Nothing
# Main function for calling the Bayesian Model Selection
bayesfac <- function(indnr, paramnr, SEx, SEy, xv, yv, chx, chy, zv, chz, SEz, vv, chv, SEv)
{
if (indnr == 2)
{
nmodelterms = paramnr
# calling selectterms function
tmp = selectterms(indnr, paramnr, SEx, SEy)
Mx <- tmp[[1]]
My <- tmp[[2]]
# creating empty vectors to be filled in the next step with selected models
# based on te SEtestx/y results, out of all possible model combinations
Mx_allvars = c()
My_allvars = c()
count = 1
for (ii in 1:nmodelterms)
{
M <- combs(1:17, ii)
Mx_allvars <- c(Mx_allvars, M[Mx[ii],])
My_allvars <- c(My_allvars, M[My[ii],])
count = count + ii
}
print(c("Selected model terms (dx):"), quote=F)
print(Mx_allvars)
print(c("Selected model terms (dy):"), quote=F)
print(My_allvars)
# creating empty vectors to be filled in the next step with Bayes factors
# and best parameters calling polyfitbayes function
Bf1 <- c()
parambest1 <- c()
Bf2 <- c()
parambest2 <- c()
M1 <- Mx_allvars
count = 1
for (j in 1:nmodelterms)
{
tmp = polyfitbayes(indnr, xv, yv, chx, M1[count:(count+j-1)])
bestm <- tmp[[1]]
indexbestm <- tmp[[2]]
Bf1[j] <- bestm
parambest1[j] <- indexbestm
count = count + j;
}
M2 <- My_allvars
count = 1
for (j in 1:nmodelterms)
{
tmp = polyfitbayes(indnr, xv, yv, chy, M2[count:(count+j-1)])
bestm <- tmp[[1]]
indexbestm <- tmp[[2]]
Bf2[j] <- bestm
parambest2[j] <- indexbestm
count = count + j;
}
# printing the Bayes Factor for the best models for each nmodelterms
print(c("Bayes factors of the best models per number of modelterms for dx:", Bf1), quote=F)
print(c("Bayes factors of the best models per number of modelterms for dy:", Bf2), quote=F)
}
############################# indnr == 2 ends, indnr == 3 begins #################################
if (indnr == 3)
{
nmodelterms = paramnr
# calling selectterms function
tmp = selectterms(indnr, paramnr, SEx, SEy, SEz)
Mx <- tmp[[1]]
My <- tmp[[2]]
Mz <- tmp[[3]]
# Mxy <- tmp[[5]] ## the user might want to comment lines 83-88 to obtain
# Mxz <- tmp[[7]] ## Bayes Factors of models with only two indicators in a three-variabe
# Myx <- tmp[[6]] ## model setting to see if e.g. variabel x and y are sufficient to model
# Myz <- tmp[[8]] ## changes in dx or if the third variable z is significantly
# Mzx <- tmp[[9]] ## improving the bayes factor. That is the user might want to
# Mzy <- tmp[[10]] ## comment this and other related parts out if he/she wants to
## compare Bayes Factors of models with two and three indicators
## commenting out these parts required uncommenting related parts
## in selectterms (follow comment instruction in selectterms.R)
# creating empty vectors to be filled in the next step with selected models
# based on te SEtestx/y results, out of all possible model combinations
Mx_allvars = c()
My_allvars = c()
Mz_allvars = c()
## comment out lines 100-105 for comparing Bayes Factor of
## two-variable and three-variable-models (see descriptions above)
# Mxy_vars = c()
# Mxz_vars = c()
# Myx_vars = c()
# Myz_vars = c()
# Mzx_vars = c()
# Mzy_vars = c()
count = 1
