Input and Output Dimensionality Define Function Complexity
Functions map between input and output spaces, with each space possessing its own dimensionality determined by the number of independent variables or values.
Hyperdimensional Functions: Many Inputs, Many Outputs
The term “hyperdimensional functions” intentionally provokes mathematicians because strictly speaking, functions themselves lack dimensionality—only their inputs and outputs possess dimensional properties.
Parametric Functions Map Input Lines to Output Curves
Parametric functions transform arbitrary parameter ranges into geometric curves and surfaces by treating inputs as lengths rather than spatial coordinates.
UV Mapping: Translating Spatial Coordinates to Color Values
UV mapping in computer graphics transforms coordinate values into color values (RGB), providing an alternative visualization method for parametric functions.
Infinite Stacks of Slices Build Higher Dimensions
Higher-dimensional objects emerge through the principle that an infinite stack of slices from dimension N creates dimension N+1.
Time as Dimension: Spreading Functions Across Temporal Slices
Adding time as a third input variable (t) alongside spatial inputs (u,v) creates spacetime representation, allowing functions to evolve and be explored temporally.
Parameters as Control Knobs: Exploring Infinite Function Spaces
The parameter system allows adding unlimited inputs while visualizing only single slices where parameters are held constant, treating each parameter as a tunable control knob.
Navigating Infinite Parameter Spaces Through Strategic Exploration
With numerous parameters creating combinatorially explosive spaces, strategic navigation becomes essential since exhaustive exploration proves impossible.
Parameters as Genes: Genotype-Phenotype Mapping in Functions
The biological analogy runs deep: parameters function like genes of mathematical creatures, with evolution exploring different parameter sets just as natural selection explores genetic combinations.
Neural Networks as Universal Function Approximators
Neural networks are functions that can construct any conceivable function given sufficient parameters, making them universal function approximators.