MA360, Lia Vas    --     SYLLABUS

1. Prerequisites: MA201.  MA202 recommended but not required.

2.  Since the course is mostly based on material covered in class handouts and classwork, it is absolutely imperative that students attend classes.  Students are responsible for all material covered in class, even if attendance is not checked or assignments collected. There will be 3 assignments and one student project + presentation. No assignment grade will be dropped. Assignments turned in after their due date will receive an automatic reduction in grade.  

Tentative Schedule:

1.      Recursive formulas in Chemistry. Programming in MATLAB and on TI83 (3.5 weeks)

2.      Groups, Symmetry Groups o f Molecules, (4.5 weeks)

3.      Fourier Series, Complex Functions, Fourier Transform (4 weeks)

4.      Presentations, Guest Speakers (2 weeks)

Course is based on: 

1.  Mathematical Physics, Eugene Butkov, Addison-Wesley, 1968. 
2.  Analytical Chemistry, Alan L. Foly, Eckerd College, preprint, 2001. 
3.  Symmetry and Structure, S.F.A. Kettle, John Wiley & Sons, 1986. 
4. When Topology Meets Chemistry, Erica Flapan, Cambridge Univ. Press and MAA, 2000.
5. various websites (details in handouts)

3.  Course Objectives: to obtain a well rounded introduction to the various areas of mathematics especially those mostly needed for applications to chemistry and/or medical imaging. The course will be covering the following three topics:
        1.    Fourier Transform. Students will learn about the Fourier transform and will find out why it is used widely in nuclear magnetic resonance, spectroscopy, magnetic resonance imaging and signal processing.
        2.    Groups and Symmetries of Molecules. Group theory is a very powerful mathematical tool used in quantum chemistry and spectroscopy. Students will be exposed to the idea of using the geometric structure of a molecule to conclude something about electronic structure. Students will also learn the basics of topology and algebraic topology and how the group theory is used to obtain information about a space of interest. 
        3.    Recursive formulas in Chemistry. Students will learn about basics of programming and will write programs for TI83 calculators and programs in MATLAB that will model certain chemical equations.

Learning outcomes:

1.    The course gives the students a deeper insight into the material learned in certain chemistry courses and better understanding of various techniques used in research in chemistry and medical imaging. The student will also acquire knowledge of various mathematical concepts and modeling techniques required for successful application of mathematics in chemistry and medical imaging.
2.    For students interested in continuing their education at a graduate level, it provides them with mathematical techniques that certain graduate programs in chemistry use.
3.    It involves the students in the interaction of two different fields. A student interested in a career in science is likely to be a part of a research team consisting of different professionals. The material exposed in the course will enable students to better interact with other members of that team. Also, the students will visit the Laboratory for Structural NMR Imaging at the University of Pennsylvania. They will encounter a research group consisting of medical doctors, engineers, physicists, and medical professionals. They will observe how the ideas presented in the course are applied in a real world scientific laboratory and how professionals in different fields work as a team.
4.    The course emphasizes research ideas, not just mastering various techniques or methods. The underlying theme behind all course topics (
Fourier Transform, Groups and Symmetries and applications of recursive equations) is that it might be easier to solve a certain problem by translating it to a different field, solving it there and then translating 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.

4. Academic integrity: Academic integrity is at the center of the educational experience at USP. Students are therefore expected to uphold the highest standards of academic integrity and not engage in nor tolerate academic dishonesty. Academic dishonesty includes, but is not limit 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 USP Student Handbook. In particular, adherence to the Student Conduct Policy and Academic Integrity Policy will help to ensure that your learning and living experiences are founded on integrity.

Any academic dishonesty, including but not limited to academic dishonesty on assignments and exams, might result in an “F” grade for the course and may also be subject to disciplinary action.  Please read the Student Conduct Policy on pages 27 – 35 of the student handbook.

5. Americans with Disabilities Act (ADA) Compliance Statement: USP supports the educational endeavors of all students, including students with disabilities.  The American’s with Disabilities Act (ADA) defines a disability as a mental or physical impairment that substantially limits one or more major life activities.  If you believe 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, please contact the Assistant Dean of Students who serves as the SDSS Coordinator at 215-596-8950.