PY/MA 370 Mathematical Methods for Physical Sciences I

Syllabus

handouts syllabus pdf flier photographs

Office Hours

Monday, 1-3, Thursday 3-4, and Friday 1-2 (no appointment necessary). Feel free to make an appointment if you cannot come to my regular office hours.

Textbook

No textbook required. Handouts with new material and practice problems will be distributed for each teaching unit.

Technology

Matlab will be used extensively. All students are also recommended to have a calculator.

Topics Covered

1. Line and surface integrals, flux, Stokes' and Divergence Theorems
2. Complex functions and complex integrals
3. Fourier Series Fourier Transform
4. Series solutions of ordinary differential equations
5. Groups, Symmetry Groups of Molecules, intro to Group Representations

Fourier Series and Transform. Students will learn about the Fourier transform and its use in nuclear magnetic resonance and signal processing.

Complex numbers, contour integrals, residues, Divergence and Stokes theorems. These topics represent basics for numerous and widespread applications.

Series solutions of ODEs covers a method of finding solutions of ODE with nonconstant coefficients that appear in physics applications.

Groups and Symmetries of Molecules. Group theory is a powerful mathematical theory used in physics and chemistry, in particular quantum mechanics, crystallography and spectroscopy. Students will learn the mathematical definition of a group, basics of the theory of finite groups and point groups and their applications.

These mathematical topics will be related to specific problems in various areas of physics and physical science such as fluid dynamics, electricity and magnetism, quantum mechanics, thermodynamics, biophysics, and mechanics. For students interested in continuing their education at a graduate level, the course presents some mathematical techniques that certain graduate programs in physics, chemistry and engineering use.

The course emphasizes general ideas, not just mastering various techniques or methods. The underlying theme behind most course topics (Fourier Transform, Groups and Symmetries and Series Solutions) is that it might be easier to solve a certain problem by translating it to a different set up, solve it there and then translate the solution back into the original setting. This general principle of problem solving is often used in various fields and will be a useful concept for the students to acquire.

Tentative exam dates

Exam 1: during the 4th week of classes.
Exam 2: during the 7th week of classes.
Exam 3: during the 10th week of classes.
Exam 4: during the finals week.

Grading

Exams 1, 2 and 318% each
Exam 422%
Assignments12%
Project12%
TOTAL100%
Grades are computed according to the following system:
A+ A A- B+ B B- C+ C C- D+ D D- F
grade 97-100 93-96 90-92 87-89 83-86 80-82 77-79 73-76 70-72 67-69 63-66 60-62 0-59

Prerequisites

PY212 and Calculus 3 or the permission of instructor.

Attendance

Since the course is mostly based on material covered in class handouts, it is absolutely imperative that students attend all classes. Students are responsible for all material covered in class, even if attendance is not checked or assignments collected.

Exams

There will be four semester exams. No makeup exam will be given unless the excuse for missing the scheduled exam is acceptable to the instructor. Any makeup exam must be taken before the next regularly scheduled exam. No exam grade will be dropped.

Assignments and Project

There will be four assignments and one student project concentrated on applications of mathematics to physics or proofs in mathematics. Sample project topics will be distributed. There will be no makeup assignments. Assignments or projects turned in after their due date will receive an automatic reduction in grade. No assignment or project grade will be dropped.

Course Objectives

  • use the mathematical methods to develop strategies to solve real world physics and physical science problems;
  • develop mathematical models from physical principles, solve problems using of mathematical techniques covered in the course and verify the validity of the solutions obtained;
  • present the findings in a form of a written report.

Learning outcomes

Students will:
  • acquire knowledge of various mathematical concepts and techniques required for successful application of mathematics in physics and related sciences;
  • be able to model data using the language and techniques of mathematics;
  • be able to understand and solve multidisciplinary application problems using mathematical methods;
  • demonstrate ability to present their results in a written report.

Academic integrity

Academic integrity is at the center of the educational experience at USciences. Students are therefore expected to uphold the highest standards of academic integrity and not engage in or tolerate academic dishonesty. Academic dishonesty includes, but is not limited to, fabrication, cheating or plagiarism. Any violation of academic integrity will be investigated and, where warranted, the student will receive appropriate sanctions through the University's Student Conduct Process. Please familiarize yourself with the current USciences Student Handbook. Adheren ce to the Student Conduct Policy and Academic Integrity Policy will help to ensure that your learning and living experiences are founded on integrity.

Americans with Disabilities Act (ADA) Compliance Statement

USciences supports the educational endeavors of all students, including students with disabilities. ADA defines a disability as a mental or physical impairment that substantially limits one or more major life activities. If you believe that you have a disability that may impact your ability to fulfill your course or degree requirements, and you would like more information on applying for an accommodation under ADA, please contact the Administrator of Student Accommodations at 215-596-8758.