PHYSICS 1AA3

Mac

Course Overview

Lessons & Practice

I. Welcome

1. Circular Motion

1.5hr

1.1.1. Uniform Circular Motion6 min

1.1.2. Period and Frequency 7 min

1.1.3. Example: Uniform circular motion6 min

1.1.4. Practice: Circular Motion - Car Rounding a Curve5 min

1.1.5. Practice : Circular Motion - Ball on a String

1.2.1. Non-uniform Circular motion6 min

1.2.2. Example: Non-Circular motion

1.2.3. Practice: Non-Circular Motion - Acceleration3 min

1.3.1. Centripetal force12 min

1.3.2. Example: Circular Motion with Changing Radii3 min

1.3.3. Practice: Circular Motion - Vertical Circle8 min

1.3.4. Practice: Marble Sliding on a Rotating Hoop (Tricky!)14 min

1.4.1. Car Turning Around a Circular Section of Road6 min

1.4.2. Example: Car Around a Circular Flat Ramp4 min

1.4.3. Practice: Car Rounding a Banked Turn8 min

2. Angular / Rotational Motion

4hr

2.1.1. Torque14 min

2.1.2. Example: Torrque5 min

2.1.3. Practice: Torque9 min

2.2.1. Kinematics Equations for Rotation7 min

2.2.2. Example: Rotating Wheel7 min

2.2.3. Practice: Falling Mass Attached to a Rotating Pulley11 min

2.3.1. Moment of Inertia of Discrete Particles3 min

2.3.2. Moment of Inertia3 min

2.3.3. Example: Moment of Inertia (Calculus Based)7 min

2.3.4. Practice: angular momentum - Satellite

2.3.5. Practice: Rotational dynamics - Rotating Blade6 min

2.4.1. Parallel axis theorem3 min

2.4.2. Example: Moment of Inertia16 min

2.4.3. Practice4 min

2.5.1. Rotational Analog of Newton's Second Law2 min

2.5.2. Example: Rotating Rod7 min

2.5.3. Practice: Falling Mass Attached to a Rotating Pulley11 min

2.6.1. Kinetic Energy of a Rotating Body4 min

2.6.2. Example: Falling Mass Attached to a Rotating Pulley8 min

2.6.3. Practice: Kinetic Energy of a Rotating Body (Tricky!)7 min

2.7.1. Rotational Work and Torque6 min

2.7.2. Example: Kinetic Energy of a Rotating Wheel6 min

2.7.3. Practice: Rotational kinetic energy - falling rod6 min

2.7.4. Practice: Objects rolling down a slope10 min

2.8.1. Note for Rolling Motion8 min

2.8.2. Example: Static Friction for Rolling Down a Slope10 min

2.8.3. Practice (Tricky!)14 min

2.9.1. Angular Momentum10 min

2.9.2. Example: Angular Momentum of Pendulum5 min

2.9.3. Practice: Angular Momentum - Spinning Weight5 min

2.10.1. Conservation of Angular Momentum5 min

2.10.2. Example: Angular Momentum Conservation

2.10.3. Practice: Angular Momentum - Spinning Weight5 min

3. Electrostatic Forces and Electric Fields

4hr

3.1.1. Properties of Charge

3.1.2. Conductors, Insulators, and Induced Charge

3.1.3. Practice

3.2.1. Coulomb's Law

3.2.3. Practice

3.2.4. Example (with vectors)

3.2.5. Practice (with vectors)

