ISM ADVANCED PHYSICS 2022
WELCOME!
WELCOME!
Advanced Physics at ISM is an algebra based course that covers electricity and magnetism and a little bit of modern physics.
The textbook we use is Giancoli Physics 7th Ed.
This website will provide lessons and resources to help you be successful in this class. It will be updated frequently, so check back often.
The single most important thing you can do to learn physics is to work problems. Lots and lots of problems. Every evening.
The textbook we use is Giancoli Physics 7th Ed.
This website will provide lessons and resources to help you be successful in this class. It will be updated frequently, so check back often.
The single most important thing you can do to learn physics is to work problems. Lots and lots of problems. Every evening.
| apcemc.pdf |
| advanced_physics_pacing_chart_copy.pdf |
03.20.23
1. Demo Single Slit Diffraction
1.a. Take a Brief Look at Feynman Electrodynamics
2. Demo Refraction and lenses with Algodoo
3. Post Problems on Physics LE
1. Demo Single Slit Diffraction
1.a. Take a Brief Look at Feynman Electrodynamics
2. Demo Refraction and lenses with Algodoo
3. Post Problems on Physics LE
03.17.23
1. Discuss Fermat's Principle and how it relates to refraction of light.
2. Discuss Huygen's Principle and how it relates to refraction of light.
3. Newton vs. Huygens and particles vs. waves.
4. Snell's Law.
5. Index of Refraction.
1. Discuss Fermat's Principle and how it relates to refraction of light.
2. Discuss Huygen's Principle and how it relates to refraction of light.
3. Newton vs. Huygens and particles vs. waves.
4. Snell's Law.
5. Index of Refraction.
03.16.23
1. Review circuit problem from yesterday.
2. Finish Final Exam review.
3. Begin Ch 23, Light and Geometric Optics.
4. The simple view. Light Travels in Straight Lines. Except When it Doesn't.
5. Refraction and Snell's Law.
1. Review circuit problem from yesterday.
2. Finish Final Exam review.
3. Begin Ch 23, Light and Geometric Optics.
4. The simple view. Light Travels in Straight Lines. Except When it Doesn't.
5. Refraction and Snell's Law.
03.15.23
1. Continue with Term 2 Final Exam Review
1. Continue with Term 2 Final Exam Review
Maxwell's Equations Review
2.23.23
1. Review: forces on current carrying wires in B fields.
2. Review: forces between current carrying wires.
3. B fields created by multiple current carrying wires.
1. Review: forces on current carrying wires in B fields.
2. Review: forces between current carrying wires.
3. B fields created by multiple current carrying wires.
The term 2 final exam will cover the topics below.
02/16/23
1. Displacement Current.
2. The speed of light.
2. The range and terminology of the EM Spectrum.
1. Displacement Current.
2. The speed of light.
2. The range and terminology of the EM Spectrum.
02/15/23
Question 20 of Periodic 2
Energy in Inductors
Oscillations
Mass - Spring vs. Capacitor - Inductor
1. Discussion of Maxwell's Equations.
2. Discussion of Displacement Current.
3. The Electromagnetic Spectrum.
Question 20 of Periodic 2
Energy in Inductors
Oscillations
Mass - Spring vs. Capacitor - Inductor
1. Discussion of Maxwell's Equations.
2. Discussion of Displacement Current.
3. The Electromagnetic Spectrum.
Material Covered For Periodic 2
02.11.23
You should review questions 1 - 19 in Giancoli Chapter 21.
You should review questions 1 - 19 in Giancoli Chapter 21.
Practice Induction Questions
| induction_practice.pdf |
02.03.23
1. Review material provided for preparation of Periodic 2.
2. Pacing Chart.
3. Revision Guide.
4. Textbook.
Discussion of Sabis re-testing guidelines.
1. Review material provided for preparation of Periodic 2.
2. Pacing Chart.
3. Revision Guide.
4. Textbook.
Discussion of Sabis re-testing guidelines.
