Nothing
SemiParROY <- function(formula, data = list(), weights = NULL, subset = NULL,
BivD1 = "N", BivD2 = "N", margins = c("probit","PO","PO"),
dof1 = 3, dof2 = 3, gamlssfit = FALSE,
fp = FALSE, infl.fac = 1,
rinit = 1, rmax = 100, iterlimsp = 50, tolsp = 1e-07,
gc.l = FALSE, parscale, extra.regI = "t", knots = NULL,
drop.unused.levels = TRUE,
min.dn = 1e-40, min.pr = 1e-16, max.pr = 0.999999){
##########################################################################################################################
# model set up and starting values
##########################################################################################################################
i.rho <- sp <- qu.mag <- n.sel <- y1.y2 <- y1.cy2 <- cy1.y2 <- cy1.cy2 <- cy <- cy1 <- inde <- y2m <- y3m <- theta.fx <- c.gam2 <- Sl.sf <- y23 <- NULL
X4s <- X5s <- X6s <- X7s <- X8s <- X9s <- NULL
y10.y20 <- y10.y21 <- y11.y30 <- y11.y31 <- NULL
y10.y20R <- y10.y21R <- y11.y30R <- y11.y31R <- NULL
Model <- "ROY"
hess <- TRUE
intf <- surv.flex <- FALSE
sp.method <- "perf"
# **** clean up the NULL stuff above?
# **** make sure intf does not do anything
# TW leave out for now as it involves even more complexity in the log.lik
y00 <- y10 <- y0p <- y1p <- gam2TW <- NULL # for binary - tweedie margins
end <- X3.d2 <- X4.d2 <- X5.d2 <- X6.d2 <- X7.d2 <- X8.d2 <- X9.d2 <- l.sp1 <- l.sp2 <- l.sp3 <- l.sp4 <- l.sp5 <- l.sp6 <- l.sp7 <- l.sp8 <- l.sp9 <- i.rho1 <- i.rho2 <- 0
gam1 <- gam2 <- gam3 <- gam4 <- gam5 <- gam6 <- gam7 <- gam8 <- gam9 <- dof.st1 <- dof.st2 <- NULL
gamlss2 <- gamlss3 <- sp1 <- sp2 <- NULL
sp3 <- gp3 <- X3 <- NULL
sp4 <- gp4 <- X4 <- NULL
sp5 <- gp5 <- X5 <- NULL
sp6 <- gp6 <- X6 <- NULL
sp7 <- gp7 <- X7 <- NULL
sp8 <- gp8 <- X8 <- NULL
sp9 <- gp9 <- X9 <- NULL
log.sig1 <- log.sig2 <- log.nu1 <- log.nu2 <- NULL
opc <- c("N","C0","C90","C180","C270","J0","J90","J180","J270","G0","G90","G180","G270","F","AMH","FGM","T","PL","HO","GAL0", "GAL90", "GAL180", "GAL270")
scc <- c("C0", "C180", "GAL0" , "GAL180","J0", "J180", "G0", "G180")
sccn <- c("C90", "C270", "GAL90", "GAL270","J90", "J270", "G90", "G270")
m2 <- c("N","GU","rGU","LO","LN","WEI","iG","GA","BE","FISK","GP","GPII","GPo")
m3 <- c("DAGUM","SM","TW")
m1d <- c("PO", "ZTP","DGP0")
m2d <- c("NBI", "NBII", "PIG","DGP","DGPII")
bl <- c("probit", "logit", "cloglog")
if(margins[2] %in% c(bl,m1d) && margins[3] %in% c(bl,m1d)) gp4 <- gp5 <- gp6 <- gp7 <- gp8 <- gp9 <- 0
if(margins[2] %in% c(m2,m2d) && margins[3] %in% c(m2,m2d)){ gp4 <- gp5 <- gp6 <- gp7 <- 1; gp8 <- gp9 <- 0}
if(margins[2] %in% c(m3) && margins[3] %in% c(m3) ){ gp4 <- gp5 <- gp6 <- gp7 <- gp8 <- gp9 <- 1}
M <- list(m1d = m1d, m2 = m2, m2d = m2d, m3 = m3, BivD1 = BivD1, BivD2 = BivD2,
opc = opc, extra.regI = extra.regI, margins = margins, bl = bl, intf = intf,
theta.fx = theta.fx, Model = "ROY", mb = NULL, dof1 = dof1, dof2 = dof2, K1 = NULL)
ct <- data.frame( c(opc),
c(1:14,55,56,57,60,61,62:65)
)
cta <- data.frame( c(opc),
c(1,3,23,13,33,6,26,16,36,4,24,14,34,5,55,56,2,60,61,62:65)
)
nC1 <- ct[which( ct[,1] == BivD1),2]
nCa1 <- cta[which(cta[,1] == BivD1),2]
nC2 <- ct[which( ct[,1] == BivD2),2]
nCa2 <- cta[which(cta[,1] == BivD2),2]
#######################################################################################
if(!is.list(formula)) stop("You must specify a list of equations.")
