Skip to content

Part 3 · Course

MA385 CHAOS AND FRACTALS

Mathematical Sciences · 3 versions

Offerings are listed from 2027-1 Fall through 2031-1 Fall.

MA385 CHAOS AND FRACTALS

  • 3.0 credit hours
  • (BS=0.0, ET=0.0, MA=3.0)
  • Version 2013-2
  • In effect
Scope
This course introduces topics in fractal geometry and chaotic dynamical systems, providing a foundation for applications and further study. The topics from fractal geometry include the military applications of image analysis and data storage. The chaotic dynamical systems studied in the course are one-, two-, and three-dimensional, nonlinear, discrete and continuous dynamical systems. Topics include the logistics equation, the Henon attractor, the Lorenz equations, bifurcation theory, Julia sets, and the Mandelbrot set. These topics have applications in many fields of science, and examples from biology, meteorology, engineering, and the social sciences are studied. The course integrates concepts introduced in the core mathematics courses.
Lessons
40 @ 55 min (2.500 Att/wk)
Labs
0 @ 0 min
Special requirements
One (or more) special problem(s).
Prerequisites
one of
MA385 version 2013-2 offerings
Term Sections Section size Capacity Enrolled Wait list Seats Closed Details
2027-1 Fall 1 18 18 8 0 10 No Hours for 2027-1 Fall
2029-1 Fall 1 18 18 4 0 14 No Hours for 2029-1 Fall

MA385 CHAOS AND FRACTALS

  • 3.0 credit hours
  • (BS=0.0, ET=0.0, MA=0.0)
  • Version 2003-1
  • Archived
Scope
This course introduces topics in fractal geometry and chaotic dynamical systems, providing a foundation for applications and further study. The topics from fractal geometry include the military applications of image analysis and data storage. The chaotic dynamical systems studied in the course are one-, two-, and three-dimensional, nonlinear, discrete and continuous dynamical systems. Topics include the logistics equation, the Henon attractor, the Lorenz equations, bifurcation theory, Julia sets, and the Mandelbrot set. These topics have applications in many fields of science, and examples from biology, meteorology, engineering, and the social sciences are studied. The course integrates concepts introduced in the core mathematics courses.
Lessons
40 @ 55 min (2.500 Att/wk)
Labs
0 @ 0 min
Special requirements
One (or more) special problem(s).
Prerequisites
one of

MA385 CHAOS AND FRACTALS

  • 3.0 credit hours
  • (BS=0.0, ET=0.0, MA=0.0)
  • Version 1994-2
  • Archived
Scope
This course introduces topics in fractal geometry and chaotic dynamical systems, providing a foundation for applications and further study. The topics from fractal geometry include the military applications of image analysis and data storage. The chaotic dynamical systems studied in the course are one-, two-, and three-dimensional, nonlinear, discrete and continuous dynamical systems. Topics include the logistics equation, the Henon attractor, the Lorenz equations, bifurcation theory, Julia sets, and the Mandelbrot set. These topics have applications in many fields of science, and examples from biology, meteorology, engineering, and the social sciences are studied. The course integrates concepts introduced in the core mathematics courses.
Lessons
40 @ 55 min (2.500 Att/wk)
Labs
0 @ 0 min
Special requirements
One special problem.
Prerequisites
one of