02.02.23
1. R.F. sources in this room.
2. Review Term 2 Periodic 2.
1. R.F. sources in this room.
2. Review Term 2 Periodic 2.
01.31.23
Learning Points
1. Discuss the operation of transformers.
2. Work 2 transformer problems.
3. General review.
Learning Points
1. Discuss the operation of transformers.
2. Work 2 transformer problems.
3. General review.
01.30.23
Learning Points
1. Discuss falling magnets (again).
2. More on transformers and alternating current.
3. Mechanical Universe: Alternating Current.
Learning Points
1. Discuss falling magnets (again).
2. More on transformers and alternating current.
3. Mechanical Universe: Alternating Current.
01.27.23
Learning Points
1. Demonstrate induction with solenoid and a single loop.
2. Work more practice problems from revision guide.
3. Watch video on alternating current.
Learning Points
1. Demonstrate induction with solenoid and a single loop.
2. Work more practice problems from revision guide.
3. Watch video on alternating current.
01.26.23
Learning Points
1. Review LR circuits.
2. Look at the introductory paragraph of A. Einstein's On The Electrodynamics of Moving Bodies.
3. Review m.c. questions on induction.
4. View video on A.C. current.
Learning Points
1. Review LR circuits.
2. Look at the introductory paragraph of A. Einstein's On The Electrodynamics of Moving Bodies.
3. Review m.c. questions on induction.
4. View video on A.C. current.
01.25.23
Learning Points
1. View graphics of falling conducting rings in a B field.
2. Work more problems determining the direction of an induced current using Lenz's Law.
3. Demonstrate induction between 2 solenoids.
4. Discuss transformers and AC current.
5. View released AP m.c. questions.
Learning Points
1. View graphics of falling conducting rings in a B field.
2. Work more problems determining the direction of an induced current using Lenz's Law.
3. Demonstrate induction between 2 solenoids.
4. Discuss transformers and AC current.
5. View released AP m.c. questions.
01.24.23
Learning Points
1. Finish video on induction
2. Demo induction
3. Demo induction with no magnets
4. More examples of Lenz's Law
Learning Points
1. Finish video on induction
2. Demo induction
3. Demo induction with no magnets
4. More examples of Lenz's Law
01.23.22
Learning Points
1. Review Lenz's Law.
2. Demonstrate Ring Launcher.
3. Explain how Lenz's Law can be used to determine the direction of an induced current.
4. Watch video on Electromagnetic Induction.
Learning Points
1. Review Lenz's Law.
2. Demonstrate Ring Launcher.
3. Explain how Lenz's Law can be used to determine the direction of an induced current.
4. Watch video on Electromagnetic Induction.
01.20.23
Learning Points
1. Explain and discuss Faraday's Laws of EM Induction.
2. Explain Lenz's Law.
3. Define Magnetic Flux.
4. Analyze Rail problem using Faraday's Law.
5. Determine the direction of an induced current in a solenoid 1.
6. Watch video on EM induction.
Learning Points
1. Explain and discuss Faraday's Laws of EM Induction.
2. Explain Lenz's Law.
3. Define Magnetic Flux.
4. Analyze Rail problem using Faraday's Law.
5. Determine the direction of an induced current in a solenoid 1.
6. Watch video on EM induction.
01.18.23
Advanced Physics Learning Points
1. Begin discussion of Electromagnetic induction.
2. Discuss the concept of Magnetic Flux.
3. Discuss rail/sliding conductor problem.
Advanced Physics Learning Points
1. Begin discussion of Electromagnetic induction.
2. Discuss the concept of Magnetic Flux.
3. Discuss rail/sliding conductor problem.
01.12.23
Advanced Physics Learning Points
1. Review what will be on the next periodic.
2. Revisit calculating the magnetic field in a solenoid.
3. Model lab to compare theoretical value with experimental value.
4. Do the lab!
Advanced Physics Learning Points
1. Review what will be on the next periodic.
2. Revisit calculating the magnetic field in a solenoid.
3. Model lab to compare theoretical value with experimental value.
4. Do the lab!
01.10.23
Learning Points
1. Review Physics LE questions.
2. Review Learn AP Physics questions.
Learning Points
1. Review Physics LE questions.
2. Review Learn AP Physics questions.
01.09.23
Learning Points
