| Draw the graphs of the first six
Chebyshev polynomials in the interval [-1,1]. > m:=[cos(x),cos(n*x),x=0..Pi]; > plot({m$n=1..6},axes=none); ¡@ |
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| Draw this pretty leaf: >
w:=1+cos(t)/2:z:=t/6-sin(2*t)/12:x:=w*cos(z):y:=w*sin(z):
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| Draw the graphs of the polynomials
given by the binomial expansions
> restart; > m:=[x,binomial(100,k)*x^(100-k)*(1-x)^k,x=0..1]: > plot({m$k=0..100},axes=none);
¡@ |
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| Construct this pattern of the "sunflower": > r:=exp(t); > m:=64; > a:=plot([[r*cos(t+2*Pi*k/m),r*sin(t+2*Pi*k/m),t=3..5]$k=1..m], scaling=constrained,color=red,axes=none): > b:=plot([[r*cos(t+2*Pi*k/m),-r*sin(t+2*Pi*k/m),t=3..5]$k=1..m], scaling=constrained,color=blue,axes=none): > with(plots): > display(a,b); Reference: T. Cook:
The Curves of Life. ¡@ |
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| Construct he graph given in polar
coordinates by
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| Construct this interesting drawing:
> plot(2-cos(3*t)-cos(31*3*t/32),t=0..64*Pi,coords=polar,
Reference: William F. Rigge, Envelope Rosettes, Amer. Math. Monthly, (1920), p. 152. |
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| Draw this interesting pattern:
> plot(2-cos(7*t)-cos(31*7*t/32),t=0..64*Pi,coords=polar,
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| Draw this interesting pattern:
> plot(100+t+15*cos(3.05*t), t = 0 .. 200,
coords = ¡@ |
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