for (ii in 1:nmodelterms)
{
M <- combs(1:39, ii)
Mx_allvars <- c(Mx_allvars, M[Mx[ii],])
My_allvars <- c(My_allvars, M[My[ii],])
Mz_allvars <- c(Mz_allvars, M[Mz[ii],])
## comment out lines 116-121 for comparing Bayes Factor of
## two-variable and three-variable-models (see descriptions above)
# Mxy_vars <- c(Mxy_vars, M[Mxy[ii],])
# Mxz_vars <- c(Mxz_vars, M[Mxz[ii],])
# Myx_vars <- c(Myx_vars, M[Myx[ii],])
# Myz_vars <- c(Myz_vars, M[Myz[ii],])
# Mzx_vars <- c(Mzx_vars, M[Mzx[ii],])
# Mzy_vars <- c(Mzy_vars, M[Mzy[ii],])
count = count + ii
}
print(c("Selected model terms (dx):"), quote=F)
print(Mx_allvars)
print(c("Selected model terms (dy):"), quote=F)
print(My_allvars)
print(c("Selected model terms (dz):"), quote=F)
print(Mz_allvars)
## comment out lines 130-135 for comparing Bayes Factor of
## two-variable and three-variable-models (see descriptions above)
# print(Mxy_vars)
# print(Mxz_vars)
# print(Myx_vars)
# print(Myz_vars)
# print(Mzx_vars)
# print(Mzy_vars)
# creating empty vectors to be filled in the next step with Bayes factors
# and best parameters calling polyfitbayes function
Bf1 <- c()
parambest1 <- c()
Bf2 <- c()
parambest2 <- c()
Bf3 <- c()
parambest3 <- c()
M1 <- Mx_allvars
count = 1
for (j in 1:nmodelterms)
{
tmp = polyfitbayes(indnr, xv, yv, chx, M1[count:(count+j-1)], zv)
bestm <- tmp[[1]]
indexbestm <- tmp[[2]]
Bf1[j] <- bestm
parambest1[j] <- indexbestm
count = count + j;
}
## comment out lines 161-187 for comparing Bayes Factor of
## two-variable and three-variable-models (see descriptions above)
# Bf1a <- c()
# parambest1a <- c()
# M1a <- Mxy_vars
# count = 1
# for (j in 1:nmodelterms)
# {
# tmp = polyfitbayes(indnr, xv, yv, chx, M1a[count: (count+j-1)], zv)
# bestm <- [[1]]
# indexbestm <- [[2]]
# Bf1a[j] <- bestm
# parambest1a[j] <- indexbestm
# count = count + j;
# }
#
# Bf1b <- c()
# parambest1b <- c()
# M1b <- Mxz_vars
# count = 1
# for (j in 1:nmodelterms)
# {
# tmp = polyfitbayes(indnr, xv, yv, chx, M1b[count: (count+j-1)], zv)
# bestm <- [[1]]
# indexbestm <- [[2]]
# Bf1b[j] <- bestm
# parambest1b[j] <- indexbestm
# count = count + j;
# }
M2 <- My_allvars
count = 1
for (j in 1:nmodelterms)
{
tmp = polyfitbayes(indnr, xv, yv, chy, M2[count:(count+j-1)], zv)
bestm <- tmp[[1]]
indexbestm <- tmp[[2]]
Bf2[j] <- bestm
parambest2[j] <- indexbestm
count = count + j;
}
## comment out lines 204-230 for comparing Bayes Factor of
## two-variable and three-variable-models (see descriptions above)
# Bf2a <- c()
# parambest2a <- c()
# M2a <- Myx_vars
# count = 1
# for (j in 1:nmodelterms)
# {
# tmp = polyfitbayes(indnr, yv, xv, chy, M2a[count: (count+j-1)], zv)
# bestm <- [[1]]
# indexbestm <- [[2]]
# Bf2a[j] <- bestm
# parambest2a[j] <- indexbestm
# count = count + j;
# }
#
# Bf2b <- c()
# parambest2b <- c()
# M2b <- Myz_allvars
# count = 1
# for (j in 1:nmodelterms)
# {
# tmp = polyfitbayes(indnr, xv, yv, chy, M2b[count: (count+j-1)], zv)
# bestm <- [[1]]
# indexbestm <- [[2]]
# Bf2b[j] <- bestm
# parambest2b[j] <- indexbestm
# count = count + j;
# }
M3 <- Mz_allvars
