International audienceWe propose a probabilistic interpretation of Benford's law, which predicts the probability distribution of all digits in everyday-life numbers. Heuristically, our point of view consists in considering an everyday-life number as a continuous random variable taking value in an interval $[0, A]$, whose maximum $A$ is itself an everyday-life number. This approach can be linked to the characterization of Benford's law by scale-invariance, as well as to the convergence of a product of independent random variables to Benford's law. It also allows to generalize Flehinger's result about the convergence of iterations of Cesaro-averages to Benford's law
A mathematical expression known as Benford’s law provides an example of an unex-pected relationship ...
Using the sum invariance property of Benford random variables, we prove that an n-digit Benford vari...
Benford's law is studied in dependence on the base b> 1. It can hold to large bases b only approxima...
International audienceWe propose a probabilistic interpretation of Benford's law, which predicts the...
We propose a probabilistic interpretation of Benford’s law, which predicts the probability distribu...
International audienceWe provide a new probabilistic explanation for the appearance of Benford's law...
We provide a new probabilistic explanation for the appearance of Ben-ford's law in everyday-lif...
Benford distributions of leading digits arise in a multitude of everyday settings, yet the establish...
We present two sufficient conditions for an absolutely continuous random variable to obey Benford's ...
The quasi-empirical Benford law predicts that the distribution of the first significant digit of ran...
The 29th European Signal Processing Conference (EUSIPCO 2021), Dublin, Ireland, 23-27 August 2021Man...
In this paper, we will see that the proportion of d as leading digit, d ∈ 1, 9, in data (obtained th...
Many distributions for first digits of integer sequences are not Benford. A simple method to derive ...
Benford's law states that the leading digits of many data sets are not uniformly distributed from on...
In this paper, we will see that the proportion of d as p th digit, where p > 1 and d ∈ 0, 9, in data...
A mathematical expression known as Benford’s law provides an example of an unex-pected relationship ...
Using the sum invariance property of Benford random variables, we prove that an n-digit Benford vari...
Benford's law is studied in dependence on the base b> 1. It can hold to large bases b only approxima...
International audienceWe propose a probabilistic interpretation of Benford's law, which predicts the...
We propose a probabilistic interpretation of Benford’s law, which predicts the probability distribu...
International audienceWe provide a new probabilistic explanation for the appearance of Benford's law...
We provide a new probabilistic explanation for the appearance of Ben-ford's law in everyday-lif...
Benford distributions of leading digits arise in a multitude of everyday settings, yet the establish...
We present two sufficient conditions for an absolutely continuous random variable to obey Benford's ...
The quasi-empirical Benford law predicts that the distribution of the first significant digit of ran...
The 29th European Signal Processing Conference (EUSIPCO 2021), Dublin, Ireland, 23-27 August 2021Man...
In this paper, we will see that the proportion of d as leading digit, d ∈ 1, 9, in data (obtained th...
Many distributions for first digits of integer sequences are not Benford. A simple method to derive ...
Benford's law states that the leading digits of many data sets are not uniformly distributed from on...
In this paper, we will see that the proportion of d as p th digit, where p > 1 and d ∈ 0, 9, in data...
A mathematical expression known as Benford’s law provides an example of an unex-pected relationship ...
Using the sum invariance property of Benford random variables, we prove that an n-digit Benford vari...
Benford's law is studied in dependence on the base b> 1. It can hold to large bases b only approxima...