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Physics 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.

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