3.3.1. Electric Field

3.3.2. Electric Field Lines

3.3.4. Example: Sketching Electric Field Lines 1 min

3.3.5. Practice

3.4.1. Electric Field of a Point Charge5 min

3.4.2. Principle of Superposition2 min

3.4.3. Example: Electric Field from Two Point Charges8 min

3.4.4. Practice: Electric Field8 min

3.4.5. Practice

3.5.1. Motion of a Charged Particle in an Electric Field2 min

3.5.2. Practice: Electron Moving Between Two Plates7 min

3.5.3. Practice: Electric Field and Kinematics5 min

3.6.1. Electric Dipoles3 min

3.6.2. Example: Force and Torque on Electric Dipoles3 min

3.6.3. Practice: Electric field from dipoles11 min

3.6.4. Torque and potential energy2 min

3.7.1. Finding Electric Field with Integrals3 min

3.7.2. Example: Electric Field from a Rod9 min

3.7.3. Example: Electric Field from a Rod (off-axis)

3.7.4. Practice

3.7.5. Practice: Rod with Positive and Negative Charge9 min

3.7.6. Practice: Rod Electric Field Without Symmetry14 min

3.8.1. Example: Electric Field of a Ring4 min

3.8.2. Example: Electric Field of a Disk8 min

3.8.3. Practice: Electric Field at the Center of a Half-Ring4 min

3.9.1. Electric Flux2 min

3.9.2. Example: Electric Flux4 min

3.9.3. Practice: Non-Uniform Flux Through a Round Surface (hard!)6 min

3.10.1. Properties of Conductors1 min

3.10.2. Example: Charges on a Hollow Conducting Sphere58 sec

3.10.3. Practice: Surface Charge Density of a Cylinder2 min

3.11.1. Electric Fields of Special Charge Distributions5 min

3.11.2. Practice: Two Line Charges3 min

3.11.3. Practice: Four Parallel Charged Plates6 min

3.12.1. Gauss’s Law3 min

3.12.2. Example: Gauss's Law and Electric Flux4 min

3.12.3. Example: Charges on a Hollow Conducting Sphere57 sec

3.12.4. Practice: Gauss's Law with a Cube3 min

3.13.1. Gauss's Law with Spherical Symmetries1 min

3.13.2. Example: Gauss's Law for a Spherical Symmetry3 min

3.13.3. Practice: Charges on a Hollow Conducting Sphere4 min

3.13.4. Practice: Gauss's Law for a Spherical Insulator10 min

3.13.5. Practice: Electric Field with an Off-Center Spherical Cavity (hard!)11 min

3.14.1. Gauss's Law with Cylindrical Symmetries2 min

3.14.2. Example: Electric Field from an Infinite Line of Charge3 min

3.14.3. Practice: Concentric Cylindrical Shells4 min

3.14.4. Practice: Electric Field of an Insulating Cylindrical Shell4 min

3.15.1. Gauss's Law with Planar Symmetries2 min

3.15.2. Example: Electric Field from an Infinite Plane of Charge5 min

3.15.3. Practice: Electric Field of a Thick Slab4 min

3.Q. Checkpoint Quiz5 Qns

3.P.1. Suspended charges

3.P.2. Three point charges

3.P.3. Charges in equilibrium

3.P.4. Placing a third charge - x-axis11 min

