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Chaologists contend that not only in certain mathematical constructs, but also in the real world, there exist orderly systems in disguise, or chaos. Because the definition of chaos is so unwieldy, I have tried to summarize its main characteristics in the following table:
Mathematically, chaos can be achieved by the simple iteration of certain equations. The recipe for chaos in the real world, however, is still in theory stage. Chaologists propose several possible causes of chaos:
A control parameter is a constant in an equation for which we get to choose the value. Set the parameter's value at a certain number, and a system will evolve in a certain way. Set the parameter's value at a different number, and all chaos may break loose. Thus, the parameter is king, and dictates whether or not a system travels the chaotic route.
One of the main characteristics of chaos is sensitivity to initial conditions. In a chaotic system, a tiny historical accident can lead to a major and unexpected long-term outcome. Every other piece of chaos literature will cite the "butterfly effect" example; I offer another: Suppose that war is a chaotic system. Given this, the eventual fall of the powerful Roman Empire (big significant outcome) could be attributable to whether a single Roman soldier, at a certain point in a single battle, turned his head to the right or to the left (tiny, seemingly insignificant event).
Although extreme sensitivity to initial conditions alone does not necessarily
lead to chaos, it is a very important feature of chaos, for it is the factor that makes
long-term predictions meaningless.
Somewhere between our favorite dimensions of length, width, and height, the natural phenomenon of the fractal takes place. A fractal is a pattern of self-similarity; any part of the pattern can be extruded and magnified and will look like the whole. Look around and you will likely see a fractal: I see them in the stucco that decorates my house, and in bolts of lightning. Where fractals occur, chaos often does, too. Benoit Mandelbrot wrote the formula that allowed us to see the art of chaos via fractals. To generate a fractal, apply a simple feedback formula or algorithm to the numbers located on the "Mandelbrot Set", a region of the complex number plane. Plot the result. Any fractalnaut can create stunning organic-looking art in this manner.
Omnis ars naturae imitio est. (Seneca) My Chaos Art Exhibit features photographs and canvas paintings of self-similar images or fractals found in nature. I have not included any computer-generated fractals on this site, as they occur in great quantity elsewhere on the Web. The following sites should satisfy your craving for fractal art:
If you are lucky enough to find chaos in the system you are studying, you have power. The fact that chaos exists can:
Did you scroll down the page looking for an image to click on?
Try Pi, then buy Pi on
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Brush up on your chaos theory: Back to top
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Constructive feedback, questions and serious marriage proposals only, please. All content Copyright © 1999 Jessie Gietl
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