After the first module about two cultures, I knew that arts
and humanities overlapped with math and science but I could only think of minor
ways that connected the two cultures in a shallow manner. “Flatland” by Edwin
Abbott Abbott brushed on merging the two cultures by using geometrical figures
and physics concepts of dimensional analysis and Einstein’s theory of
relativity to create a satire about the hierarchy of Victorian culture. For me,
the moment of truth that art, math, and science were all connected came when
I discovered the golden ratio, the Fibonacci number sequence, and fractals.
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| Mathematical depiction of the Golden Ratio |
The golden ratio (approximately 1:1.618) is such that when a
line is divided, the larger part divided by the smaller part is equal to the
whole line divided by the larger part. This creates an aesthetically pleasing
rectangle that is found in world famous paintings and architecture, thus using
math to create masterpieces through art.
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| Parthenon - Golden Ratio |
It is unknown if the architects and
artists knew of the ratio and included it into their creations consciously or
unconsciously but it may be that the use of the ratio is the reason for the
popularity of certain artworks or buildings. The human brain has a positive
reaction to proportionality and organization, especially in people with
obsessive compulsive disorder (OCD).
![]() |
| Junpei Sakino Fractal |
My favorite part of this module involved fractals. I was
fascinated by the notion of art being derived from mathematical equations and
algorithms. Junpei Sakino is famous for his fractals and has his own gallery at
a university in Oregon where he taught college level calculus up until his
retirement in 2006. Mr. Sakino encourages art by noting, “you don’t have to
know college level math to create a large number of fascinating images,
although higher math definitely helps you understand what’s under the hood and get
beyond the basic technical level”. Mr. Sakino proves that mathematical algorithims can create beautiful landscapes in additions to abstract fractals.
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| Junpei Sakino Landscape Fractal |
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| Flowering patterns in artichokes are nature's fractals |
![]() |
| Naturally occuring fractals can be found in shells home to a nautilus |
Citations
"African Fractals." Culturally-Situated Design Tools. Ron Eglash, 1 Jan. 2003. Web. 12 Apr. 2015. <http://www.ccd.rpi.edu/Eglash/csdt/african/African_Fractals/index.html>.
Artichoke image: http://seggleston.com/g3/var/albums/The-Culinary-Experience/Artichoke_12570.jpg?m=1359692197
"Fibonacci, Fractals, and Financial Markets - Socionomics.net." YouTube. Socionomics, 31 May 2007. Web. 10 Apr. 2015. <https://www.youtube.com/watch?feature=player_embedded&v=RE2Lu65XxTU>.
"Fractals - Mandelbrot." YouTube.
DJ DlimitR (aka Carl Scripter), 17 June 2006. Web. 10 Apr. 2015.
<https://www.youtube.com/watch?feature=player_embedded&v=ivRQDbAduoM>.
Fractals nautilus image: http://media.mnn.com/sites/default/files/styles/featured_blog/public/nautilus-feat.jpg
Golden ratio image: https://www.mathsisfun.com/numbers/golden-ratio.html
Junpei Sakino fractal images: http://www.willamette.edu/~sekino/fractal/gallerymain.htm
Parthenon image: http://www2.rgu.ac.uk/subj/ats/teachingweb/teaching/t26-DesignPrinciples/TheGoldenSection/Parthenon.jpg
Pierce, Rod. "Golden Ratio" Math Is Fun. Ed. Rod Pierce. 22 Nov 2014. 12 Apr 2015 <http://www.mathsisfun.com/numbers/golden-ratio.html>
Weisstein, Eric W. "Mandelbrot Set." From MathWorld--A Wolfram Web Resource. http://mathworld.wolfram.com/MandelbrotSet.html






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