The iteration of the simple equation A(t+1) = A(t) + g sin(A(t)) gener
ates fundamental numerical constants, ''biotic'' patterns with dynamic
features observed in empirical recordings of physiological data (but
not in chaos), bifurcations, chaos, an infinite number of periodicitie
s, and multiple nights toward infinity. For g < 2, the equation conver
ges to pi. At g > 2, outcomes bifurcate and diverge. In a significant
union of opposites, one path reaches the Fibonacci ratio describing sp
iral order when the opposite path achieves the Feigenbaum number descr
ibing chaos-inducing bifurcations. Chaotic patterns start when g appro
ximates Feigenbaum's point 3.56... . Biotic patterns start at g = 4.6
(Feigenbaum's constant). Pointing to numerical cosmic forms, significa
nt integer (2(n)) and irrational numbers occur as both outcomes and ga
in g. The equation embodies the basic postulates of process theory: (1
) iteration models the linear now of action (i.e., time); (2) the sine
function models the cycling of complementary opposites generating pos
itive and negative feedback.