Article | REF: AF213 V1

Geometric Measure Theory

Author: Jean-Charles PINOLI

Publication date: April 10, 2016

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ABSTRACT

Geometric measure theory focuses on the study of the geometric properties of subsets of the ordinary Euclidean spaces through the concepts and tools of the mathematical measure theory. This theory allows the implementation of concepts generalizing differential geometry to a class of surfaces that are not regular (i.e. continuously differentiable). This article presents the basic principles of the geometric measure theory. The n-dimensional Lebesgue measure and m-dimensional Hausdorff measures, the Minkowski contents and perimeter measures, the m-dimensional Gross and Favard measures, the fractional Hausdorff measures, the Lebesgue-Hausdorff densities, and the concepts of parallel sets and rectifiability are described.

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AUTHOR

  • Jean-Charles PINOLI: Professor - École Nationale Supérieure des Mines, Saint-Étienne, France

 INTRODUCTION

Two well-known mathematical problems are considered to be the precursors of geometric measurement theory: the isoperimetric problem and the Plateau problem.

The isoperimetric problem (or the problem of Dido, legendary founder and first queen of Carthage) consists in determining a plane figure with the largest possible area, but whose boundary has a specified length. This problem can be generalized to surfaces in three-dimensional Euclidean space, and also to hypersurfaces in dimensions greater than 3. The solution in the plane (i.e. a disk) was already known in ancient Greece (by Zenodorus), but the first mathematically rigorous proof was only obtained in the 19th century.

Plateau's (1849) problem (posed by J.-L. Lagrange in 1760) consists in determining a minimal surface (i.e. a minimal area) resting on a given closed edge. This problem is generalized to dimensions greater than 3. General solutions in the Euclidean plane were first published in the early 1930s, and in 1961 in dimensions greater than 3.

A. Besicovitch pioneered geometric measure theory in the Euclidean plane in the late 1920s and 1930s. In the 1950s and 1960s, H. Federer extended A. Besicovitch's work to Euclidean spaces of dimension greater than 2, and published a major treatise on this theory in 1969, of which he is considered the principal "founder".

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KEYWORDS

Minkowski contents   |   Hausdorff measures   |   rectafiability   |   geometric measures   |   volume measures


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Geometric measurement theory
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