count = 1
for (j in 1:nmodelterms)
{
tmp = polyfitbayes(indnr, xv, yv, chz, M3[count:(count+j-1)], zv)
bestm <- tmp[[1]]
indexbestm <- tmp[[2]]
Bf3[j] <- bestm
parambest3[j] <- indexbestm
count = count + j;
}
## comment out lines 247-273 for comparing Bayes Factor of
## two-variable and three-variable-models (see descriptions above)
# Bf3a <- c()
# parambest3a <- c()
# M3a <- Mzx_vars
# count = 1
# for (j in 1:nmodelterms)
# {
# tmp = polyfitbayes(indnr, xv, yv, chz, M3a[count: (count+j-1)], zv)
# bestm <- [[1]]
# indexbestm <- [[2]]
# Bf3a[j] <- bestm
# parambest3a[j] <- indexbestm
# count = count + j;
# }
#
# Bf3b <- c()
# parambest3b <- c()
# M3b <- Mzy_vars
# count = 1
# for (j in 1:nmodelterms)
# {
# tmp = polyfitbayes(indnr, xv, yv, chz, M3b[count: (count+j-1)], zv)
# bestm <- [[1]]
# indexbestm <- [[2]]
# Bf3b[j] <- bestm
# parambest3b[j] <- indexbestm
# count = count + j;
# }
## comment out lines 278,279,281,282,284,285 for comparing Bayes Factor of
## two-variable and three-variable-models (see descriptions above)
print(c("Bayes factors of the best models per number of modelterms for dx:", Bf1), quote=F)
# print(Bf1a)
# print(Bf1b)
print(c("Bayes factors of the best models per number of modelterms for dy:", Bf2), quote=F)
# print(Bf2a)
# print(Bf2b)
print(c("Bayes factors of the best models per number of modelterms for dz:", Bf3), quote=F)
# print(Bf3a)
# print(Bf3b)
}
############################# indnr == 3 ends, indnr == 4 begins #################################
if (indnr == 4)
{
nmodelterms = paramnr
# calling selectterms function
tmp = selectterms(indnr, paramnr, SEx, SEy, SEz, SEv)
Mx <- tmp[[1]]
My <- tmp[[2]]
Mz <- tmp[[3]]
Mv <- tmp[[4]]
# Mxy <- tmp[[5]] ## the user might want to uncomment linwa 300-323
# Mxz <- tmp[[7]] ## if he/she wants to compare Bayes Factors of models with
# Myx <- tmp[[6]] ## two, three and four indicators
# Myz <- tmp[[8]] ## if this is these and related lines are uncommented
# Mzx <- tmp[[9]] ## it is necessary to uncomment related parts in selectterms.R (follow the comment instructions in selectterms.R)
# Mzy <- tmp[[10]]
# Mxv <- tmp[[11]]
# Myv <- tmp[[12]]
# Mzv <- tmp[[13]]
# Mvx <- tmp[[14]]
# Mvy <- tmp[[15]]
# Mvz <- tmp[[16]]
# Mxyz <- tmp[[17]]
# Mxyv <- tmp[[18]]
# Mxzv <- tmp[[19]]
# Myxz <- tmp[[20]]
# Myxv <- tmp[[21]]
# Myzv <- tmp[[22]]
# Mzxy <- tmp[[23]]
# Mzxv <- tmp[[24]]
# Mzyv <- tmp[[25]]
# Mvxy <- tmp[[26]]
# Mvxz <- tmp[[27]]
# Mvyz <- tmp[[28]]
Mx_allvars = c()
My_allvars = c()
Mz_allvars = c()
Mv_allvars = c()
## uncomment lines 331-354 for comparing Bayes Factor of
## two-variable-, three-variable- and four-variable-models (see descriptions above)
# Mxy_vars = c()
# Mxz_vars = c()
# Myx_vars = c()
# Myz_vars = c()
# Mzx_vars = c()
# Mzy_vars = c()
# Mxv_vars = c()
# Myv_vars = c()
# Mzv_vars = c()
# Mvx_vars = c()
# Mvy_vars = c()
# Mvz_vars = c()
# Mxyz_vars = c()
# Mxyv_vars = c()
# Mxzv_vars = c()
# Myxz_vars = c()
# Myxv_vars = c()
# Myzv_vars = c()
# Mzxy_vars = c()
# Mzxv_vars = c()
# Mzyv_vars = c()
# Mvxy_vars = c()
# Mvxz_vars = c()
# Mvyz_vars = c()
count = 1
