University Physics 2 Full Course: Electricity, Magnetism, and Optics
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What you'll learn
This course includes
- 13.5 hours of video
- Certificate of completion
- Access on mobile and TV
Course content
1 modules • 51 lessons • 13.5 hours of video
University Physics 2 Full Course: Electricity, Magnetism, and Optics
51 lessons
• 13.5 hours
University Physics 2 Full Course: Electricity, Magnetism, and Optics
51 lessons
• 13.5 hours
- 1.1: Electrostatics - Forces on Neutral Objects and Charging by Induction 12:10
- 1.2: Example with Coulombs Law and Point Charges 12:59
- 2.1: The Electric Field and Analogy to Gravity 18:55
- 2.2: The Electric Dipole: Torque and Energy 17:26
- 2.3: The Electric Field from an Electric Dipole 16:56
- 2.5: Electric Field from Continuous Charge Distribution 29:41
- 2.6: Electric Field from Charged Plane and Other Geometries 16:44
- 3.1: Introduction to Electric Flux 29:03
- 3.2: Introduction to Gauss's Law and Application to Spherical Symmetry 23:24
- 3.3: Gauss Law Example with Solid Sphere 13:01
- 3.4: Gauss Law with Spherically Symmetric Non Uniform Charge Distribution 13:36
- 3.5: Gauss Law with Cylindrical Symmetry 15:46
- 3.6: Gauss's Law for Flat Symmetry 07:44
- 3.7: Gauss Law Applied to Conductors 16:51
- 4.1: What is Electric Potential with an Analogy to Gravity 28:14
- 4.2: Work Energy and Potential for Point Charges 25:38
- 4.3: Electric Potential for Continuous Charge Distributions 10:20
- 4.4: Mathematical Relationship Between Electric Field and Potential 19:41
- 5.1: Capacitance Overview and Parallel Plate Capacitance 14:48
- 5.2: Energy Stored in Capacitor 09:51
- 5.3: Dielectrics in Capacitors 13:09
- 5.4: Combining Capacitors Explained 21:46
- 5.5: Analyzing Circuits with Multiple Capacitors 18:41
- 6.1: What is Current? 11:53
- 6.2: Resistivity, Resistance, and Ohms Law 11:08
- 6.3: Energy and Power in Resistive Circuits 14:19
- 6.4: Temperature Dependence of Resistivity 06:51
- 6.5: Combining Resistors Explained 14:55
- 6.6: Using Ohms Law to Analyze a Resistive Circuit 12:58
- 8.1: Introduction to the Magnetic Force and Field 19:04
- 8.2: Circular Motion and Magnetic Field 10:21
- 8.3: Force on Current Carrying Wire 05:08
- 8.4: The Magnetic Dipole 15:30
- 9.1: Sketching Magnetic Field Lines, and Gauss's Law for Magnetism and Biot-Savart 20:54
- 9.2: Biot Savart Examples 20:40
- 9.3: Ampere's Law 21:15
- 9.4: Ampere's Law Example 09:34
- 9.5: Non Uniform Current Density 09:35
- 9.6: Amperes Law and the Solenoid 14:42
- 10.1: Magnetic Flux 07:30
- 10.2: Farday's Law 10:07
- 10.3: Lenz's Law and Electromagnetic Induction 09:50
- 10.4: Motional EMF (inducing electricity with motion) 20:19
- 10.5: Inductance and Inductors 13:07
- 10.6: Transformers 08:33
- 10.7: RL Circuits 26:16
- 11.1: Maxwell's Equations and the Displacement Current 10:54
- 11.2: Worth the Math!! Electromagnetic Waves Derived from Integral Form of Maxwells Equations 53:34
- 12.1: Light and the Electromagnetic Spectrum 13:12
- 12.2: Snell's Law and Refraction 21:28
- 12.3: Image Formation and Thin Lenses 19:08
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