Neural architecture optimizes topological constraints in deep learning, suggesting new approaches to reasoning tasks.
We present the Ψ-Former, a neural architecture that enforces topological constraintsthrough Riemannian optimization on Lorentzian manifolds. The architecture addresses theGeometric Capacity Bottleneck—the fundamental incompatibility between exponentially-branching hierarchical structures and polynomially-growing Euclidean spaces. By embed-ding representations in hyperbolic space and optimizing via natural gradient flows, the Ψ-Former achieves topological preservation and structural coherence. This framework providesfunctional benefits for hierarchical reasoning tasks without ontological claims.
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E. G. Reis (2026) studied this question.
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