We present a new mathematical formalism for analytically obtaining the probability density function, Pn(s), of the random distance s separated by two random points distributed in a geometric object defined in n-dimensional Euclidean space. The formalism allows us to calculate Pn( s) for a spherical geometric object in n dimensions having an arbitrary non-uniform density, and reproduces the well-known results for the case of uniform density. The results find applications in elementary particle physics, statistical physics, computational science, molecular biology, geostatistics, and stochastic geometry
This book covers topics of Informational Geometry, a field which deals with the differential geometr...
International audienceTaylor's law states that variance of the distribution of distance between two ...
Expressions for the hard-sphere nearest-neighbor probability distribution, PNN, and the associated m...
Many of the most fundamental forces in nature are dependent of the relative distance between points....
Geometric probability functions have been of interest for many years. As early as 1919 Deltheil [Del...
Geometric probability functions have been of interest for many years. As early as 1919 Deltheil Delt...
This paper derives the exact cumulative density function of the distance between a randomly located ...
We study different ways of determining the mean distance <rn> between a reference point and it...
International audienceIn the d-dimensional Euclidean space, any set of n+1 independent random points...
International audienceData often comes in the form of a point cloud sampled from an unknown compact ...
Data often comes in the form of a point cloud sampled from an unknown compact subset of Euclidean sp...
Abstract. We calculate the distribution and the expectation of the distance between two random point...
This paper presents a new proposition on how to derive mathematical formulas that describe an unknow...
Abstract. We determine exact expressions for the probability distribution and the average of the dis...
Let N points be uniformly randomly distributed in a d-dimensional ball of radius R, centered at the ...
This book covers topics of Informational Geometry, a field which deals with the differential geometr...
International audienceTaylor's law states that variance of the distribution of distance between two ...
Expressions for the hard-sphere nearest-neighbor probability distribution, PNN, and the associated m...
Many of the most fundamental forces in nature are dependent of the relative distance between points....
Geometric probability functions have been of interest for many years. As early as 1919 Deltheil [Del...
Geometric probability functions have been of interest for many years. As early as 1919 Deltheil Delt...
This paper derives the exact cumulative density function of the distance between a randomly located ...
We study different ways of determining the mean distance <rn> between a reference point and it...
International audienceIn the d-dimensional Euclidean space, any set of n+1 independent random points...
International audienceData often comes in the form of a point cloud sampled from an unknown compact ...
Data often comes in the form of a point cloud sampled from an unknown compact subset of Euclidean sp...
Abstract. We calculate the distribution and the expectation of the distance between two random point...
This paper presents a new proposition on how to derive mathematical formulas that describe an unknow...
Abstract. We determine exact expressions for the probability distribution and the average of the dis...
Let N points be uniformly randomly distributed in a d-dimensional ball of radius R, centered at the ...
This book covers topics of Informational Geometry, a field which deals with the differential geometr...
International audienceTaylor's law states that variance of the distribution of distance between two ...
Expressions for the hard-sphere nearest-neighbor probability distribution, PNN, and the associated m...