M$l.flist <- l.flist <- length(formula)
pream.wm(formula, margins, M, l.flist, type = "ROY")
form.check(formula, l.flist, ROY = TRUE)
#######################################################################################
cl <- match.call()
mf <- match.call(expand.dots = FALSE)
pred.varR <- pred.var(formula, l.flist, ROY = TRUE)
v1 <- pred.varR$v1
v2 <- pred.varR$v2
v3 <- pred.varR$v3
pred.n <- pred.varR$pred.n
fake.formula <- paste(v1[1], "~", paste(pred.n, collapse = " + "))
environment(fake.formula) <- environment(formula[[1]])
mf$formula <- fake.formula
mf$min.dn <- mf$min.pr <- mf$max.pr <- mf$ordinal <- mf$knots <- mf$dof1 <- mf$dof2 <- mf$intf <- mf$theta.fx <- mf$BivD1 <- mf$BivD2 <- mf$margins <- mf$fp <- mf$hess <- mf$infl.fac <- mf$rinit <- mf$rmax <- mf$iterlimsp <- mf$tolsp <- mf$gc.l <- mf$parscale <- mf$extra.regI <- mf$gamlssfit <- NULL
mf$drop.unused.levels <- drop.unused.levels
mf[[1]] <- as.name("model.frame")
data <- eval(mf, parent.frame())
if(gc.l == TRUE) gc()
if(!("(weights)" %in% names(data))) {weights <- rep(1,dim(data)[1])
data$weights <- weights
names(data)[length(names(data))] <- "(weights)"} else weights <- data[,"(weights)"]
formula.eq1 <- formula[[1]]
formula.eq2 <- formula[[2]]
formula.eq3 <- formula[[3]]
##############################################################
# Equation 1
##############################################################
gam1 <- eval(substitute(gam(formula.eq1, binomial(link = margins[1]), gamma=infl.fac, weights=weights,
data=data, knots = knots, drop.unused.levels = drop.unused.levels),list(weights=weights)))
X1 <- model.matrix(gam1)
X1.d2 <- dim(X1)[2]
l.sp1 <- length(gam1$sp); if(l.sp1 != 0) sp1 <- gam1$sp
y1 <- gam1$y
n <- length(y1)
gp1 <- gam1$nsdf
cy <- 1 - y1
inde0 <- !as.logical(y1)
inde1 <- as.logical(y1)
##############################################################
# Equations 2 and 3 for continuous/discrete response
##############################################################
if( margins[2] %in% bl ){
gam2 <- eval(substitute(gam(formula.eq2, binomial(link = margins[2]), gamma=infl.fac, weights=weights,
data=data, subset=inde0, knots = knots, drop.unused.levels = drop.unused.levels),list(weights=weights,inde0=inde0)))
X2 <- model.matrix(gam2)
X2.d2 <- dim(X2)[2]
l.sp2 <- length(gam2$sp); if(l.sp2 != 0) sp2 <- gam2$sp
gp2 <- gam2$nsdf
y2 <- gam2$y
n.se0 <- sum(as.numeric(inde0))
#* this will be useful for prediction, to calculate effects, not required for fitting *#
X2s <- try(predict.gam(gam2, newdata = data[,-dim(data)[2]], type = "lpmatrix"), silent = TRUE)
if(any(class(X2s)=="try-error")) stop("Check that the factor variables' levels\nin the selected sample for the second margin are the same as those in the complete dataset.\nRead the Details section in ?gjrm for more details.")
}
if( margins[3] %in% bl ){
gam3 <- eval(substitute(gam(formula.eq3, binomial(link = margins[3]), gamma=infl.fac, weights=weights,
data=data, subset=inde1, knots = knots, drop.unused.levels = drop.unused.levels),list(weights=weights,inde1=inde1)))
X3 <- model.matrix(gam3)
X3.d2 <- dim(X3)[2]
l.sp3 <- length(gam3$sp); if(l.sp3 != 0) sp3 <- gam3$sp
gp3 <- gam3$nsdf
y3 <- gam3$y
n.se1 <- sum(as.numeric(inde1))
X3s <- try(predict.gam(gam3, newdata = data[,-dim(data)[2]], type = "lpmatrix"), silent = TRUE)
if(any(class(X3s)=="try-error")) stop("Check that the factor variables' levels\nin the selected sample for the third margin are the same as those in the complete dataset.\nRead the Details section in ?gjrm for more details.")
