MA8404 Numerical solution of time dependent differential equations, fall 2015

Lectures

  • Room 822
  • Tuesdays 10:15-13:00, with a 30 minute lunch break at 11:45
  • Wednesdays 12:30-14:00

Meetings during the week of 21-25 September are:

  • 16:00-17:00 on Monday, 21 September, we meet in 734
  • 12:00-13:00 on Wednesday, 23 September, we meet in 734

Instructor

  • Brian E. Moore, Guest Associate Professor from the University of Central Florida
  • E-mail: brian.moore@ucf.edu
  • Office: 1348

Resources for Learning

  • Hairer, Lubich, Wanner, Geometric Numerical Integration (GNI), Springer (2000)
  • Leimkuhler and Reich, Simulating Hamiltonian Dynamics (SHD), Cambridge (2004)
  • Harier, Norsett, Wanner, Solving Ordinary Differential Equations I: Nonstiff Problems (SODE I) 2nd ed, Springer (1993)
  • Harier, Wanner, Solving Ordinary Differential Equations II: Stiff and Differential-Algebraic Equations (SODE II) 2nd ed, Springer (1996)
  • Thomas, Numerical Partial Differential Equations: Finite Difference Methods (NPDE), Springer (1995)

Course Goals

The aim of this course is to teach students how to derive, analyze and implement numerical methods for solving time dependent differential equations (ODEs and PDEs). To achieve these aims, students will numerically solve mathematical problems and mathematically analyze the methods used for numerical solution. This course will cover the basic topics of stability, accuaracy, and efficiency for various numerical algorithms. By the end of the semester students should be able to

  • Select and implement numerical methods that are most suitable for a given application.
  • Determine the stability, order of accuracy, and structure-preserving qualities of a given numerical method.
  • Participate in scientific discussions and simple research related to the course topics.

Tentative Schedule

Week Topics Relevant Texts Suggested Exercises
17.08 - 21.08 Information meeting, Room 734, 10:00-11:00, 18 August
24.08 - 28.08 Preliminaries, Euler's Method, Runge-Kutta Methods
31.08 - 04.09 Collocation, Composition and Splitting Methods GNI II; IV.1-2; SHD 2 GNI II.6 #2,4,5,6(a); SHD 2.7 #2,8
07.09 - 11.09 Numerical Preservation of Invariants, Symmetry, and Symplecticity GNI V.1-3; VI.1-4; SHD 3,4 GNI VI.8 #1,4; SHD 3.7 #3,6; 4.6 # 2,11
14.09 - 18.09 No Lectures
21.09 - 25.09 Individual Meetings to Discuss Projects, Class meetings:16:00-17:00, 21 Sep. in 734; 12:00-13:00, 23 Sep. in 734 SHD 2.7 #6; 4.6 #5(b)
28.09 - 02.10 Backward Error Analysis GNI IX.1-4; SHD 5 GNI IX.11 #5; SHD 5.5 #1,8; 12.4 #6
05.10 - 09.10 No Lectures
12.10 - 16.10 Multi-Symplectic Integration SHD 12 SHD 12.4 #1,2,4,
19.10 - 23.10 Equations with Dissipation, Exponential Integrators
26.10 - 30.10 Multi-Step Methods SODE I: III.1-3 SODE I: III.2 #1(a),2,5
02.11 - 06.11 Stiff Equations SODE II: IV SODE II: IV.2 #5; IV.3 #7; IV.7 #3, IV.9 #3
09.11 - 13.11 Highly Oscillatory Equations and Parabolic PDEs GNI XIII.1-4; NPDE 4 GNI XIII.9 # 1, 2; NPDE 4.3.1, 4.4.6
16.11 - 20.11 Problem solving sessions and project presentations
14 December Final Written Exam: 13:00-16:00 in room 922

Project

Choose a topic related to your own Master or PhD studies and use the methods/techniques developed in this course in conjunction with your own research. Projects must be subitted in written form, no longer than 10 pages, not including supplementary material such as a cover page or bibliography. Projects must also be presented orally to the class at the end of the semester.

Exam

There will be a written final exam. Details will be posted as they become available.

2015-12-17, brianem