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# Generated by roxygen2: do not edit by hand
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# Generated by roxygen2: do not edit by hand
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export(age_calc)
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export(age_calc)
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export(cie_test)
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export(col_fact)
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export(col_fact)
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export(col_num)
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export(col_num)
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export(cpr_check)
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export(cpr_check)
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@ -15,3 +14,4 @@ export(rep_biv)
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export(rep_epi_tests)
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export(rep_epi_tests)
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export(rep_glm)
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export(rep_glm)
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export(rep_lm)
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export(rep_lm)
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export(rep_reg_cie)
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24
R/rep_glm.R
24
R/rep_glm.R
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#' @description For bivariate analyses. The confint() function is rather slow, causing the whole function to hang when including many predictors and calculating the ORs with CI.
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#' @description For bivariate analyses. The confint() function is rather slow, causing the whole function to hang when including many predictors and calculating the ORs with CI.
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#' @param meas Effect meassure. Input as c() of columnnames, use dput().
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#' @param meas Effect meassure. Input as c() of columnnames, use dput().
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#' @param vars variables in model. Input as c() of columnnames, use dput().
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#' @param vars variables in model. Input as c() of columnnames, use dput().
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#' @param string variables to test. Input as c() of columnnames, use dput().
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#' @param str variables to test. Input as c() of columnnames, use dput().
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#' @param ci flag to get results as OR with 95% confidence interval.
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#' @param ci flag to get results as OR with 95% confidence interval.
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#' @param data data frame to pull variables from.
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#' @param dta data frame to pull variables from.
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#' @keywords logistic regression
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#' @keywords logistic regression
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#' @export
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#' @export
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#' @examples
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#' @examples
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#' rep_glm()
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#' l<-50
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#' y<-factor(rep(c("a","b"),l))
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#' x<-rnorm(length(y), mean=50, sd=10)
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#' v1<-factor(rep(c("r","s"),length(y)/2))
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#' v2<-sample(1:100, length(y), replace=FALSE)
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#' v3<-as.numeric(1:length(y))
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#' d<-data.frame(y,x,v1,v2,v3)
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#' preds<-c("v1","v2","x")
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#' rep_glm(meas="y",vars="v3",string=preds,ci=F,data=d)
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rep_glm<-function(meas,vars,string,ci=FALSE,data){
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rep_glm<-function(meas,vars,string,ci=FALSE,data){
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## x is data.frame of predictors, y is vector of an aoutcome as a factor
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## output is returned as coefficient, or if or=TRUE as OR with 95 % CI.
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##
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require(broom)
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require(broom)
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d<-data
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d<-data
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x<-data.frame(d[,c(string)])
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x<-data.frame(d[,c(string)])
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v<-data.frame(d[,c(vars)])
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v<-data.frame(d[,c(vars)])
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names(v)<-c(vars)
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y<-d[,c(meas)]
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y<-d[,c(meas)]
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dt<-cbind(y,v)
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dt<-cbind(y,v)
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m1<-length(coef(glm(y~.,family = binomial(),data = dt)))
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m1<-length(coef(glm(y~.,family = binomial(),data = dt)))
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@ -57,11 +64,9 @@ rep_glm<-function(meas,vars,string,ci=FALSE,data){
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for(i in 1:ncol(x)){
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for(i in 1:ncol(x)){
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dat<-cbind(dt,x[,i])
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dat<-cbind(dt,x[,i])
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m<-glm(y~.,family = binomial(),data=dat)
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m<-glm(y~.,family = binomial(),data=dat)
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b<-round(coef(m)[-c(1:m1)],3)
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b<-round(coef(m)[-c(1:m1)],3)
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pv<-round(tidy(m)$p.value[-c(1:m1)],3)
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pv<-round(tidy(m)$p.value[-c(1:m1)],3)
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x1<-x[,i]
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x1<-x[,i]
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@ -89,3 +94,6 @@ rep_glm<-function(meas,vars,string,ci=FALSE,data){
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return(r)
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return(r)
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}
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}
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26
R/rep_lm.R
26
R/rep_lm.R
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#' @keywords linear regression
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#' @keywords linear regression
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#' @export
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#' @export
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#' @examples
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#' @examples
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#' rep_lm()
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#' l<-50
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#' y<-factor(rep(c("a","b"),l))
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#' x<-rnorm(length(y), mean=50, sd=10)
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#' v1<-factor(rep(c("r","s"),length(y)/2))
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#' v2<-sample(1:100, length(y), replace=FALSE)
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#' v3<-as.numeric(1:length(y))
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#' d<-data.frame(y,x,v1,v2,v3)
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#' preds<-c("v1","v2","v3")
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#' rep_lm(meas="x",vars="y",string=preds,ci=F,data=d)
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rep_lm<-function(meas,vars,string,ci=FALSE,data){
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rep_lm<-function(meas,vars,string,ci=FALSE,data){
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@ -18,6 +26,7 @@ rep_lm<-function(meas,vars,string,ci=FALSE,data){
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d<-data
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d<-data
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x<-data.frame(d[,c(string)])
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x<-data.frame(d[,c(string)])
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v<-data.frame(d[,c(vars)])
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v<-data.frame(d[,c(vars)])
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names(v)<-c(vars)
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y<-d[,c(meas)]
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y<-d[,c(meas)]
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dt<-cbind(y,v)
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dt<-cbind(y,v)
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m1<-length(coef(lm(y~.,data = dt)))
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m1<-length(coef(lm(y~.,data = dt)))
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@ -26,7 +35,7 @@ rep_lm<-function(meas,vars,string,ci=FALSE,data){
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if (ci==TRUE){
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if (ci==TRUE){
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df<-data.frame(matrix(ncol = 3))
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df<-data.frame(matrix(NA,ncol = 3))
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names(df)<-c("pred","or_ci","pv")