for (ii in 1:nmodelterms)
{
M <- combs(1:97, ii)
Mx_allvars <- c(Mx_allvars, M[Mx[ii],])
My_allvars <- c(My_allvars, M[My[ii],])
Mz_allvars <- c(Mz_allvars, M[Mz[ii],])
Mv_allvars <- c(Mv_allvars, M[Mv[ii],])
## uncomment lines 365-388 for comparing Bayes Factor of
## two-variable-, three-variable- and four-variable-models (see descriptions above)
# Mxy_vars <- c(Mxy_vars, M[Mxy[ii],])
# Mxz_vars <- c(Mxz_vars, M[Mxz[ii],])
# Myx_vars <- c(Myx_vars, M[Myx[ii],])
# Myz_vars <- c(Myz_vars, M[Myz[ii],])
# Mzx_vars <- c(Mzx_vars, M[Mzx[ii],])
# Mzy_vars <- c(Mzy_vars, M[Mzy[ii],])
# Mxv_vars <- c(Mxv_vars, M[Mxv[ii],])
# Myv_vars <- c(Myv_vars, M[Myv[ii],])
# Mzv_vars <- c(Mzv_vars, M[Mzv[ii],])
# Mvx_vars <- c(Mvx_vars, M[Mvx[ii],])
# Mvy_vars <- c(Mvy_vars, M[Mvy[ii],])
# Mvz_vars <- c(Mvz_vars, M[Mvz[ii],])
# Mxyz_vars <- (Mxyz_vars, M[Mxyz[ii],])
# Mxyv_vars <- (Mxyv_vars, M[Mxyv[ii],])
# Mxzv_vars <- (Mxzv_vars, M[Mxzv[ii],])
# Myxz_vars <- (Myxz_vars, M[Myxz[ii],])
# Myxv_vars <- (Myxv_vars, M[Myxv[ii],])
# Myzv_vars <- (Myzv_vars, M[Myzv[ii],])
# Mzxy_vars <- (Mzxy_vars, M[Mzxy[ii],])
# Mzxv_vars <- (Mzxv_vars, M[Mzxv[ii],])
# Mzyv_vars <- (Mzyv_vars, M[Mzyv[ii],])
# Mvxy_vars <- (Mvxy_vars, M[Mvxy[ii],])
# Mvxz_vars <- (Mvxz_vars, M[Mvxz[ii],])
# Mvyz_vars <- (Mvyz_vars, M[Mvyz[ii],])
count = count + ii
}
print(c("Selected model terms (dx):"), quote=F)
print(Mx_allvars)
print(c("Selected model terms (dy):"), quote=F)
print(My_allvars)
print(c("Selected model terms (dz):"), quote=F)
print(Mz_allvars)
print(c("Selected model terms (dv):"), quote=F)
print(Mv_allvars)
## uncomment lines 398-421 for comparing Bayes Factor of
## two-variable-, three-variable- and four-variable-models (see descriptions above)
# print(Mxy_vars)
# print(Mxz_vars)
# print(Myx_vars)
# print(Myz_vars)
# print(Mzx_vars)
# print(Mzy_vars)
# print(Mxv_vars)
# print(Myv_vars)
# print(Mzv_vars)
# print(Mvx_vars)
# print(Mvy_vars)
# print(Mvz_vars)
# print(Mxyz_vars)
# print(Mxyv_vars)
# print(Mxzv_vars)
# print(Myxz_vars)
# print(Myxv_vars)
# print(Myzv_vars)
# print(Mzxy_vars)
# print(Mzxv_vars)
# print(Mzyv_vars)
# print(Mvxy_vars)
# print(Mvxz_vars)
# print(Mvyz_vars)
# creating empty vectors to be filled in the next step with Bayes factors
# and best parameters calling polyfitbayes function
Bf1 <- c()
parambest1 <- c()
Bf2 <- c()
parambest2 <- c()
Bf3 <- c()
parambest3 <- c()
Bf4 <- c()
parambest4 <- c()
M1 <- Mx_allvars
count = 1
for (j in 1:nmodelterms)
{
tmp = polyfitbayes(indnr, xv, yv, chx, M1[count:(count+j-1)], zv, vv)
bestm <- tmp[[1]]
indexbestm <- tmp[[2]]
Bf1[j] <- bestm
parambest1[j] <- indexbestm
count = count + j;
}