y10.y20 <- y10.y21 <- y11.y30 <- y11.y31 <- rep(FALSE, n)
y10.y20[inde0] <- y10.y20R <- as.logical( (1 - y1)[inde0]*(1 - y2) )
y10.y21[inde0] <- y10.y21R <- as.logical( (1 - y1)[inde0]*y2 )
y11.y30[inde1] <- y11.y30R <- as.logical( y1[inde1]*(1 - y3) )
y11.y31[inde1] <- y11.y31R <- as.logical( y1[inde1]*y3 )
}
if( !(margins[2] %in% bl) ){
form.eq12R <- form.eq12(formula.eq2, data[inde0, ], v2, margins[2], m1d, m2d)
formula.eq2 <- form.eq12R$formula.eq1
formula.eq2r <- form.eq12R$formula.eq1r
y2 <- form.eq12R$y1
y2.test <- form.eq12R$y1.test
y2m <- form.eq12R$y1m
gam2 <- eval(substitute(gam(formula.eq2, gamma=infl.fac, weights=weights, data=data, subset=inde0, knots = knots, drop.unused.levels = drop.unused.levels),list(weights = weights, inde0 = inde0)))
gam2$formula <- formula.eq2r
names(gam2$model)[1] <- as.character(formula.eq2r[2])
y2 <- y2.test
if( margins[2] %in% c("LN") ) y2 <- log(y2)
X2 <- model.matrix(gam2)
X2.d2 <- dim(X2)[2]
l.sp2 <- length(gam2$sp); if(l.sp2 != 0) sp2 <- gam2$sp
gp2 <- gam2$nsdf
n.se0 <- sum(as.numeric(inde0))
#* this will be useful for prediction, to calculate effects, not required for fitting *#
X2s <- try(predict.gam(gam2, newdata = data[,-dim(data)[2]], type = "lpmatrix"), silent = TRUE)
if(any(class(X2s)=="try-error")) stop("Check that the factor variables' levels\nin the selected sample for the second margin are the same as those in the complete dataset.\nRead the Details section in ?gjrm for more details.")
}
if( !(margins[3] %in% bl) ){
form.eq12R <- form.eq12(formula.eq3, data[inde1, ], v3, margins[3], m1d, m2d)
formula.eq3 <- form.eq12R$formula.eq1
formula.eq3r <- form.eq12R$formula.eq1r
y3 <- form.eq12R$y1
y3.test <- form.eq12R$y1.test
y3m <- form.eq12R$y1m
gam3 <- eval(substitute(gam(formula.eq3, gamma=infl.fac, weights=weights, data=data, subset=inde1, knots = knots, drop.unused.levels = drop.unused.levels),list(weights = weights, inde1 = inde1)))
gam3$formula <- formula.eq3r
names(gam3$model)[1] <- as.character(formula.eq3r[2])
y3 <- y3.test
if( margins[3] %in% c("LN") ) y3 <- log(y3)
X3 <- model.matrix(gam3)
X3.d2 <- dim(X3)[2]
l.sp3 <- length(gam3$sp); if(l.sp3 != 0) sp3 <- gam3$sp
gp3 <- gam3$nsdf
n.se1 <- sum(as.numeric(inde1))
#* this will be useful for prediction, to calculate effects, not required for fitting *#
X3s <- try(predict.gam(gam3, newdata = data[,-dim(data)[2]], type = "lpmatrix"), silent = TRUE)
if(any(class(X3s)=="try-error")) stop("Check that the factor variables' levels\nin the selected sample for the third margin are the same as those in the complete dataset.\nRead the Details section in ?gjrm for more details.")
