ExpRep-package {ExpRep} | R Documentation |
The package ExpRep, which basically responds to educational purposes, allows to calculate the probabilities of occurrences of an event in a great number of repetitions of Bernoulli experiment, through the application of the local and the integral theorem of De Moivre Laplace, and the theorem of Poisson. It gives the possibility to show the results graphically and analytically, and to compare the results obtained by the application of the above theorems with those calculated by the direct application of the Binomial formula.
The DESCRIPTION file:
Package: | ExpRep |
Type: | Package |
Title: | Experiment Repetitions |
Version: | 1.0 |
Date: | 2017-06-22 |
Author: | Larisa Zamora-Matamoros and Jorge Diaz-Silvera |
Maintainer: | Larisa Zamora-Matamoros <larisa@uo.edu.cu> |
Description: | Allows to calculate the probabilities of occurrences of an event in a great number of repetitions of Bernoulli experiment, through the application of the local and the integral theorem of De Moivre Laplace, and the theorem of Poisson. Gives the possibility to show the results graphically and analytically, and to compare the results obtained by the application of the above theorems with those calculated by the direct application of the Binomial formula. Is basically useful for educational purposes. |
License: | Unlimited |
Index of help topics:
ApplicIntegralTheo Applications of the Integral Theorem of DeMoivre-Laplace. Buffon Buffon ExpRep-package Experiment Repetitions Integral_Theorem Integral Theorem of DeMoivre-Laplace Local_Theorem Local Theorem of DeMoivre-Laplace Poisson_Theorem Poisson Theorem. S_Integral_Theorem Simulations of the Integral Theorem of DeMoivre-Laplace. S_Local_Limit_Theorem Simulations of Local Theorem of DeMoivre-Laplace S_Poisson_Theorem Simulations of Poisson Theorem
Larisa Zamora-Matamoros and Jorge Diaz-Silvera
Maintainer: Larisa Zamora-Matamoros <larisa@uo.edu.cu>
Gnedenko, B. V. (1978). The Theory of Probability. Mir Publishers. Moscow.
ProbL<-Local_Theorem(n=100,m=50,p=0.02)
ProbL
ProbI<-Integral_Theorem(n=100,p=0.5,linf=0,lsup=50)
ProbI
ProbP<-Poisson_Theorem(n=100,m=50,p=0.002)
ProbP
beta<-ApplicIntegralTheo(Applic="beta",n=369,p=0.4,alpha=0.05)
beta
alpha<-ApplicIntegralTheo(Applic="alpha",n=369,p=0.4,beta=0.95)
alpha
n<-ApplicIntegralTheo(Applic="n",p=0.4,alpha=0.05,beta=0.95)
n
S_Local_Limit_Theorem(n = 170, p = 0.5, Compare = TRUE, Table = TRUE, Graph = TRUE,
GraphE = TRUE)
S_Poisson_Theorem(n = 169, p = 0.002, Compare = TRUE, Table = TRUE, Graph = TRUE,
GraphE = TRUE)
S_Integral_Theorem(n=100, p=0.5, linf = 0, lsup = 50, Compare = TRUE, Table = TRUE,
Graph = TRUE, GraphE = TRUE)
Buffon(p = 0.5, width = 0.2, r = c(100, 500, 1000, 1500))