding Rotational Kinetic Energy Storage

12th - Higher Ed
This video explains the concept of rotational kinetic energy stored in a flywheel, demonstrating its application in vehicles like trucks for efficient energy usage
Instructional Video3:26
Curated Video

Work Done by Tension: Pulling a Cart Up an Incline with a Pulley

12th - Higher Ed
This physics problem demonstrates how to calculate the work done by the tension force as a cart is pulled up an incline using a rope and pulley system. It covers concepts of work, tension, and inclined planes.
Instructional Video8:20
Curated Video

Kinetic Energy on a Roll:Torque’s Role in Rotation

12th - Higher Ed
This lesson explores the relationship between work done by torque and a body's rotational kinetic energy. It covers the application of the work-kinetic energy theorem for rotating bodies, explains how to calculate work done by constant...
Instructional Video3:11
Curated Video

Physics Problem: Work-Energy Theorem for a Bullet Entering a Block

12th - Higher Ed
This video solves a classic physics problem using the Work-Energy Theorem, demonstrating how to calculate the force exerted on a bullet as it penetrates a block and the additional distance it travels before stopping.
Instructional Video3:58
Curated Video

Forces on a Body Lifted: Analyzing Work & Energy in a Rescue Scenario

12th - Higher Ed
This video analyzes the forces and work done on a person being lifted from a cliff, breaking down the process into different stages of motion. Learn how to apply physics principles to understand a real-world rescue
Instructional Video4:24
Curated Video

Force and Work Done on a Box: Work-Energy Theorem Application

12th - Higher Ed
Learn how to calculate force, work done, kinetic energy, and speed of a box being lowered. This video applies the Work-Energy Theorem to a real-world physics problem, ideal for understanding energy transformations.
Instructional Video6:16
Curated Video

Physics Problem: Collision and Rotational Swing of a Rod-Block System

12th - Higher Ed
This content walks through a multi-step physics problem involving a block sliding down a frictionless surface and undergoing an inelastic collision with a pivoted rod, causing the combined system to swing upwards. It demonstrates the...
Instructional Video4:18
Curated Video

Work Done by Forces and Change in Kinetic Energy: Physics Problem Solved

12th - Higher Ed
This video demonstrates how to calculate the net work done on an object by multiple forces and explains its relationship to the change in kinetic energy. It walks through a solved physics problem, ideal for understanding work-energy...
Instructional Video4:25
Curated Video

Energy Conservation Principle: Mass on a Table with a Spring and Pulley

12th - Higher Ed
This video illustrates the energy conservation principle by solving a physics problem involving a mass connected to a spring on a table, which then pulls a hanging mass via a pulley. It demonstrates how to calculate the speed of the mass...
Instructional Video3:50
Curated Video

Principle of Conservation of Energy: Solving for Projectile Motion

12th - Higher Ed
This video demonstrates the principle of conservation of energy by solving a physics problem that determines the velocity of a ball at two different points during its projectile motion. It illustrates how mechanical energy remains...
Instructional Video2:56
Curated Video

Conservation of Energy Principle: Solving for Motion in a Roller Coaster Track

12th - Higher Ed
This video explains the principle of conservation of energy by solving a problem involving a block moving on a frictionless U-shaped track. It demonstrates how potential and kinetic energy transform, allowing you to calculate the block's...
Instructional Video4:30
Curated Video

Work Done by Spring Force: Launching a Coin Horizontally

12th - Higher Ed
This video solves a physics problem calculating the work done by a spring force as it launches a coin horizontally, determining the initial speed of the coin. It's a great example for understanding spring potential energy and its...
Instructional Video4:46
Curated Video

Work Done by Spring Force: Grade 11 Physics Problem on Inclined Plane

12th - Higher Ed
This video provides a detailed solution to a Grade 11 physics problem involving the work done by a spring force on a box on an inclined plane. It explains how to calculate the work done by the spring as the box moves and the concept of...
Instructional Video3:21
Curated Video

Kinetic and Potential Energy of a Ball: A Pendulum Problem

12th - Higher Ed
This video solves a physics problem calculating the change in potential and kinetic energy of a ball attached to a string as it swings down from a horizontal position, passing through a peg. It demonstrates energy conservation principles...
Instructional Video4:39
Curated Video

Work Done by a Force on a Spring: Finding Spring Constant & Potential Energy

12th - Higher Ed
This video walks through a physics problem to determine the spring constant of a spring and the potential energy stored when it is compressed by a falling object. It demonstrates calculations related to spring forces and energy.
Instructional Video11:01
Curated Video

How Can We Prove a Force is Conservative? (Conservative vs Non Conservative Force)

12th - Higher Ed
Understand what makes a force conservative or non-conservative through four clear conditions. Learn how path independence and energy conservation define forces like gravity and contrast with forces like friction.
Instructional Video7:09
Curated Video

Why Potential Energy is Negative of Work Done? (Derivation of Potential Energy)

12th - Higher Ed
Learn how work done by forces changes an object’s potential energy and how energy interchanges between kinetic and potential forms. Illustrated with relatable analogies like the banana toss and other examples
Instructional Video12:23
Curated Video

Kinetic Energy and Friction in Rolling Motion

12th - Higher Ed
This content explores the kinetic energy of a rolling object, comprising both rotational kinetic energy (1/2 I omega^2) and translational kinetic energy (1/2 M v_com^2). It emphasizes energy conservation in rolling, the crucial role of...
Instructional Video8:54
Curated Video

Work Done by Gravity: Gravity and Work Energy Theorem

12th - Higher Ed
Learn how gravitational force does positive or negative work to transform an object's kinetic energy during ascent and descent. This Class 11 Physics lesson explains the work-energy theorem through real-life vertical motion scenarios.
Instructional Video7:44
Curated Video

Work and Kinetic Energy Theorem

12th - Higher Ed
Explore the Work-Energy Theorem and how net work done on an object leads to a change in its kinetic energy. Learn through real-life examples, force analysis, and problem-solving using this core Class 11 Physics principle
Instructional Video13:27
Curated Video

Kinetic Energy and Rotational Inertia

12th - Higher Ed
This content explains how to calculate the kinetic energy of a rotating body, introducing the concept of rotational inertia (also known as moment of inertia). It clarifies that rotational inertia depends on both the mass and its...