}
X4 <- X5 <- X6 <- X7 <- X8 <- X9 <- X4s <- X5s <- X6s <- X7s <- X8s <- X9s <- matrix(1, n, 1)
X4.d2 <- X5.d2 <- X6.d2 <- X7.d2 <- X8.d2 <- X9.d2 <- 1
if( margins[2] %in% c(m1d, bl) && margins[3] %in% c(m1d, bl) ){
X4 <- as.matrix(X4[inde0,])
X5 <- as.matrix(X5[inde1,])
}
if( margins[2] %in% c(m2, m2d) && margins[3] %in% c(m2, m2d) ){
X4 <- as.matrix(X4[inde0,])
X5 <- as.matrix(X5[inde1,])
X6 <- as.matrix(X6[inde0,])
X7 <- as.matrix(X7[inde1,])
}
if( margins[2] %in% c(m3) && margins[3] %in% c(m3) ){
X4 <- as.matrix(X4[inde0,])
X5 <- as.matrix(X5[inde1,])
X6 <- as.matrix(X6[inde0,])
X7 <- as.matrix(X7[inde1,])
X8 <- as.matrix(X8[inde0,])
X9 <- as.matrix(X9[inde1,])
}
if( margins[2] %in% c(m1d) && margins[3] %in% c(m2d) ){
X4 <- as.matrix(X4[inde1,])
X5 <- as.matrix(X5[inde0,])
X6 <- as.matrix(X6[inde1,])
}
if( margins[2] %in% c(m2d) && margins[3] %in% c(m1d) ){
X4 <- as.matrix(X4[inde0,])
X5 <- as.matrix(X5[inde0,])
X6 <- as.matrix(X6[inde1,])
}
if( margins[2] %in% c(m2) && margins[3] %in% c(m3) ){
X4 <- as.matrix(X4[inde0,])
X5 <- as.matrix(X5[inde1,])
X6 <- as.matrix(X6[inde1,])
X7 <- as.matrix(X7[inde0,])
X8 <- as.matrix(X8[inde1,])
}
if( margins[2] %in% c(m3) && margins[3] %in% c(m2) ){
X4 <- as.matrix(X4[inde0,])
X5 <- as.matrix(X5[inde1,])
X6 <- as.matrix(X6[inde0,])
X7 <- as.matrix(X7[inde0,])
X8 <- as.matrix(X8[inde1,])
}
##############################################################
# Starting values for dependence parameter
##############################################################
res1 <- residuals(gam1)
res2 <- residuals(gam2)
res3 <- residuals(gam3)
ass.s <- cor(res1[inde0], res2, method = "kendall")
ass.s <- sign(ass.s)*ifelse(abs(ass.s) > 0.9, 0.9, abs(ass.s))
i.rho1 <- ass.dp(ass.s, BivD1, scc, sccn, nCa1)
ass.s <- cor(res1[inde1], res3, method = "kendall")
ass.s <- sign(ass.s)*ifelse(abs(ass.s) > 0.9, 0.9, abs(ass.s))
i.rho2 <- ass.dp(ass.s, BivD2, scc, sccn, nCa2)
names(i.rho1) <- "theta12.star"
names(i.rho2) <- "theta13.star"
##############################################################
# Starting values for whole parameter vector
##############################################################
if( margins[2] %in% c(m1d, bl) && margins[3] %in% c(m1d, bl) ) start.v <- c(gam1$coefficients, gam2$coefficients, gam3$coefficients, i.rho1, i.rho2)
if( margins[2] %in% c(m2, m2d) && margins[3] %in% c(m2, m2d) ){
start.snR1 <- startsn(margins[2], y2)
start.snR2 <- startsn(margins[3], y3)
log.sig1 <- start.snR1$log.sig2.1; names(log.sig1) <- "sigma2.star"
log.sig2 <- start.snR2$log.sig2.1; names(log.sig2) <- "sigma3.star"
start.v <- c(gam1$coefficients, gam2$coefficients, gam3$coefficients, log.sig1, log.sig2, i.rho1, i.rho2)
}
if( margins[2] %in% c(m3) && margins[3] %in% c(m3) ){
start.snR1 <- startsn(margins[2], y2)
start.snR2 <- startsn(margins[3], y3)
log.sig1 <- start.snR1$log.sig2.1; names(log.sig1) <- "sigma2.star"
log.sig2 <- start.snR2$log.sig2.1; names(log.sig2) <- "sigma3.star"
log.nu1 <- start.snR1$log.nu.1; names(log.nu1) <- "nu2.star"
log.nu2 <- start.snR2$log.nu.1; names(log.nu2) <- "nu3.star"
start.v <- c(gam1$coefficients, gam2$coefficients, gam3$coefficients, log.sig1, log.sig2, log.nu1, log.nu2, i.rho1, i.rho2)
}
if( margins[2] %in% c(m1d) && margins[3] %in% c(m2d) ){