## uncomment lines 450-534 for comparing Bayes Factor of
## two-variable-, three-variable- and four-variable-models (see descriptions above)
# Bf1a <- c()
# parambest1a <- c()
# M1a <- Mxy_vars
# count = 1
# for (j in 1:nmodelterms)
# {
# tmp = polyfitbayes(indnr, xv, yv, chx, M1a[count:(count+j-1)], zv, vv)
# bestm <- [[1]]
# indexbestm <- [[2]]
# Bf1a[j] <- bestm
# parambest1a[j] <- indexbestm
# count = count + j;
# }
#
# Bf1b <- c()
# parambest1b <- c()
# M1b <- Mxz_vars
# count = 1
# for (j in 1:nmodelterms)
# {
# tmp = polyfitbayes(indnr, xv, yv, chx, M1b[count:(count+j-1)], zv, vv)
# bestm <- [[1]]
# indexbestm <- [[2]]
# Bf1b[j] <- bestm
# parambest1b[j] <- indexbestm
# count = count + j;
# }
#
# Bf1c <- c()
# parambest1c <- c()
# M1c <- Mxv_vars
# count = 1
# for (j in 1:nmodelterms)
# {
# tmp = polyfitbayes(indnr, xv, yv, chx, M1c[count:(count+j-1)], zv, vv)
# bestm <- [[1]]
# indexbestm <- [[2]]
# Bf1c[j] <- bestm
# parambest1c[j] <- indexbestm
# count = count + j;
# }
#
# Bf1d <- c()
# parambest1d <- c()
# M1d <- Mxyz_vars
# count = 1
# for (j in 1:nmodelterms)
# {
# tmp = polyfitbayes(indnr, xv, yv, chx, M1d[count:(count+j-1)], zv, vv)
# bestm <- [[1]]
# indexbestm <- [[2]]
# Bf1d[j] <- bestm
# parambest1d[j] <- indexbestm
# count = count + j;
# }
#
# Bf1e <- c()
# parambest1e <- c()
# M1e <- Mxyv_vars
# count = 1
#
# for (j in 1:nmodelterms)
# {
# tmp = polyfitbayes(indnr, xv, yv, chx, M1e[count:(count+j-1)], zv, vv)
# bestm <- [[1]]
# indexbestm <- [[2]]
# Bf1e[j] <- bestm
# parambest1e[j] <- indexbestm
# count = count + j;
# }
#
# Bf1f <- c()
# parambest1f <- c()
# M1f <- Mxzv_vars
# count = 1
# for (j in 1:nmodelterms)
# {
# tmp = polyfitbayes(indnr, xv, yv, chx, M1f[count: (count+j-1)], zv, vv)
# bestm <- [[1]]
# indexbestm <- [[2]]
# Bf1f[j] <- bestm
# parambest1f[j] <- indexbestm
# count = count + j;
# }
M2 <- My_allvars
count = 1
for (j in 1:nmodelterms)
{
tmp = polyfitbayes(indnr, xv, yv, chy, M2[count:(count+j-1)], zv, vv)
bestm <- tmp[[1]]
indexbestm <- tmp[[2]]
Bf2[j] <- bestm
parambest2[j] <- indexbestm
count = count + j;
}
## uncomment lines 551-633 for comparing Bayes Factor of
## two-variable-, three-variable- and four-variable-models (see descriptions above)
# Bf2a <- c()
# parambest2a <- c()
# M2a <- Myx_vars
# count = 1
# for (j in 1:nmodelterms)
# {
# tmp = polyfitbayes(indnr, xv, yv, chy, M2a[count:(count+j-1)], zv, vv)
# bestm <- [[1]]
# indexbestm <- [[2]]
# Bf2a[j] <- bestm
# parambest2a[j] <- indexbestm
# count = count + j;
# }
#
# Bf2b <- c()
# parambest2b <- c()
# M2b <- Myz_vars
# count = 1
# for (j in 1:nmodelterms)
# {
# tmp = polyfitbayes(indnr, xv, yv, chy, M2b[count:(count+j-1)], zv, vv)
# bestm <- [[1]]
# indexbestm <- [[2]]
# Bf2b[j] <- bestm
# parambest2b[j] <- indexbestm
# count = count + j;
# }
#
# Bf2c <- c()
# parambest2c <- c()
# M2c <- Myv_vars
# count = 1
# for (j in 1:nmodelterms)
# {
# tmp = polyfitbayes(indnr, xv, yv, chy, M2c[count:(count+j-1)], zv, vv)
# bestm <- [[1]]
# indexbestm <- [[2]]
# Bf2c[j] <- bestm
# parambest2c[j] <- indexbestm
# count = count + j;
# }
#
# Bf2d <- c()
# parambest2d <- c()
# M2d <- Myxz_vars
# count = 1
# for (j in 1:nmodelterms)
# {
# tmp = polyfitbayes(indnr, xv, yv, chy, M2d[count:(count+j-1)], zv, vv)
# bestm <- [[1]]
# indexbestm <- [[2]]
# Bf2d[j] <- bestm
# parambest2d[j] <- indexbestm
# count = count + j;
# }
#
# Bf2e <- c()
# parambest2e <- c()
# M2e <- Myxv_vars
# count = 1
# for (j in 1:nmodelterms)
# {
# tmp = polyfitbayes(indnr, xv, yv, chy, M2e[count:(count+j-1)], zv, vv)
# bestm <- [[1]]
# indexbestm <- [[2]]
# Bf2e[j] <- bestm
# parambest2e[j] <- indexbestm
# count = count + j;
# }
#
# Bf2f <- c()
# parambest2f <- c()
# M2f <- Myzv_vars
# count = 1
# for (j in 1:nmodelterms)
# {
# tmp = polyfitbayes(indnr, xv, yv, chy, M2f[count:(count+j-1)], zv, vv)
# bestm <- [[1]]
# indexbestm <- [[2]]
# Bf2f[j] <- bestm
# parambest2f[j] <- indexbestm
# count = count + j;
# }
M3 <- Mz_allvars
count = 1
for (j in 1:nmodelterms)
{
tmp = polyfitbayes(indnr, xv, yv, chz, M3[count:(count+j-1)], zv, vv)
bestm <- tmp[[1]]
indexbestm <- tmp[[2]]
Bf3[j] <- bestm
parambest3[j] <- indexbestm
count = count + j;
}
## uncomment lines 650-732 for comparing Bayes Factor of
## two-variable-, three-variable- and four-variable-models (see descriptions above)
# Bf3a <- c()
# parambest3a <- c()
# M3a <- Mzx_vars
# count = 1
# for (j in 1:nmodelterms)
# {
# tmp = polyfitbayes(indnr, xv, yv, chz, M3a[count:(count+j-1)], zv, vv)
# bestm <- [[1]]
# indexbestm <- [[2]]
# Bf3a[j] <- bestm
# parambest3a[j] <- indexbestm
# count = count + j;
# }
#
# Bf3b <- c()
# parambest3b <- c()
# M3b <- Mzy_vars
# count = 1
# for (j in 1:nmodelterms)
# {
# tmp = polyfitbayes(indnr, xv, yv, chz, M3b[count:(count+j-1)], zv, vv)
# bestm <- [[1]]
# indexbestm <- [[2]]
# Bf3b[j] <- bestm
# parambest3b[j] <- indexbestm
# count = count + j;
# }
#
# Bf3c <- c()
# parambest3c <- c()
# M3c <- Mzv_vars
# count = 1
# for (j in 1:nmodelterms)
# {
# tmp = polyfitbayes(indnr, xv, yv, chz, M3c[count:(count+j-1)], zv, vv)
# bestm <- [[1]]
# indexbestm <- [[2]]
# Bf3c[j] <- bestm
# parambest3c[j] <- indexbestm
# count = count + j;
# }
#
# Bf3d <- c()
# parambest3d <- c()
# M3d <- Mzxy_vars
# count = 1
# for (j in 1:nmodelterms)
# {
# tmp = polyfitbayes(indnr, xv, yv, chz, M3d[count:(count+j-1)], zv, vv)
# bestm <- [[1]]
# indexbestm <- [[2]]
# Bf3d[j] <- bestm
# parambest3d[j] <- indexbestm
# count = count + j;
# }
#
# Bf3e <- c()
# parambest3e <- c()
# M3e <- Mzxv_vars
# count = 1
# for (j in 1:nmodelterms)
# {
# tmp = polyfitbayes(indnr, xv, yv, chz, M3e[count:(count+j-1)], zv, vv)
# bestm <- [[1]]
# indexbestm <- [[2]]
# Bf3e[j] <- bestm
# parambest3e[j] <- indexbestm
# count = count + j;
# }
#
# Bf3f <- c()
# parambest3f <- c()
# M3f <- Mzyv_vars
# count = 1
# for (j in 1:nmodelterms)
# {
# tmp = polyfitbayes(indnr, xv, yv, chz, M3f[count:(count+j-1)], zv, vv)
# bestm <- [[1]]
# indexbestm <- [[2]]
# Bf3f[j] <- bestm
# parambest3f[j] <- indexbestm
# count = count + j;
# }
M4 <- Mv_allvars
count = 1
