Lacunas and ramification of volume functions at simple asymptotic hyperplanes and monodromy of boundary function singularities
N. M. Artemov

TL;DR
This paper investigates the behavior of volume functions at special hyperplanes, linking their regularity and singularities to boundary function singularities and monodromy, extending classical results to asymptotic cases.
Contribution
It introduces a new analysis of volume functions at asymptotic hyperplanes, defining Petrovsky classes and lacunas, and relates these to boundary function singularities and monodromy groups.
Findings
Defined and computed local Petrovsky classes for asymptotic hyperplanes.
Identified conditions under which volume functions form lacunas.
Calculated local monodromy groups for volume functions.
Abstract
The volume function defined by a domain in Euclidean space is the function on the space of affine hyperplanes equal to volumes cut by these hyperplanes from the domain. The study of these functions originates from the works of Archimedes and Newton and is closely related to the theory of lacunas of hyperbolic partial differential equations.The volume functions are regular at the hyperplanes of general position with respect to the boundary of the cut domain. We study their behavior at the non-regular hyperplanes, which are either tangent to the boundary of the domain at its finite points or have asymptotic direction. In both cases the local regularity of the restriction of the volume function to a local connected component of the set of regular planes depends on the triviality of a certain relative homology class, the (generalized) even Petrovsky class. In the first case…
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Taxonomy
TopicsScientific Research and Studies · Advanced Theoretical and Applied Studies in Material Sciences and Geometry · Advanced Mathematical Modeling in Engineering