start.snR2 <- startsn(margins[3], y3)
log.sig2 <- start.snR2$log.sig2.1; names(log.sig2) <- "sigma3.star"
start.v <- c(gam1$coefficients, gam2$coefficients, gam3$coefficients, log.sig2, i.rho1, i.rho2)
}
if( margins[2] %in% c(m2d) && margins[3] %in% c(m1d) ){
start.snR1 <- startsn(margins[2], y2)
log.sig1 <- start.snR1$log.sig2.1; names(log.sig1) <- "sigma2.star"
start.v <- c(gam1$coefficients, gam2$coefficients, gam3$coefficients, log.sig1, i.rho1, i.rho2)
}
if( margins[2] %in% c(m2) && margins[3] %in% c(m3) ){
start.snR1 <- startsn(margins[2], y2)
start.snR2 <- startsn(margins[3], y3)
log.sig1 <- start.snR1$log.sig2.1; names(log.sig1) <- "sigma2.star"
log.sig2 <- start.snR2$log.sig2.1; names(log.sig2) <- "sigma3.star"
log.nu2 <- start.snR2$log.nu.1; names(log.nu2) <- "nu3.star"
start.v <- c(gam1$coefficients, gam2$coefficients, gam3$coefficients, log.sig1, log.sig2, log.nu2, i.rho1, i.rho2)
}
if( margins[2] %in% c(m3) && margins[3] %in% c(m2) ){
start.snR1 <- startsn(margins[2], y2)
start.snR2 <- startsn(margins[3], y3)
log.sig1 <- start.snR1$log.sig2.1; names(log.sig1) <- "sigma2.star"
log.sig2 <- start.snR2$log.sig2.1; names(log.sig2) <- "sigma3.star"
log.nu1 <- start.snR1$log.nu.1; names(log.nu1) <- "nu2.star"
start.v <- c(gam1$coefficients, gam2$coefficients, gam3$coefficients, log.sig1, log.sig2, log.nu1, i.rho1, i.rho2)
}
##############################################################
if(l.flist > 3){
### *** ONLY DONE MAIN COMBINATIONS FOR THE TIME BEING 16/7/2021 ***###
vo <- list(gam1 = gam1, gam2 = gam2, gam3 = gam3, i.rho1 = i.rho1, i.rho2 = i.rho2,
log.sig1 = log.sig1, log.sig2 = log.sig2, log.nu1 = log.nu1, log.nu2 = log.nu2, n = n,
inde0 = inde0, inde1 = inde1, drop.unused.levels = drop.unused.levels)
overall.svGR <- overall.svG(formula, data, ngc = 2, margins, M, vo, gam1, gam2, type = "ROY", inde = inde, c.gam2 = c.gam2, gam3 = gam3, knots = knots)
start.v = overall.svGR$start.v
X4 = overall.svGR$X4
X5 = overall.svGR$X5
X6 = overall.svGR$X6
X7 = overall.svGR$X7
X8 = overall.svGR$X8
X9 = overall.svGR$X9
X4.d2 = overall.svGR$X4.d2
X5.d2 = overall.svGR$X5.d2
X6.d2 = overall.svGR$X6.d2
X7.d2 = overall.svGR$X7.d2
X8.d2 = overall.svGR$X8.d2
X9.d2 = overall.svGR$X9.d2
gp4 = overall.svGR$gp4
gp5 = overall.svGR$gp5
gp6 = overall.svGR$gp6
gp7 = overall.svGR$gp7
gp8 = overall.svGR$gp8
gp9 = overall.svGR$gp9
gam4 = overall.svGR$gam4
gam5 = overall.svGR$gam5
gam6 = overall.svGR$gam6
gam7 = overall.svGR$gam7
gam8 = overall.svGR$gam8
gam9 = overall.svGR$gam9
l.sp4 = overall.svGR$l.sp4
l.sp5 = overall.svGR$l.sp5
l.sp6 = overall.svGR$l.sp6
l.sp7 = overall.svGR$l.sp7
l.sp8 = overall.svGR$l.sp8
l.sp9 = overall.svGR$l.sp9
sp4 = overall.svGR$sp4
sp5 = overall.svGR$sp5
sp6 = overall.svGR$sp6
sp7 = overall.svGR$sp7
sp8 = overall.svGR$sp8
sp9 = overall.svGR$sp9
X4s = overall.svGR$X4s
X5s = overall.svGR$X5s
X6s = overall.svGR$X6s
X7s = overall.svGR$X7s
X8s = overall.svGR$X8s
X9s = overall.svGR$X9s
}
##########################################################
GAM <- list(gam1 = gam1, gam2 = gam2, gam3 = gam3, gam4 = gam4,
gam5 = gam5, gam6 = gam6, gam7 = gam7, gam8 = gam8, gam9 = gam9)
if( (l.sp1!=0 || l.sp2!=0 || l.sp3!=0 || l.sp4!=0 || l.sp5!=0 || l.sp6!=0 || l.sp7!=0 || l.sp8!=0 || l.sp9!=0) && fp==FALSE ){
