Course Syllabus

PHY2054c Section 0001: College Physics II

Physics Department, College of Science

4 Credit hours


Table of Contents

 


Instructor Information 

  • Instructor: Prof. Abdelkader Kara
  • Office Location: Physical Science Building Rm 303. No face to face appointments. This may change during the semester.
  • Office Hours: MW 11:00-12:30, or by appointment. Office hours will be virtual, on Zoom
  • Phone: 407-668-0135
  • Digital Contact: Abdelkader.Kara@ucf.edu or Webcourses@UCF messaging

Teaching Assistants 

  • GTA: Nusaiba Zaman
  • Email: nusaibazaman@knights.ucf.edu

Course Information

  • Term: Fall 2021
  • Course Number & Section: PHY2054C 0001
  • Course Name: College Physics II
  • Credit Hours: 4 Credit Hours
  • Class Meeting Days: MW
  • Class Meeting Time: 4.30-7.20pm
  • The class will be divided in two groups: Group1 and Group2.
  • This arrangement is due to the Covid situation and may change during the semester, resulting in going back to all F2F.
  • While one group is attending face-2-face (F2F) sessions for discussions, labs, worksheets, quizzes and exams; the other group is attending remotely lectures via zoom. All lectures will be recorded and made available to you.
  • GROUP1 will attend remotely the lectures via zoom every Monday, and F2F sessions in room MSB350 every Wednesday
  • GROUP2 will attend remotely the lectures via zoom every Wednesday, and F2F sessions in room MSB350 every Monday

Enrollment Requirements 

Course Prerequisites (if applicable): College Physics I
Course Co-requisites (if applicable): None
Other Enrollment Requirements (if applicable): None

Course Description

PHY2054C is the second of two-semester sequence in introductory physics offered primarily for students majoring in information technology, the biological science and pre-health professions. Emphasis is placed on understanding major principles and concepts. Algebra with simple Trigonometry is used to clarify them. Students should have a good working knowledge of Algebra and Trigonometry at the level of MAC1104 and MAC1114 or equivalent. This is a very fast paced course. The content of this course is selected to match nation-wide standards for Physics courses, which are often used to prepare students for careers in Medicine and Life Sciences.

Course Materials and Resources

  • COLLEGE PHYSICS Openstax Chapter 18-27

    Free access :https://pressbooks.online.ucf.edu/phy2054lt/


  • A computer with webcam and microphone: the lecture part of the course will be held remotely via zoom. To participate in the discussions, a webcam and microphone are recommended.

Optional Materials/Resources

  • Shaum’s Outline College Physics. Frederic Bueche, Eugene Hecht.  A very useful aid for both Physics I and II, especially in the clarification of concepts. Contains the basic theory (in form of notes) and a large number of solved and unsolved exercises.
  • 3,000 Solved problems in Physics. (Shaum’s solved problem series) Alvin Halpern. It contains no theory but only solved exercises covering the material of both Physics I and Physics II. Very useful in the clarification of techniques and methods for solving exercises from basic up to intermediate to advanced level.

Third-Party Accessibility and Privacy Statements

None

Student Learning Outcomes

Aside from the practical matter that  this course is likely a requirement to get your degree, there are actually many advantages in learning the material for you! Physics is, in many ways, a much simpler scientific discipline than the one you may be majoring in. In class, we will focus on fundamental principles. It is an excellent test case for the scientific method and for quantitative thinking and reasoning, which is important for all careers, even as a medical doctor or other health related professions. For those going into the medical profession, the experiments you will perform in life sciences – on real humans – will, in fact, be much more difficult to interpret than those we do in the Physics class. Thus, this is an opportunity for you to start your training with simple quantitative reasoning. In the course of the semester, we will apply the concepts to real-world situations and see them work at high precision. Many physics concepts will apply to medicine or any discipline involving “real-life”!

The Student Learning Outcomes for each module are listed below.

Module 1 – Vectors

  • Students will be able to carry out simple operation with vectors in 2D and 3D. 

Module 2 – Electric charge and electric field

  • Students will be able to describe the concept of electric charge, and simple phenomena such as attraction and repulsion of charges and polarization.
  • Students will be able to describe Coulomb’s law, calculate the force between two simple charged objects and describe the resulting motion of the objects.
  • Students will be able to describe the electric field created by a charge.

Module 3 – Electric potential energy and electric potential

  • Students will be able to describe the concept of electric potential energy, and situations involving conservation of energy.
  • Students will be able to describe the concept of electric potential and its relation to electric potential energy.
  • Students will be able to define a capacitor, its capacitance, the electric potential and the energy stored in the capacitor and the effect of working with capacitors in series or parallel on the capacitance.

Module 4 – Current, Resistance and Ohm’s Law

  • Students will be able to define and calculate electric current, resistivity and resistance in a material.
  • Students will be able to describe and apply Ohm’s law in a DC circuit with a resistor.
  • Students will be able to calculate electric power.

Module 5 – Circuits and DC Instruments

  • Students will be able to differentiate resistors in series and resistors in parallel, and understand the behavior of these configurations.
  • Students will be able to understand the flow of charges in a circuit with multiple branches, and calculate the voltage across resistors.
  • Students will be able to understand the charge and discharge of a capacitor in a RC circuit with a DC source. 

Module 6 – Magnetism

  • Students will be able to determine the magnetic field created by a magnet, a current-carrying straight wire, a current-carrying loop with 1 turn or more, and a solenoid.
  • Students will be able to determine the magnetic force experienced by a moving point charge or by a current-carrying wire in a magnetic field.