1. Demo lab procedure for measuring the magnetic field inside a solenoid with DC current.
2. Show that B = UoNI/L.
3. Review Physics LE questions.
4. Review Learn AP questions.
5. Conclusion.
Learning Points
1. Demo lab procedure for measuring the magnetic field inside a solenoid with DC current.
2. Show that B = UoNI/L.
3. Review Physics LE questions.
4. Review Learn AP questions.
5. Conclusion.
Read chapter 20
01/05/23
1. Review videos uploaded to gonzmosis.com.
2. Calculate the magnetic field inside a current carrying wire.
3. Review calculating the magnetic field inside a solenoid.
4. Demo lab procedure for measuring the magnetic field inside a solenoid with DC current.
5. Demo lab for measuring the magnetic field inside a solenoid with alternating current.
1. Review videos uploaded to gonzmosis.com.
2. Calculate the magnetic field inside a current carrying wire.
3. Review calculating the magnetic field inside a solenoid.
4. Demo lab procedure for measuring the magnetic field inside a solenoid with DC current.
5. Demo lab for measuring the magnetic field inside a solenoid with alternating current.
This is an animation showing the magnetic field of a bar magnet as the magnet approaches a coil of wire.
A bar magnet falling through a superconducting ring.
The magnetic field created by an oscillating charge.
12.15.22
1. Use Bio-Savart to find B field at the center of a current ring.
2. Use Bio-Savart to find B field in a solenoid.
3. Use Ampere's Law to find B field inside a current carrying wire.
4. Demo B field Detector?
1. Use Bio-Savart to find B field at the center of a current ring.
2. Use Bio-Savart to find B field in a solenoid.
3. Use Ampere's Law to find B field inside a current carrying wire.
4. Demo B field Detector?
12.14.22
1. Sources of B Fields.
2. Bio Savart Law.
3. Ampere's Law
4. Logger Pro Magnetic Field Sensors.
1. Sources of B Fields.
2. Bio Savart Law.
3. Ampere's Law
4. Logger Pro Magnetic Field Sensors.
12.13.22
Points
1. Observe charges being deflected by a B field.
2. Demo Current Balance.
3. Work Force on wires problems.
4. Review practice problems.
5. NIF.
Points
1. Observe charges being deflected by a B field.
2. Demo Current Balance.
3. Work Force on wires problems.
4. Review practice problems.
5. NIF.
12.09.22
1. Happy Friday! Watch this exciting video and then check out these images of magnetic strands and radio bubbles surrounding our galaxy. Only captured in this detail a few years ago by the MeerKAT Radio Observatory in South Africa.
1. Happy Friday! Watch this exciting video and then check out these images of magnetic strands and radio bubbles surrounding our galaxy. Only captured in this detail a few years ago by the MeerKAT Radio Observatory in South Africa.
The Milky Way viewed in visible light.
2. Please study these answers to the practice test.
| sg_advancedphysicsterm2practicechargesinbfields_639225c88f13b4.639225c9e0ce24.65351845.pdf |
| tb_advancedphysicsterm2practicechargesinbfields_63922563388de3.63922564a007e0.38482749.pdf |
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Practice Test!
12.02.22
Points
1. Play With Magnets!
2. Review Visual Representation of B Fields
3. Magnetic Fields and Closed Surfaces
4. Magnetic Forces on Charged Particles
4.1 CRT Screens, Solar Prominences
5. Derive an Equation Describing The Motion of a Charged Particle in a B field
6. Review Physics LE Questions
Points
1. Play With Magnets!
2. Review Visual Representation of B Fields
3. Magnetic Fields and Closed Surfaces
4. Magnetic Forces on Charged Particles
4.1 CRT Screens, Solar Prominences
5. Derive an Equation Describing The Motion of a Charged Particle in a B field
6. Review Physics LE Questions
12.01.22 Agenda
1. View Video on B Fields
2. Look At Physics LE HW Problems
1. View Video on B Fields
2. Look At Physics LE HW Problems
10.24.22
1. Combo resistor problem
2. using ammeters and voltmeters in circuits
3. current and voltage sensors with logger pro
4. rc circuits, initial, transient, and steady state behavior
1. Combo resistor problem
2. using ammeters and voltmeters in circuits
3. current and voltage sensors with logger pro
4. rc circuits, initial, transient, and steady state behavior
Play with this
And this
And this
