Laws of large numbers in stochastic geometry with statistical applications

By Mathew D. Penrose. 2007

79 citations recorded by the source corpus.

Given $n$ independent random marked $d$-vectors (points) $X_i$ distributed with a common density, define the measure $\nu_n=\sum_i\xi_i$, where $\xi_i$ is a measure (not necessarily a point measure) which stabilizes; this means that $\xi_i$ is determined by the (suitably rescaled) set of points near $X_i$. For bounded test functions $f$ on $R^d$, we give weak and strong laws of large numbers for $\nu_n(f)$. The general results are applied to demonstrate that an unknown set $A$ in $d$-space can be consistently estimated, given data on which of the points $X_i$ lie in $A$, by the corresponding union of Voronoi cells, answering a question raised by Khmaladze and Toronjadze. Further applications are given concerning the Gamma statistic for estimating the variance in nonparametric regression.

Subfields: Environmental Engineering, Geometry and Topology, Statistics and Probability

View Paper: https://www.semanticscholar.org/paper/1f88a34fa8eb9688e9ff1b3c63180a2a42815df4

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In Environmental Engineering

  1. Joseph E. Yukich

In Geometry and Topology

  1. Joseph E. Yukich
  2. Matthias Schulte
  3. Raphaël Lachièze-Rey
  4. Mathew D. Penrose
  5. Günter Last
  6. Giovanni Peccati

In Statistics and Probability

  1. Matthias Schulte
  2. Mathew D. Penrose
  3. Joseph E. Yukich
  4. Raphaël Lachièze-Rey
  5. Günter Last
  6. Giovanni Peccati
  7. C. Thaele
  8. Peter Eichelsbacher

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