Module 7 – Electromagnetic Induction, AC Circuits and Electrical Technologies

  • Students will be able to calculate magnetic flux.
  • Students will learn Lenz’s law, the concept of inducing a current in a loop of wire with a varying magnetic flux.
  • Students will learn the concept of induced emf and apply it to motional emf.
  • Students will learn the concept of mutual and self-inductance.
  • Students will learn the function of transformers and the voltage and current conversion process within them.
  • Students will learn and work with AC circuits with up to 3 components.

Module 8 – Electromagnetic Waves

  • Students will be able define the relationship between electric field, magnetic field and speed of light for an electric wave propagating in air.
  • Students will be able define the average intensity and peak intensity of an electromagnetic wave.
  • Students will be able define the average power.

Module 9 – Wave Optics

  • Students will be able understand and describe the propagation of light in a medium.
  • Students will be able understand the concept of interference.
  • Students will be able solve problems related to different cases of interference, including a double slit aperture, a diffraction grating, a single slit, a circular aperture and a thin film interference.
  • Students will be able solve problems related to light polarization.

Module 10 – Geometric Optics

  • Students will be able define the principles of reflection, refraction and critical angles.
  • Students will be able define the thin lens equation and magnification for lenses and mirrors.

 

In addition to the concept of physics II and their applications,  students will develop the following Learning Outcomes:

  • Students will be able to operate a calculator for the level of algebra required for the course.
  • Students will be able to work in groups, including for efficient communication, reporting and critical discussion
  • Students will develop problem solving skills

The Student Learning Outcomes will be evaluated by  various methods: short quiz for each module, three midterm exams, and one final exam. The weight of each assignment and the letter grade attributed in this course are described below

 

Course Activities

The course material covers Electricity, Magnetism and Optics. In the "studio" format we will combine lectures, recitation, and laboratory experiments together on the material which will be covered for each module. The main objective is to understand basic fundamentals of electricity, magnetism and optics and their applications in real life experiences. This class will help you to think, interpret them in terms of theories and verify them by performing experiments.

The activities for this section of PHY2054 will be organized in Modules. For each module, the activities will include:

  • Reading and watching videos for each modules
  • Completing worksheets to practice the material covered in the module. This is open-book and can be done as a group. For each worksheet, there will be a small part that needs to be done in class.
  • Completing Labs and Lab reports. This will be done as a group.
  • Completing the Quiz for each module. This will be done individually.

At the specified times on the Course Schedule,  you will also be required to:

  • Complete three Midterms. Each Midterm will be a combination of 16 Multiple Choice questions and 1 open problem to solve, for a total of 100 points.
  • Complete the final exam .  The final exam will be comprehensive,  and will include 25 Multiple Choice questions and 2 open problems for a total of 200 points.
  • In preparation for each exam, a set of practice problems will be provided with limited keys. 
  • Extra credits: the instructor will provide a few opportunities for extra credit during the semester.
  • You should have regular access to the internet and plan on logging into the course daily.
  • This is a fast paced course. You should plan to dedicate 14-15 hours of work to this course on a weekly basis (~ 3 hours for reading/videos, ~5 hours for worksheets and practice problems, ~ 6 hours for  lectures, discussions, problem solving sessions and labs).

It is extremely important NOT to get behind! Physics builds on itself inexorably, and once you are behind, it becomes very difficult to catch up with it again.

One very important thing to remember is that Physics requires a lot of practice. Reading a section, does not mean that you fully understand it. Until you can consistently do the problems successfully, you should continue to solve problems until you understand the concept. We will work together on this aspect.

Activity Submissions

All submissions will be done via Webcourses using "Assignments". 

Attendance/Participation

Attendance and participation is strongly recommended. For any absence, please inform the instructor or the GTA.

 

Students are required to work in groups (approximately 3 students in each group). Each student in a group is expected to participate actively in discussions, performing experiments, solving problems and short presentations. Groups will be formed via Webcourses.

Students will be required to participate:

  • in group-labs during the course hours. Except for “acceptable absence”, absent students for the Lab component will receive a reduced grade that will be determined by their participation in the final report of the Lab. 
  • in group sessions to work on the worksheets problems. These session will be  supervised by the TA and  the LA. 
  • Quizzes, mid-terms and the final exam  Except for “acceptable absence”, students are required to be present during tests time. Any non-acceptable absence will result with a zero for that test. Students registered with SAS will have extended test time according to SAS recommendations.

The Undergraduate Catalog states, “Reasons for acceptable absences may include illness, serious family emergencies, special curricular requirements (e.g., judging trips, field trips, professional conferences), military obligations, severe weather conditions, and religious holidays.”

Make-up Exams and Assignments

Per university policy, you are allowed to submit make-up work (or an equivalent, alternate assignment) for authorized university-sponsored activities, religious observances, or legal obligations (such as jury duty). If this participation conflicts with your course assignments, I will offer a reasonable opportunity for you to complete missed assignments and/or exams. The make-up assignment and grading scale will be equivalent to the missed assignment and its grading scale. In the case of an authorized university activity, it is your responsibility to show me a signed copy of the Program Verification Form for which you will be absent, prior to the class in which the absence occurs. In any of these cases, please contact me ahead of time to notify me of upcoming needs.

Assessment and Grading Procedures

The table shows the weight distribution for each assignment.

Assignment

Percentage of Grade

Midterm 1

                                      40%

(lowest grade is dropped)

Midterm 2

Midterm 3

Worksheets

10%

Quizzes

10%

Lab

15%

Final

 25%

Total

100%

 

The table shows the range for each letter grade and uses an A,B,C,D,F grading system.

Letter Grade

Points

A

85 – 100 %

B

75 - 84.99 %

C

60 - 74.99 %

D

50 - 59.99 %

F

below 50

Consult the latest Undergraduate or Graduate catalog for regulations and procedures regarding grading such as Incomplete grades, grade changes, and grade forgiveness.

Course Schedule

The course schedule is provided HERE

 


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Policy Statements