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I think alot of you new-agers a making way too much of fractals again.
Always blithering on about 'higher consciousness' and 'spiritual energy'.
s,t = var('s, t')
Tx(s,t)=(2+cos(t))*cos(s)
Ty(s,t)=(2+cos(t))*sin(s)
Tz(s,t)=sin(t)
%This shows the torus
T=parametric_plot3d((Tx(s,29*s),Ty(s,29*s),Tz(s,29*s)),(s,-pi,pi),plot_points=240)
T.frame_aspect_ratio([3.0,3.0,1.0])
T.show()
%This shows one of the possible knot
T=parametric_plot3d((Tx(2*s,4*s),Ty(s,4*s),Tz(s,4*s)),(s,-pi,pi),plot_points=100)
T.frame_aspect_ratio([3.0,3.0,1.0])
T.show()
Plasma astrophysicists at the University of Warwick have found that key information about the Sun's 'storm season' is being broadcast across the solar system in a fractal snapshot imprinted in the solar wind. This research opens up new ways of looking at both space weather and the unstable behaviour that affects the operation of fusion powered power plants.
Fractals, mathematical shapes that retain a complex but similar patterns at different magnifications, are frequently found in nature from snowflakes to trees and coastlines. Now Plasma Astrophysicists in the University of Warwick's Centre for Fusion, Space and Astrophysics have devised a new method to detect the same patterns in the solar wind.