Reconstruction problems lie at the very heart of both mathematics and science, posing the enigmatic challenge: How does one resurrect a hidden structure from the shards of incomplete, fragmented, or distorted data? In this paper, we introduce a new approach that harnesses the profound insights of the Vaisman Atiyah–Molino framework. In stark contrast to conventional methods that depend on persistent homology, our approach exploits the concept of the Vaisman centroid—an intrinsic invariant that encapsulates the averaged geometry of a data set—to resolve the inherent ambiguities of inverse problems. In the present paper, we focus on the theory and applications of the Vaisman centroid, offering an innovative perspective for Topological Data Analysis that eschews persistent homology in favour of a unified geometric paradigm. The subsequent paper will extend these ideas to a full reconstruction scheme via the Atiyah–Molino framework. Our method not only provides a robust and computationally tractable framework for the recovery of hidden structures but also opens new avenues for the analysis of high-dimensional and noisy data across the mathematical sciences.

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Shape Theory and TDA via the Atiyah–Molino Reconstruction

  • Noémie C. Combe,
  • Hanna K. Nencka

摘要

Reconstruction problems lie at the very heart of both mathematics and science, posing the enigmatic challenge: How does one resurrect a hidden structure from the shards of incomplete, fragmented, or distorted data? In this paper, we introduce a new approach that harnesses the profound insights of the Vaisman Atiyah–Molino framework. In stark contrast to conventional methods that depend on persistent homology, our approach exploits the concept of the Vaisman centroid—an intrinsic invariant that encapsulates the averaged geometry of a data set—to resolve the inherent ambiguities of inverse problems. In the present paper, we focus on the theory and applications of the Vaisman centroid, offering an innovative perspective for Topological Data Analysis that eschews persistent homology in favour of a unified geometric paradigm. The subsequent paper will extend these ideas to a full reconstruction scheme via the Atiyah–Molino framework. Our method not only provides a robust and computationally tractable framework for the recovery of hidden structures but also opens new avenues for the analysis of high-dimensional and noisy data across the mathematical sciences.