BackPhysics 162: Physics with Calculus II – Syllabus and Course Overview
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Course Overview
Physics 162: Physics with Calculus II is a college-level course designed to deepen students' understanding of electricity, magnetism, and related physical phenomena. The course is intended for STEM majors and emphasizes conceptual understanding, problem-solving, and the application of calculus to physical systems.
Key Themes
Exploration of the physical world through the lens of electricity and magnetism
Development of analytical and quantitative reasoning skills
Application of physics concepts to real-world and interdisciplinary problems
Learning Objectives
Upon successful completion of Physics 162, students should be able to:
Apply core concepts of electricity to analyze interactions and motions of charged particles, including the use of Coulomb's Law, Electric Field, and Electric Potential.
Analyze and solve problems involving DC circuits (including resistors, bulbs, and meters).
Apply the concepts of magnetic fields and the interactions of magnets and current-carrying wires.
Understand and use Faraday's Law and electromagnetic induction.
Translate between multiple representations of motion (graphs, pictures, equations, words).
Apply concepts and mathematical models to quantitatively analyze novel physical systems.
Communicate scientific ideas and arguments clearly and concisely.
Develop and practice collaboration and teamwork skills.
Course Content
The course covers the following major topics, which align with standard college physics curricula:
Electric Charges and Forces
The Electric Field
Gauss' Law
The Electric Potential
Potential and Field
Current and Resistance
Fundamentals of Circuits
The Magnetic Field
Electromagnetic Induction
Electromagnetic Fields and Waves
AC Circuits
Additional info: These topics correspond to Chapters 22–32 in most calculus-based physics textbooks.
Course Components
Lectures: Interactive sessions focused on conceptual understanding and problem-solving.
Labs: Hands-on experiments to reinforce theoretical concepts.
Homework: Regular assignments to practice and apply course material.
Exams: Three midterm exams and a cumulative final exam.
Participation: In-class activities, group work, and discussions.
Assessment and Grading
Grades are based on a combination of assignments, reading, homework, labs, midterm exams, and a final exam. The following table summarizes the grade breakdown:
Component | Percentage |
|---|---|
In-class assignments | 22% |
Reading Assignments | 19% |
Homework | 10% |
Labs | 28% |
Midterm Exams | 16% |
Final Exam | 5% |
The following grading scale is used:
Letter Grade | Percentage Range |
|---|---|
A | 93–100% |
A- | 90–92% |
B+ | 87–89% |
B | 83–86% |
B- | 80–82% |
C+ | 77–79% |
C | 73–76% |
C- | 70–72% |
D+ | 67–69% |
D | 63–66% |
D- | 60–62% |
F | 0–59% |
Approach to Learning and Teaching
Active learning is emphasized, with students expected to engage in group discussions, problem-solving, and peer instruction.
Assignments and assessments are designed to foster deep understanding and application of concepts.
Students are encouraged to collaborate and communicate scientific ideas effectively.
Additional Policies
Inclusivity: The course is committed to equity and supporting all students.
Accommodations: Available for students with documented needs.
Academic Integrity: Collaboration is encouraged, but all submitted work must be original.
Required Materials
Textbook: "Physics for Scientists and Engineers: A Strategic Approach" by Randall Knight (4th edition preferred).
MasteringPhysics access code (if not already owned).
Student Workbook (for in-class activities).
Scientific calculator.