Magnetism vs Stepwising

Electromagnetism - Physics app is designed for K12 physics students which explains the fundamentals of permanent magnets and magnetic materials. The app helps to learn the methods of magnetization and demagnetization with high-quality professional animations. Each topic is explained with diagrams, graphical representations and animations along with simple description to understand the physics concept easily. Modules of Electromagnetism - Physics Learn - Understanding electromagnetism through a compass needle experiment to identify north and south poles with an interactive video. Students can learn about magnets, magnetization and electromagnets in this section. Magnets - This section helps to learn about permanent magnets, magnetic and non-magnetic material types using nails, safety pin and needle through interactive 3D animations. Magnetization - Interactive videos using hammer to understand -Magnetization -Demagnetization -Induced magnetism -Magnetic field Electromagnets - Learn to calculate strength of electromagnet in an easy way with soft iron core. 2) Practice - Activities and virtual experiments for plotting magnetic field lines and magnetic field around solenoid with 3D animations. 3) Quiz - The interactive quiz with score board to evaluate your level of learning about electromagnetism. Download the Electromagnetism - Physics and other educational apps published by Ajax Media Tech Pvt Ltd. With the gamified education model, students will be able to absorb and learn the basics of science with minimal efforts and maximum retention.

Stepwising invites you to explore, play with, and learn about gravity. You can check out Kepler's laws of planetary motion, observe and discover solutions to the 3-body problem, or try to drive a frictionless car around a circular track of ice. The program closely approximates the motion of stars, planets, moons, and other celestial objects moving through space under the influence of their gravitational fields. It does this recursively: an object's position determines the amount of force on it, the amount of force on it determines its acceleration, its acceleration determines its average velocity over a short period of time, and its average velocity determines its next position. If the time interval between calculations is small, a very good approximation of the motion is produced.