BackPhysics 1220: Physics for Physical & Applied Sciences II – Course Syllabus and Study Guide
Study Guide - Smart Notes
Tailored notes based on your materials, expanded with key definitions, examples, and context.
Course Overview
Introduction
Physics 1220 is the second semester of a calculus-based first-year university physics sequence. The course covers advanced topics in optics, modern physics, electricity, and magnetism. Calculus is used to develop theory and applications, with differential calculus as a prerequisite and integral calculus as a co-requisite.
Instructor: Dr. Takashi Sato
Textbook: Giancoli, Douglas C., Physics for Scientists & Engineers, vol. II, 5th ed., 2020
Lab Manual: PHYS 1102 / 1220 - Lab Manual (Richmond), current edition
Course Structure and Evaluation
Assessment Components
The final grade is determined by performance in exams, assignments, and laboratory work. Regular attendance in labs is compulsory.
Mid Term Exam (Optics): 5%
Final Exam (Optics & Modern Physics): 15%
Mid Term Exam (Electricity & Magnetism): 10%
Final Exam (Electricity & Magnetism): 25%
Tutorial Assignments: 10%
Mastering Physics Assignments: 10%
Laboratory Work: 25%
Note: Completion of laboratory experiments is required to pass the course.
Letter Grade Policy
Letter grades are assigned according to the following scale:
Grade | Grade Point | % Equivalent | Min. % on Final Exam |
|---|---|---|---|
A+ | 4.33 | 90-100 | 80 |
A | 4.00 | 85-89 | 70 |
A- | 3.67 | 80-84 | 65 |
B+ | 3.33 | 76-79 | 60 |
B | 3.00 | 72-75 | 60 |
B- | 2.67 | 68-71 | 55 |
C+ | 2.33 | 64-67 | 50 |
C | 2.00 | 60-63 | 40 |
C- | 1.67 | 56-59 | 40 |
D | 1.00 | 50-55 | --- |
F | 0.00 | 0-49 | --- |
Requirement: A final grade of C (60%) or better is necessary to advance to higher physics courses.
Course Topics and Weekly Schedule
Topics Covered
The course covers the following major topics, corresponding to chapters in the textbook:
Light (Ch. 32/31)
Geometric Optics (Ch. 32/31)
Optical Instruments, Interference (Ch. 33, 34)
Interference & Diffraction (Ch. 34, 35)
Origins of Quantum Theory (Ch. 37)
Electric Field I & II, Gauss’ Law (Ch. 21, 22)
Electric Potential, Capacitance (Ch. 23, 24)
Capacitance, Current (Ch. 24, 25)
DC Circuits, RC Circuits, Magnetic Field (Ch. 26, 27)
Magnetic Field, Ampere’s Law (Ch. 27, 28)
Magnetic Flux and Induction (Ch. 28)
Additional info: The course sequence aligns with standard university physics topics, including chapters on optics, quantum theory, and electromagnetism.
Weekly Schedule Outline
Week of | Topic | Chapter |
|---|---|---|
Jan 5 | Light | 32(31) |
Jan 12 | Geometric Optics | 32(31) |
Jan 19 | Optical Instruments, Interference | 33, 34 |
Jan 26 | Interference | 34 |
Feb 2 | Interference & Diffraction | 35 |
Feb 9 | Origins of Quantum Theory | 37 |
Feb 16 | Reading Week | |
Feb 23 | Electric Field I | 21 |
Mar 2 | Electric Field II, Gauss’ Law | 21, 22 |
Mar 9 | Electric Potential, Capacitance | 23, 24 |
Mar 16 | Capacitance, Current | 24, 25 |
Mar 23 | DC Circuits, RC Circuits, Magnetic Field | 26, 27 |
Mar 30 | Magnetic Field | 27 |
Apr 6 | Ampere’s Law | 28 |
Apr 13 | Magnetic flux and induction | 28 |
Apr 22 | Final Exam (E&M) |
Study and Exam Preparation
Learning Approach
This course emphasizes understanding and deriving equations from first principles, rather than memorization. Students are expected to develop problem-solving skills and logical reasoning in physics.
Reference Sheets: Students may prepare and use a reference sheet for exams.
Mastering Physics: Online assignments for each chapter, recommended to be solved on paper for study purposes.
Tutorial Assignments: Group problem-solving sessions for feedback and grading.
Additional info: Exam questions may differ from assignment questions, requiring application of concepts to new situations.
Key Physics Topics (Brief Overview)
Optics
Geometric Optics: Study of light propagation, reflection, and refraction.
Optical Instruments: Analysis of lenses, microscopes, and telescopes.
Interference & Diffraction: Wave phenomena, including constructive and destructive interference, and diffraction patterns.
Modern Physics
Origins of Quantum Theory: Introduction to quantum mechanics, including the photoelectric effect and atomic models.
Electricity and Magnetism
Electric Field & Gauss’s Law: Study of electric fields, charge distributions, and application of Gauss’s Law.
Electric Potential & Capacitance: Concepts of potential energy in electric fields and storage of charge.
DC Circuits & RC Circuits: Analysis of circuits with resistors and capacitors.
Magnetic Field & Ampere’s Law: Properties of magnetic fields and calculation using Ampere’s Law.
Magnetic Flux & Induction: Faraday’s Law and electromagnetic induction.
Conclusion
Physics 1220 provides a comprehensive foundation in optics, modern physics, and electromagnetism, preparing students for advanced study in physical sciences and engineering. Success in the course requires active participation, problem-solving, and a deep understanding of fundamental principles.