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This research introduces FactoMap, a novel framework that addresses the geometric limitations of standard Euclidean product coordinates in generative modeling. By incorporating position-dependent scales and topological identifications, the method effectively disentangles factors where statistical independence does not imply geometric separability, such as varying hue and scale rates. This advancement is significant for improving the interpretability and continuity of latent representations in complex generative tasks.
Beyond Uniform Local Isometry and Topology: FactoMap for Disentangled Representations
arXiv:2608.24762v1 Announce Type: cross Abstract: Many disentanglement methods represent generative factors using Euclidean product coordinates, although the underlying factor spaces may wrap, collapse, or have position-dependent geometry. We introduce factor-space structure, combining factor domains, generator-induced identifications, and position-dependent scales to distinguish topologically equivalent spaces with different factor geometries. We show that statistically independent factors need not be geometrically separable: hue and scale produce effects that grow at different rates, yielding anisotropy that no fixed rescaling removes. We propose the Factor-Space Topographic Map (FactoMap), which learns interpretable prototypes indexed by a factor-space lattice. Topographic learning transfers the lattice's periodicity, collapses, and non-uniform extent to the representation. Experiments show that matching this structure preserves factor continuity and enables disentanglement of the underlying factors.
Abstract:Many disentanglement methods represent generative factors using Euclidean product coordinates, although the underlying factor spaces may wrap, collapse, or have position-dependent geometry. We introduce factor-space structure, combining factor domains, generator-induced identifications, and position-dependent scales to distinguish topologically equivalent spaces with different factor geometries. We show that statistically independent factors need not be geometrically separable: hue and scale produce effects that grow at different rates, yielding anisotropy that no fixed rescaling removes. We propose the Factor-Space Topographic Map (FactoMap), which learns interpretable prototypes indexed by a factor-space lattice. Topographic learning transfers the lattice's periodicity, collapses, and non-uniform extent to the representation. Experiments show that matching this structure preserves factor continuity and enables disentanglement of the underlying factors.
Machine Learning (cs.LG); Artificial Intelligence (cs.AI)
arXiv:2608.24762 [cs.LG]
(or arXiv:2608.24762v1 [cs.LG] for this version)
https://doi.org/10.48550/arXiv.2608.24762 Focus to learn more arXiv-issued DOI via DataCite (pending registration)
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