L.GAM <- list(l.gam1 = length(gam1$coefficients), l.gam2 = length(gam2$coefficients), l.gam3 = length(gam3$coefficients), l.gam4 = length(gam4$coefficients),
l.gam5 = length(gam5$coefficients), l.gam6 = length(gam6$coefficients), l.gam7 = length(gam7$coefficients), l.gam8 = length(gam8$coefficients),
l.gam9 = length(gam9$coefficients))
L.SP <- list(l.sp1 = l.sp1, l.sp2 = l.sp2, l.sp3 = l.sp3, l.sp4 = l.sp4,
l.sp5 = l.sp5, l.sp6 = l.sp6, l.sp7 = l.sp7, l.sp8 = l.sp8, l.sp9 = l.sp9)
sp <- c(sp1, sp2, sp3, sp4, sp5, sp6, sp7, sp8, sp9)
qu.mag <- S.m(GAM, L.SP, L.GAM)
}
##########################################################
if(missing(parscale)) parscale <- 1
respvec <- list(y1 = y1, y2 = y2, y3 = y3, cy = cy, univ = 0)
my.env <- new.env()
my.env$signind <- 1
lsgam1 <- length(gam1$smooth)
lsgam2 <- length(gam2$smooth)
lsgam3 <- length(gam3$smooth)
lsgam4 <- length(gam4$smooth)
lsgam5 <- length(gam5$smooth)
lsgam6 <- length(gam6$smooth)
lsgam7 <- length(gam7$smooth)
lsgam8 <- length(gam8$smooth)
lsgam9 <- length(gam9$smooth)
VC <- list(lsgam1 = lsgam1, robust = FALSE, sp.fixed = NULL, K1 = NULL,
lsgam2 = lsgam2, Sl.sf = Sl.sf, sp.method = sp.method,
lsgam3 = lsgam3,
lsgam4 = lsgam4,
lsgam5 = lsgam5,
lsgam6 = lsgam6,
lsgam7 = lsgam7,
lsgam8 = lsgam8,
lsgam9 = lsgam9,
X1 = X1, inde0 = inde0, n.se0 = n.se0, inde1 = inde1, n.se1 = n.se1, my.env=my.env,
X2 = X2,
X3 = X3,
X4 = X4,
X5 = X5,
X6 = X6,
X7 = X7,
X8 = X8,
X9 = X9,
X2s = X2s,
X3s = X3s,
X4s = X4s,
X5s = X5s,
X6s = X6s,
X7s = X7s,
X8s = X8s,
X9s = X9s,
X1.d2 = X1.d2,
X2.d2 = X2.d2,
X3.d2 = X3.d2,
X4.d2 = X4.d2,
X5.d2 = X5.d2,
X6.d2 = X6.d2,
X7.d2 = X7.d2,
X8.d2 = X8.d2,
X9.d2 = X9.d2,
gp1 = gp1,
gp2 = gp2,
gp3 = gp3,
gp4 = gp4,
gp5 = gp5,
gp6 = gp6,
gp7 = gp7,
gp8 = gp8,
gp9 = gp9,
l.sp1 = l.sp1,
l.sp2 = l.sp2,
l.sp3 = l.sp3,
l.sp4 = l.sp4,
l.sp5 = l.sp5,
l.sp6 = l.sp6,
l.sp7 = l.sp7,
l.sp8 = l.sp8,
l.sp9 = l.sp9,
infl.fac = infl.fac,
weights = weights,
fp = fp, univ.gamls = FALSE,
hess = hess, nCa1 = nCa1, nCa2 = nCa2,
Model = Model, gamlssfit = gamlssfit,
end = end,
BivD = BivD1, BivD1 = BivD1, BivD2 = BivD2, dof.st1 = log(dof1 - 2), dof.st2 = log(dof2 - 2), dof1 = dof1, dof2 = dof2,
nC1 = nC1, nC2 = nC2, gc.l = gc.l, n = n, n.se0 = n.se0, n.se1 = n.se1, extra.regI = extra.regI,
parscale = parscale, margins = margins,
Cont = "NO", ccss = "no", m2 = m2, m3 = m3, m2d = m2d, m1d = m1d, m3d = NULL, bl = bl,
X2s = X2s, X3s = X3s,
triv = FALSE, y2m = y2m, y3m = y3m,
theta.fx = theta.fx, i.rho1 = i.rho1, i.rho2 = i.rho2,
cta = cta, ct = ct, zerov = -10, surv.flex = surv.flex, gp2.inf = NULL,
informative = "no",
zero.tol = 1e-02,
min.dn = min.dn, min.pr = min.pr, max.pr = max.pr,
y00 = y00, y10 = y10, y0p = y0p, y1p = y1p,
l.flist = l.flist,
y10.y20 = y10.y20,
y10.y21 = y10.y21,
y11.y30 = y11.y30,
y11.y31 = y11.y31,
y10.y20R = y10.y20R,
y10.y21R = y10.y21R,
y11.y30R = y11.y30R,
y11.y31R = y11.y31R ) # original n only needed in SemiParBIV.fit
if(gc.l == TRUE) gc()
##########################################################################################################################
# never thought of it, but subset may cause trouble here? don't think so
if(gamlssfit == TRUE && margins[2] %in% c(m1d, m2d, m2, m3) && margins[3] %in% c(m1d, m2d, m2, m3)){