4. Electric Potential and Potential Energy

3hr

4.1.1. Electric Potential Energy and Work

4.1.3. Practice

4.2.1. Electric Potential Energy - Integral Definition5 min

4.2.2. Practice: Electric Potential Energy of a Variable Field6 min

4.2.3. Practice: Electric Potential Energy of a Dipole4 min

4.2.4. Practice: Electric Potential Energy of a Continuous Rod11 min

4.3.1. Electric Potential

4.3.3. Electron volts

4.4.1. Electric Potential of Continuous Charge Distributions2 min

4.4.2. Example: Electric Potential of a Rod (on-axis)4 min

4.4.3. Practice

4.4.4. Practice: Rod with Positive and Negative Charge2 min

4.4.5. Practice: Electric Potential at the Center of a Half-Ring4 min

4.4.6. Practice: Electric Potential of a Ring3 min

4.4.7. Practice: Electric Potential of a Disk11 min

4.5.1. Conservation of Energy3 min

4.5.2. Example: Two Repulsive Charges7 min

4.5.3. Practice: Conservation of Electric Potential Energy9 min

4.6.1. Equipotential Lines and Surfaces3 min

4.6.2. Example: Drawing Equipotential Lines2 min

4.6.3. Practice: Drawing Equipotential Lines3 min

4.6.5. Practice: Electric Potential and Equipotentials5 min

4.6.6. Practice: Conductors, Charge, and Electric Potential6 min

4.7.1. Conductors and Electric Potential2 min

4.7.2. Example: Graphing Electric Potential 3 min

4.7.3. Example (important!)3 min

4.7.4. Dielectric Breakdown2 min

4.7.5. Practice: Three Conducting Spheres6 min

4.8.1. Relationship Between Electric Field and Potential3 min

4.8.2. Example: Electric Field and Potential4 min

4.8.3. Example: Graphing Electric Field and Potential7 min

4.8.4. Practice: Graphing Electric Field and Potential8 min

4.9.1. Relationship Between Electric Field and Potential (with calculus)3 min

4.9.2. Example: Electric Field from a Potential3 min

4.9.3. Practice: Electric Potential and Potential Energy of a Conducting Sphere4 min

4.9.4. Practice: Electric Potential and Potential Energy of an Insulating Sphere7 min

4.9.5. Practice: Electron Moving Away from Cylindrical Insulator8 min

4.9.6. Practice: Electric Potential of a Spherical Conducting Shell5 min

4.10.1. Capacitance2 min

4.10.2. Example: Capacitance2 min

4.10.3. Capacitors3 min

4.10.4. Example: Parallel-Plate Capacitors3 min

4.10.5. Dielectrics3 min

4.10.6. Practice: Dielectrics5 min

4.10.7. Practice: Capacitor Filled with Several Materials3 min

4.11.1. Capacitance of Concentric Spheres3 min

4.11.2. Capacitance of Concentric Cylinders4 min

4.12.1. Cheatsheet (no calculus)

4.12.2. Cheatsheet (with calculus)

4.Q. Checkpoint Quiz2 Qns

4.P.1. Practice (Part (c) integral removed from main course in 2.9; copy kept here)