for (j in 1:nmodelterms)
{
tmp = polyfitbayes(indnr, xv, yv, chv, M4[count:(count+j-1)], zv, vv)
bestm <- tmp[[1]]
indexbestm <- tmp[[2]]
Bf4[j] <- bestm
parambest4[j] <- indexbestm
count = count + j;
}
## comment out lines 749-831 for comparing Bayes Factor of
## two-variable-, three-variable- and four-variable-models (see descriptions above)
# Bf4a <- c()
# parambest4a <- c()
# M4a <- Mvx_vars
# count = 1
# for (j in 1:nmodelterms)
# {
# tmp = polyfitbayes(indnr, xv, yv, chv, M4a[count:(count+j-1)], zv, vv)
# bestm <- [[1]]
# indexbestm <- [[2]]
# Bf4a[j] <- bestm
# parambest4a[j] <- indexbestm
# count = count + j;
# }
#
# Bf4b <- c()
# parambest4b <- c()
# M4b <- Mvy_vars
# count = 1
# for (j in 1:nmodelterms)
# {
# tmp = polyfitbayes(indnr, xv, yv, chv, M4b[count:(count+j-1)], zv, vv)
# bestm <- [[1]]
# indexbestm <- [[2]]
# Bf4b[j] <- bestm
# parambest4b[j] <- indexbestm
# count = count + j;
# }
#
# Bf4c <- c()
# parambest4c <- c()
# M4c <- Mvz_vars
# count = 1
# for (j in 1:nmodelterms)
# {
# tmp = polyfitbayes(indnr, xv, yv, chv, M4c[count:(count+j-1)], zv, vv)
# bestm <- [[1]]
# indexbestm <- [[2]]
# Bf4c[j] <- bestm
# parambest4c[j] <- indexbestm
# count = count + j;
# }
#
# Bf4d <- c()
# parambest4d <- c()
# M4d <- Mvxy_vars
# count = 1
# for (j in 1:nmodelterms)
# {
# tmp = polyfitbayes(indnr, xv, yv, chv, M4d[count:(count+j-1)], zv, vv)
# bestm <- [[1]]
# indexbestm <- [[2]]
# Bf4d[j] <- bestm
# parambest4d[j] <- indexbestm
# count = count + j;
# }
#
# Bf4e <- c()
# parambest4e <- c()
# M4e <- Mvxz_vars
# count = 1
# for (j in 1:nmodelterms)
# {
# tmp = polyfitbayes(indnr, xv, yv, chv, M4e[count:(count+j-1)], zv, vv)
# bestm <- [[1]]
# indexbestm <- [[2]]
# Bf4e[j] <- bestm
# parambest4e[j] <- indexbestm
# count = count + j;
# }
#
# Bf4f <- c()
# parambest4f <- c()
# M4f <- Mvyz_vars
# count = 1
# for (j in 1:nmodelterms)
# {
# tmp = polyfitbayes(indnr, xv, yv, chv, M4f[count:(count+j-1)], zv, vv)
# bestm <- [[1]]
# indexbestm <- [[2]]
# Bf4f[j] <- bestm
# parambest4f[j] <- indexbestm
# count = count + j;
# }
## uncomment lines 773-778, 780-785, 787-792, 794-799 for comparing Bayes Factor of
## two-variable-, three-variable- and four-variable-models (see descriptions above)
print(c("Bayes factors of the best models per number of modelterms for dx:", Bf1), quote=F)
# print(Bf1a)
# print(Bf1b)
# print(Bf1c)
# print(Bf1d)
# print(Bf1e)
# print(Bf1f)
print(c("Bayes factors of the best models per number of modelterms for dy:", Bf2), quote=F)
# print(Bf2a)
# print(Bf2b)
# print(Bf2c)
# print(Bf2d)
# print(Bf2e)
# print(Bf2f)
print(c("Bayes factors of the best models per number of modelterms for dz:", Bf3), quote=F)
# print(Bf3a)
# print(Bf3b)
# print(Bf3c)
# print(Bf3d)
# print(Bf3e)
# print(Bf3f)
print(c("Bayes factors of the best models per number of modelterms for dv:", Bf4), quote=F)
# print(Bf4a)
# print(Bf4b)
# print(Bf4c)
# print(Bf4d)
# print(Bf4e)
# print(Bf4f)
}
}
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