More specifically, now with the 'new found' ability to raise 0 to the power 0 (or divide 0 by 0) is there any way classic attractors or fractal equations that escape to infinity (or zero) be tamed in some way to use nullity?
Perhaps the Circle Inversion Transformation could be useful in some way? Solutions to certain classic problems (e.g. the Apollonius 3-circle problem) can be found by inverting the geometry about a circle. This avoids some nasty divide by zeros and preserves various geometrical properties. For example, lines and circles that intersect before the transformation will intersect afterwards and vice versa. Basically you transform the problem into another spatial mapping, solve it there, and then transform it back.
This is relevant to the divide-by-zero problem because NaN/nullity etc is geometrically related to the inversion of the origin point using an inversion circle centred on the origin. To generalise, X/Y can be obtained by plotting Y and then inverting it using an inversion circle centred on the origin with radius X.
Division by zero of a real number r intuitively results in inifinty (becase you can take zero away from any number an infinite number of times). However it also results in negative infinity (since you can take zero away from -r as well). Inverting the origin about a unit circle to compute 1/0 yields a circle of infinite radius centred about the origin. Therefore the geometric meaning of NaN in the complex plane is not a single point but rather "infinity in all directions" (I think).
I wonder if circle inversion in the complex plane could be used to "tame" some fractal equations? I have generated some fractals using circle inversion a while ago but the results are basically simple 2-D distortions of the original fractal.