nstv <- names(start.v)
form.gamlR <- form.gaml(formula, l.flist, M, type = "ROY")
gamlss2 <- eval(substitute(gamlss(form.gamlR$formula.gamlss2, data = data, weights = weights, subset = inde0,
margin = margins[2], infl.fac = infl.fac,
rinit = rinit, rmax = rmax, iterlimsp = iterlimsp, tolsp = tolsp,
gc.l = gc.l, parscale = 1, extra.regI = extra.regI, drop.unused.levels = drop.unused.levels), list(inde0 = inde0, weights = weights)))
gamlss3 <- eval(substitute(gamlss(form.gamlR$formula.gamlss3, data = data, weights = weights, subset = inde1,
margin = margins[3], infl.fac = infl.fac,
rinit = rinit, rmax = rmax, iterlimsp = iterlimsp, tolsp = tolsp,
gc.l = gc.l, parscale = 1, extra.regI = extra.regI, drop.unused.levels = drop.unused.levels), list(inde1 = inde1, weights = weights)))
# updated starting values
SP <- list(sp1 = sp1, sp2 = sp2, sp3 = sp3, sp4 = sp4, sp5 = sp5, sp6 = sp6, sp7 = sp7, sp8 = sp8, sp9 = sp9)
gamls.upsvR <- gamls.upsv(gamlss1 = gamlss2, gamlss2 = gamlss3, margins, M, l.flist, nstv = NULL, VC, GAM, SP, type = "ROY")
main.sv <- c(gam1$coefficients, gamls.upsvR$start.v)
start.v[1:length(main.sv)] <- main.sv
names(start.v) <- nstv # this really needed? does not hurt
sp <- gamls.upsvR$sp
}
##########################################################################################################################
##########################################################################################################################
# joint.probs, not relevant for now as we are just interested in calculating effects for the time being
func.opt <- func.OPT(margins, M, type = "ROY")
SemiParFit <- SemiParBIV.fit(func.opt = func.opt, start.v = start.v,
rinit = rinit, rmax = rmax, iterlim = 100, iterlimsp = iterlimsp, tolsp = tolsp,
respvec = respvec, VC = VC, sp = sp, qu.mag = qu.mag)
##########################################################################################################################
# post estimation
##########################################################################################################################
SemiParFit.p <- SemiParROY.fit.post(SemiParFit = SemiParFit, Model = Model, VC = VC, GAM)
SemiParFit <- SemiParFit.p$SemiParFit # this may be useful but not sure yet at this stage
y2.m <- y2
y3.m <- y3
if(margins[2] == "LN") y2.m <- exp(y2)
if(margins[3] == "LN") y3.m <- exp(y3)
##########################################################################################################################
if(gc.l == TRUE) gc()
##########################################################################################################################
cov.c(SemiParFit)
##########################################################################################################################
gam1$call$data <- gam2$call$data <- gam3$call$data <- gam4$call$data <- gam5$call$data <- gam6$call$data <- gam7$call$data <- gam8$call$data <- gam9$call$data <- cl$data
# for all.terms
##########################################################################################################################
#** not sure yet I need the stuff below, will figure out when calculating effects?
