Chapter V
z_(n+1) = e^(z_n^t - z_n^-t) + c - 1
t increases from 5 to 6. The image is rotated 90° clockwise.
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Chapter V
z_(n+1) = e^(z_n^t - z_n^-t) + c - 1
t increases from 5 to 6. The image is rotated 90° clockwise.
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You Were Never Here II, Digital Collage, 2026.
z_(n+1) = z_n² + i^(4tn)c
Augmented Hexagonal Prism
z_(n+1) = ½^a * (i^(-16t) * (1 + cos(2πt))^a * z_n⁷ + i^(-12t) * (1 + cos(2π(t+⅓)))^a * z_n⁴ + i^(-8t) * (1 + cos(2π(t+⅔)))^a * z_n⁵) + c(-1)^n
a = log_((1+cos(π/3))/2)(½)
Gyroelongated Pentagonal Cupolarotunda
z_(n+1) = ½^a * (i^(-16t) * (1 + cos(2πt))^a * z_n⁶ + i^(4t) * (1 + cos(2π(t+¼)))^a * z_n⁴ + i^(-4t) * (1 + cos(2π(t+½)))^a * z_n⁵ + i^(16t)(1 + cos(2π(t+¾)))^a * z_n⁶) + c(-1)^n
a = log_((1+cos(π/4))/2)(½)
Roots
Dipole
z_(n+1) = log_(z_n⁴ + z_n^-4)(c)
z₀ = c
100,000,000 random complex values of c are sampled; 0-128 iterations for red, 16-256 for green, 92-128 for blue.
Get pulled in
Chapter V
z_(n+1) = z_n^(2 + t) + c if n is even
z_(n+1) = e^((1 + t/2)z_n) + e^((-1 - t/2)z_n) - 2 + c if n is odd
t increases from 4 to 5.
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Elongated Square Gyrobicupola, or Pseudorhombicuboctahedron
z_(n+1) = ½^a * (i^(8t) * (1 + cos(2πt))^a * z_n⁵ + i^(16t) * (1 + cos(2π(t+¼)))^a * z_n⁴ + i^(-16t) * (1 + cos(2π(t+½)))^a * z_n⁴ + i^(-8t) * (1 + cos(2π(t+¾)))^a * z_n⁵) + c(-1)^n
a = log_((1+cos(π/4))/2)(½)
Signal Interference.
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Chapter IV
z_(n+1) = z_n^(2 + t) + c if n is even
z_(n+1) = e^((1 + t/2)z_n) + e^((-1 - t/2)z_n) - 2 + c if n is odd
t increases from 3 to 4.
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z_(n+1) = z_n^(3 + 2sin(t)) + c if n is even
z_(n+1) = z_n^(3 - 2sin(t)) + c if n is odd
Square Gyrobicupola
z_(n+1) = ½^a * (i^(8t) * (1 + cos(2πt))^a * z_n⁵ + i^(4t) * (1 + cos(2π(t+¼)))^a * z_n⁴ + i^(-4t) * (1 + cos(2π(t+½)))^a * z_n⁴ + i^(-8t) * (1 + cos(2π(t+¾)))^a * z_n⁵) + c(-1)^n
a = log_((1+cos(π/4))/2)(½)
Stripe Matrix ⚪️🔴🔵🟢
Why stop at cubic splines? You can't really be the best at something so algorithmic. I like what you are doing tough. ;3
Check out #cubic spline interpolation and see who made all the top posts :)
Chapter III
z_(n+1) = z_n^(2 + t) + c if n is even
z_(n+1) = e^((1 + t/2)z_n) + e^((-1 - t/2)z_n) - 2 + c if n is odd
t increases from 2 to 3.
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Chapter V
z_(n+1) = z_n^(1 + t) + c if n is even
z_(n+1) = z_n² + c if n is odd
t increases from 4 to 5.
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