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Search concepts, topic pages, tracks, and guided paths from one place.

Type a concept, topic, starter track, guided collection, goal path, or subject. Narrow to one subject first when you want fewer results.

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Start with Subject for the big branch. Then use Topic for the smaller area inside that subject, or type a title when you already know what you want.

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Searching the full library

Results can mix subjects, topic pages, tracks, guided paths, and concepts. Pick Subject first when you want one branch before you type.

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Search results

25 results for "Motion and Circular Motion".

Starter track results

3 results

Motion and Circular Motion

Start with vector components, move into projectile paths, and then use circular motion to understand how velocity can keep changing direction.

Physics3 concepts
Open Motion and Circular Motion

Gravity and Orbits

Start with one source mass creating a field and potential well, then use that same gravity model to explain circular speed, orbital periods, and the escape threshold.

Physics5 concepts
Open Gravity and Orbits

Magnetism

Start with current-made magnetic fields, turn changing flux into induced emf with Faraday and Lenz, and then reuse that same field direction story to explain magnetic force on charges and currents.

Physics3 concepts
Open Magnetism

Subject results

1 result

Physics

Enter the current physics catalog through motion, gravity, waves, sound, fields, circuits, light, and modern-physics benches that still share one compact simulation-first product language.

Physics14 topics
Open Physics

Topic results

2 results

Mechanics

Use vectors, trajectories, circular motion, turning effects, momentum, and collisions to read motion and interactions on one compact simulation-first branch.

Physics11 concepts
Open Mechanics

Gravity and Orbits

Start with the gravitational field of one source mass, then keep the same model while potential wells, circular orbits, orbital periods, and escape speed stay tied together.

Physics5 concepts
Open Gravity and Orbits

Goal path results

1 result

Bridge plane vectors into motion

Use the vectors topic page, the new bridge collection, the short bridge track, and the mechanics topic page so vectors feel like one language before motion problems take over.

MathPrepare for a branch
Open goal path

Concept results

18 results

Uniform Circular Motion

Track a particle moving at constant speed around a circle and connect radius, angular speed, tangential speed, centripetal acceleration, and the inward-force requirement to the same live state.

PhysicsMechanics
Open UCM

Vectors and Components

Rotate and scale a live vector, decompose it into horizontal and vertical parts, and watch those components drive the same straight-line motion and geometry.

PhysicsMechanics
Open Vectors

Projectile Motion

Launch a projectile, watch the trajectory form, and connect the range, height, and component motion to the launch settings.

PhysicsMechanics
Open Projectile

Magnetic Force on Moving Charges and Currents

See why a magnetic field bends a moving charge sideways, why faster charges can make wider arcs, and how the same cross-product direction rule pushes a current-carrying wire.

PhysicsMagnetism
Open Magnetic force

Torque

Push on one pivoted bar and see how lever arm distance, force direction, and turning effect stay tied to the same compact rotational bench.

PhysicsMechanics
Open Torque

Static Equilibrium / Centre of Mass

Shift one support region under one loaded plank and see how centre of mass, support reactions, and torque balance decide whether the object stays stable or tips.

PhysicsMechanics
Open Static equilibrium

Rotational Inertia / Moment of Inertia

Keep the same total mass and torque, then slide equal masses inward or outward to see why moment of inertia makes some rotors much harder to spin up than others.

PhysicsMechanics
Open Rotational inertia

Rolling Motion

Roll a sphere, cylinder, hoop, or custom mass distribution down one incline and see how rolling without slipping ties translation, rotation, and rotational inertia to the same honest run.

PhysicsMechanics
Open Rolling motion

Angular Momentum

Treat angular momentum as rotational momentum on one compact rotor where mass radius and spin rate stay tied to the same readouts, response maps, and same-L conservation story.

PhysicsMechanics
Open Angular momentum

Momentum and Impulse

Push one cart with a timed force pulse and watch momentum, impulse, and force-time area stay tied to the same motion, readouts, and graphs.

PhysicsMechanics
Open Momentum / Impulse

Conservation of Momentum

Use two carts to see the conservation rule in action: with no outside push, the system's total momentum stays fixed even while each cart's momentum and speed change.

PhysicsMechanics
Open Momentum conservation

Collisions

Collide two carts on one honest track, keep total momentum in view, and see how elasticity, mass, and incoming speed shape the rebound or stick-together outcome.

PhysicsMechanics
Open Collisions

Gravitational Fields

See how one source mass creates an inward gravitational field, how source mass and distance set the field strength, and how a probe mass turns that field into force without changing the field itself.

PhysicsGravity and Orbits
Open Gravity fields

Gravitational Potential and Potential Energy

See one source mass create a negative potential well, compare how potential and potential energy change with distance, and connect the downhill slope of phi to the gravitational field on the same live model.

PhysicsGravity and Orbits
Open Gravity potential

Circular Orbits and Orbital Speed

See why a circular orbit needs the right sideways speed, how gravity supplies the centripetal acceleration, and how source mass and radius together set orbital speed and period on one bounded live model.

PhysicsGravity and Orbits
Open Orbital speed

Kepler's Third Law and Orbital Periods

Compare circular orbits around one source mass and see why larger orbits take longer: the path is longer, the circular speed is lower, and the same live model makes the period law visible without hiding the gravity-speed link.

PhysicsGravity and Orbits
Open Orbital periods

Escape Velocity

Launch outward from one bounded gravity source and see how source mass, launch radius, and total specific energy decide whether the object escapes or eventually returns.

PhysicsGravity and Orbits
Open Escape speed

Faraday's Law and Lenz's Law

Track one magnet passing one coil and see how changing magnetic flux linkage creates induced emf while Lenz's law fixes the response direction, with the stage, galvanometer, and graphs all driven by the same bounded motion.

PhysicsElectromagnetism
Open Faraday / Lenz