if( !(Model=="B" && !(margins[2] %in% bl) && end == 2) ) {dataset <- NULL; rm(data) } else { attr(data, "terms") <- NULL; dataset <- data; rm(data) }
L <- list(fit = SemiParFit$fit, dataset = dataset, formula = formula, SemiParFit = SemiParFit,
gam1 = gam1, gam2 = gam2, gam3 = gam3, gam4 = gam4, gam5 = gam5, gam6 = gam6, robust = FALSE,
gam7 = gam7, gam8 = gam8, gam9 = gam9, gam2TW = gam2TW,
coefficients = SemiParFit$fit$argument, coef.t = NULL, iterlimsp = iterlimsp,
weights = weights,
sp = SemiParFit.p$sp, iter.sp = SemiParFit$iter.sp,
l.sp1 = l.sp1, l.sp2 = l.sp2, l.sp3 = l.sp3,
l.sp4 = l.sp4, l.sp5 = l.sp5, l.sp6 = l.sp6,
l.sp7 = l.sp7, l.sp8 = l.sp8, l.sp9 = l.sp9, bl = bl,
fp = fp,
iter.if = SemiParFit$iter.if, iter.inner = SemiParFit$iter.inner,
theta12 = SemiParFit.p$theta12, theta13 = SemiParFit.p$theta13,
theta12.a = SemiParFit.p$theta12.a, theta13.a = SemiParFit.p$theta13.a,
n = n, n.se0 = n.se0, n.se1 = n.se1,
X1 = X1, X2 = X2, X3 = X3, X1.d2 = X1.d2, X2.d2 = X2.d2, X3.d2 = X3.d2,
X4 = X4, X5 = X5, X6 = X6, X7 = X7, X8 = X8, X9 = X9, X4.d2 = X4.d2, X5.d2 = X5.d2,
X6.d2 = X6.d2, X7.d2 = X7.d2, X8.d2 = X8.d2, X9.d2 = X9.d2,
He = SemiParFit.p$He, HeSh = SemiParFit.p$HeSh, Vb = SemiParFit.p$Vb, Ve = SemiParFit.p$Ve,
F = SemiParFit.p$F, F1 = SemiParFit.p$F1,
t.edf = SemiParFit.p$t.edf, edf = SemiParFit.p$edf,
edf11 = SemiParFit.p$edf11,
edf1 = SemiParFit.p$edf1, edf2 = SemiParFit.p$edf2, edf3 = SemiParFit.p$edf3,
edf4 = SemiParFit.p$edf4, edf5 = SemiParFit.p$edf5, edf6 = SemiParFit.p$edf6,
edf7 = SemiParFit.p$edf7, edf8 = SemiParFit.p$edf8, edf9 = SemiParFit.p$edf9,
edf1.1 = SemiParFit.p$edf1.1, edf1.2 = SemiParFit.p$edf1.2, edf1.3 = SemiParFit.p$edf1.3,
edf1.4 = SemiParFit.p$edf1.4, edf1.5 = SemiParFit.p$edf1.5, edf1.6 = SemiParFit.p$edf1.6,
edf1.7 = SemiParFit.p$edf1.7, edf1.8 = SemiParFit.p$edf1.8, edf1.9 = SemiParFit.p$edf1.9,
R = SemiParFit.p$R,
bs.mgfit = SemiParFit$bs.mgfit, conv.sp = SemiParFit$conv.sp,
wor.c = SemiParFit$wor.c,
p1 = SemiParFit$fit$p1, p0 = SemiParFit$fit$p0,
eta1 = SemiParFit$fit$eta1, eta2 = SemiParFit$fit$eta2, eta3 = SemiParFit$fit$eta3,
etad12 = SemiParFit$fit$etad1, etad13 = SemiParFit$fit$etad2, etas2 = SemiParFit$fit$etas1, etas3 = SemiParFit$fit$etas2,
etan2 = SemiParFit$fit$etan1, etan3 = SemiParFit$fit$etan2,
y1 = y1, y2 = y2.m, y3 = y3.m,
margins = margins,
logLik = SemiParFit.p$logLik,
nC1 = nC1, nC2 = nC2, hess = hess,
respvec = respvec, inde0 = inde0, inde1 = inde1,
qu.mag = qu.mag,
sigma2 = SemiParFit.p$sigma2, sigma2.a = SemiParFit.p$sigma2.a,
sigma3 = SemiParFit.p$sigma3, sigma3.a = SemiParFit.p$sigma3.a,
nu2 = SemiParFit.p$nu2, nu2.a = SemiParFit.p$nu2.a,
nu3 = SemiParFit.p$nu3, nu3.a = SemiParFit.p$nu3.a,
tau12 = SemiParFit.p$tau12, tau12.a = SemiParFit.p$tau12.a,
tau13 = SemiParFit.p$tau13, tau13.a = SemiParFit.p$tau13.a,
Vb.t = SemiParFit.p$Vb.t,
gp1 = gp1, gp2 = gp2, gp3 = gp3, gp4 = gp4, gp5 = gp5, gp6 = gp6, gp7 = gp7, gp8 = gp8, gp9 = gp9,
X2s = X2s, X3s = X3s, X4s = X4s, X5s = X5s, X6s = X6s, X7s = X7s, X8s = X8s, X9s = X9s,
VC = VC, Model = Model, magpp = SemiParFit$magpp,
gamlssfit = gamlssfit, Cont = "NO",
l.flist = l.flist, v1 = v1, v2 = v2, v3 = v3, triv = FALSE, univar.gamlss = FALSE,
gamlss2 = gamlss2, gamlss3 = gamlss3, BivD1 = BivD1, BivD2 = BivD2, dof12 = dof1, dof13 = dof2,
dof12.a = dof1, dof13.a = dof2, call = cl,
surv = FALSE, surv.flex = surv.flex)
class(L) <- c("SemiParROY", "SemiParBIV", "gjrm")
L
}
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