5. Magnetic Fields and Magnetic Force

1.8hr

5.1.1. Magnetism and Magnetic Fields

5.1.2. Magnets and Magnetic Materials

5.1.3. Practice

5.2.1. Magnetic Force on a Moving Charge

5.2.4. Practice

5.3.1. Circular Motion in a Magnetic Field

5.3.4. Practice

5.3.5. Practice

5.3.6. Practice: Helical Motion in a Magnetic Field7 min

5.4.1. Velocity Selectors2 min

5.4.2. Example: Proton Travelling in a Straight Line2 min

5.4.3. Practice: Electron Travelling in a Straight Line3 min

5.5.1. The Hall Effect4 min

5.5.2. Practice: Electron Travelling in a Straight Line4 min

5.6.1. Magnetic Force on a Wire

5.6.2. Magnetic Force on a Wire Element1 min

5.6.4. Example: Magnetic Force on a Wire (3D)4 min

5.6.5. Practice: Magnetic Force on a Square Wire4 min

5.6.6. Practice: Magnetic Force on a Semi-Circular Wire8 min

5.7.1. Torque on a Current-Carrying Wire3 min

5.7.2. Example: Torque on a Rectangular Current Loop6 min

5.7.3. Practice

5.8.1. Biot-Savart Law for a Point Charge3 min

5.8.2. Example: Biot-Savart for a Point Charge8 min

5.8.3. Biot-Savart Law for Currents2 min

5.8.4. Practice: Magnetic Field of a Current Loop (Calculus)3 min

5.9.1. Magnetic Field of Current-Carrying Wires

5.9.4. Practice

5.9.5. Practice

5.10.1. Magnetic Force on Parallel Wires3 min

5.10.2. Example: Magnetic Field Between Wires5 min

5.10.3. Practice: Magnetic Field Between Wires4 min

5.11.1. Ampere’s Law1 min

5.11.2. Example: Ampere’s Law3 min

5.11.3. Example: Ampere’s Law4 min

5.11.4. Practice: Ampere's Law - shell

5.11.5. Practice: Ampere's Law - coax7 min

5.11.6. Practice: Ampere's Law - toroid3 min

5.11.7. Practice: Ampere's Law - sheet8 min

5.11.8. Practice: Ampere's law - variable density5 min

5.P.1. Maxwell's Equations and displacement current

5.P.2. Magnetism and free body diagrams

5.P.3. Application: Cyclotron

6. Modern Physics

5min

6.1.1. Radioactive Decays

6.1.2. Alpha Decay

6.1.3. Example: Alpha Decay

6.1.4. Practice: Alpha Decay

6.2.1. Beta Decay

6.2.2. Beta Negative Decay

6.2.3. Beta Positive Decay

6.2.4. Electron Capture

6.2.6. Practice

6.3.1. Gamma Decay

6.4.1. Radioactive Decays

6.4.2. Half-Life

6.4.4. Practice

6.5.1. Carbon Dating

6.5.2. Example: Carbon Dating

6.5.3. Practice: Half-Life

6.6.1. Photons (Light = Particle)

6.6.2. de Broglie Wavelength (Particles = Waves)

6.6.3. Example: de Broglie wavelength

6.6.4. Practice: Light Particles

6.7.1. The Compton Effect

6.7.3. Practice

6.8.1. Bohr's Model of the Atom

6.8.2. Example: Bohr's Model

6.8.3. Practice: electron shell transitions

6.9.1. The Photoelectric Effect

6.9.3. Practice

6.10.1. Lorentz Transformations

6.10.2. Time Dilation and Length Contraction

6.10.3. Example

6.10.4. Practice

6.10.5. Relativistic Velocity Transformations

6.10.6. Relativistic Momentum and Energy

6.10.7. Practice: Special Relativity5 min

6.11.1. The Atom and the Elements

6.11.2. Nuclear Forces and Binding Energy

6.11.3. Practice

7. Motion in Two Dimensions

2.9hr

7.1.1. Relative Velocity11 min

7.1.2. Example: : Relative Velocity9 min

7.1.3. Practice: Relative Velocity11 min

7.2.1. Projectile Motion9 min

7.2.2. Example: projectile motion4 min

7.2.3. Practice: Projectile Motion10 min

7.3.1. Two- and Three-Dimensional Kinematics : Part 19 min

7.3.2. Two- and Three-Dimensional Kinematics: Part 27 min

7.3.3. Example: Particle Motion in 3D8 min

7.3.4. Practice: Projectile motion

7.4.1. Uniform Circular Motion and Centripetal Acceleration8 min

7.4.2. Non-uniform Circular motion3 min

7.4.3. Example: Centripetal Acceleration

7.4.4. Practice: Circular Motion - Acceleration3 min

7.5.1. Position Vector11 min

7.5.2. Two- and Three-Dimensional Kinematics : Part 19 min

7.5.3. Practice Question 5: Position Vectors2 min

7.5.4. Practice: Velocity and Acceleration

7.5.5. Example: Velocity and Acceleration8 min

7.5.6. Example: Position from Velocity2 min

7.6.1. Uniform Circular Motion6 min

7.6.2. Example: Uniform circular motion2 min

7.6.3. Practice: Unifirm Circular Motion5 min

7.6.4. Practice : Circular Motion 1

7.6.5. Practice question

7.7.1. Centripetal force12 min

7.7.2. Example: Circular Motion with Changing Radii3 min

7.7.3. Practice: Circular Motion - Vertical Circle8 min

7.7.4. Practice: Marble Sliding on a Rotating Hoop (Tricky!)14 min

Mock Exams

ME.1. Midterm Test - Mock Assessment17 Qns

ME.2. Final Exam - Mock Assessment46 Qns

PHYSICS 1AA3 Flashcards

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Uniform Circular Motion (UCM)

An object moves around a circle at constant speed but with changing velocity.

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