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| Theo Jansen's "Strandbeest" |
In the
fifth grade, my teacher introduced class projects in which we played with
perspectives, rulers, and protractors to draw out detailed cityscapes, and I
discovered that being a terrible artist didn’t necessarily mean that I was a
terrible artist. In the Math + Art section of this course, I could explore this
idea in more depth. For one, I had been unaware of how closely tied art and
biology were in centuries past. As Vesna related, Al Haytham around 1000 AD
related perspective to the science of vision, and ended up defining the
scientific method. Similarly, in his TED Talk, Theo Jansen combined physics and
electricity with the artistic aspects of proportions and geometry to produce
“mechanical beasts” that walk along the ocean, using electricity and wind power
to move themselves.
Perhaps
most interesting, I thought, were Pollock’s fractals. These works of art are
the shoreline where art and science meet, as mathematical formulas produce
figures that repeat themselves in different sizes to create a geometrically and
aesthetically beautiful image. Pollock took this mathematical concept and reproduced
it in his paintings. His “canvases seemed to create repeating patterns at
different size scales – just like fractals.”
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| Number 14, one of Pollock's famous paintings |
The
unfavorable critical response to Pollock’s seems anachronous at first,
especially considering the natural predisposition to the type of repetition
found in these fractal forms. DNA strands contain repeating segments of purines
and pyrimidines, muscles are composed of myofibrils that in turn consist of
thick and thin filaments, and so on. Yet critics were repulsed by the concentrated
fractals produced by Pollock. James Wise, an adjunct professor of environmental
science, suggested that settings “with high fractal dimensions” were ones in
which early humans were “most vulnerable, and thus most uneasy,” which could
explain these reactions to Pollock’s work.
A visual mix of art and science - a musical rollercoaster
Overall, science and art can provide guidelines and insights to each other’s work. As technology entered the mix (e.g. computer-generated animation replacing hand-drawn images in movies), the mingling between these two disciplines increased. Many forms of art are now impossible without the science to produce them, and much of modern science would be incomprehensible without photographs, drawings, and diagrams to visualize microscopic entities. This relationship extends throughout other fields. Architecture requires aesthetics and mathematics, while musical scales have both a mathematical and artistic element to them.
Sources
Pollock, Jackson. Number 14. Digital Image. Number 14: Gray. Yale University Art Gallery, 2012. Web.
Vesna, Victoria. "Math and Art." Lecture.
Jansen, Theo. "Transcript of 'My Creations, a New Form of Life.'" TED, March 2007. Web.
Jansen, Theo. "Mini Beasts." STRANDBEEST. Theo Jansen, n.d. Web.
Virtualrepublic. "ZKO Rollercoaster // GREAT EMOTIONS." YouTube, 14 May 2009. Web.