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names(df)<-c("pred","or_ci","pv")
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for(i in 1:ncol(x)){
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for(i in 1:ncol(x)){
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@ -49,7 +58,7 @@ rep_lm<-function(meas,vars,string,ci=FALSE,data){
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if (ci==FALSE){
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if (ci==FALSE){
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df<-data.frame(matrix(ncol = 3))
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df<-data.frame(matrix(NA,ncol = 3))
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names(df)<-c("pred","b","pv")
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names(df)<-c("pred","b","pv")
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for(i in 1:ncol(x)){
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for(i in 1:ncol(x)){
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@ -85,3 +94,14 @@ rep_lm<-function(meas,vars,string,ci=FALSE,data){
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return(r)
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return(r)
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}
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}
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l<-50
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y<-factor(rep(c("a","b"),l))
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x<-rnorm(length(y), mean=50, sd=10)
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v1<-factor(rep(c("r","s"),length(y)/2))
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v2<-sample(1:100, length(y), replace=FALSE)
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v3<-as.numeric(1:length(y))
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d<-data.frame(y,x,v1,v2,v3)
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preds<-c("v1","v2","v3")
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rep_lm(meas="x",vars="y",string=preds,ci=F,data=d)
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#' @keywords change-in-estimate
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#' @keywords change-in-estimate
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#' @export
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#' @export
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#' @examples
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#' @examples
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#' cie_test()
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#' rep_reg_cie()
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cie_test<-function(meas,vars,string,data,logistic=FALSE,cut=0.1){
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rep_reg_cie<-function(meas,vars,string,data,logistic=FALSE,cut=0.1){
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require(broom)
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require(broom)
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\item{vars}{variables in model. Input as c() of columnnames, use dput().}
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\item{vars}{variables in model. Input as c() of columnnames, use dput().}
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\item{string}{variables to test. Input as c() of columnnames, use dput().}
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\item{ci}{flag to get results as OR with 95% confidence interval.}
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\item{ci}{flag to get results as OR with 95% confidence interval.}
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\item{data}{data frame to pull variables from.}
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\item{str}{variables to test. Input as c() of columnnames, use dput().}
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\item{dta}{data frame to pull variables from.}
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}
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}
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\description{
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\description{
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For bivariate analyses. The confint() function is rather slow, causing the whole function to hang when including many predictors and calculating the ORs with CI.
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For bivariate analyses. The confint() function is rather slow, causing the whole function to hang when including many predictors and calculating the ORs with CI.
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}
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}
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\examples{
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\examples{
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rep_glm()
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l<-50
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y<-factor(rep(c("a","b"),l))
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x<-rnorm(length(y), mean=50, sd=10)
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v1<-factor(rep(c("r","s"),length(y)/2))
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v2<-sample(1:100, length(y), replace=FALSE)
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v3<-as.numeric(1:length(y))
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d<-data.frame(y,x,v1,v2,v3)
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preds<-c("v1","v2","x")
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rep_glm(meas="y",vars="v3",string=preds,ci=F,data=d)
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}
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}
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\keyword{logistic}
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\keyword{logistic}
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\keyword{regression}
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\keyword{regression}
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For bivariate analyses, to determine which variables to include in adjusted model.
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For bivariate analyses, to determine which variables to include in adjusted model.
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}
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}
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\examples{
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\examples{
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rep_lm()
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l<-50
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y<-factor(rep(c("a","b"),l))
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x<-rnorm(length(y), mean=50, sd=10)
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v1<-factor(rep(c("r","s"),length(y)/2))
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v2<-sample(1:100, length(y), replace=FALSE)
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v3<-as.numeric(1:length(y))
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d<-data.frame(y,x,v1,v2,v3)
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preds<-c("v1","v2","v3")
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rep_lm(meas="x",vars="y",string=preds,ci=F,data=d)
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}
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}
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\keyword{linear}
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\keyword{linear}
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\keyword{regression}
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\keyword{regression}
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% Generated by roxygen2: do not edit by hand
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% Generated by roxygen2: do not edit by hand
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% Please edit documentation in R/cie_test.R
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% Please edit documentation in R/rep_reg_cie.R
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\name{cie_test}
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\name{rep_reg_cie}
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\alias{cie_test}
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\alias{rep_reg_cie}
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\title{A repeated regression function for change-in-estimate analysis}
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\title{A repeated regression function for change-in-estimate analysis}
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\usage{
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\usage{
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cie_test(meas, vars, string, data, logistic = FALSE, cut = 0.1)
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rep_reg_cie(meas, vars, string, data, logistic = FALSE, cut = 0.1)
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}
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}
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\arguments{
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\arguments{
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\item{meas}{Effect meassure. Input as c() of columnnames, use dput().}
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\item{meas}{Effect meassure. Input as c() of columnnames, use dput().}
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@ -23,6 +23,6 @@ cie_test(meas, vars, string, data, logistic = FALSE, cut = 0.1)
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For bivariate analyses. From "Modeling and variable selection in epidemiologic analysis." - S. Greenland, 1989.
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For bivariate analyses. From "Modeling and variable selection in epidemiologic analysis." - S. Greenland, 1989.
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}
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}
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\examples{
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\examples{
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cie_test()
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rep_reg_cie()
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}
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}
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\keyword{change-in-estimate}
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\keyword{change-in-estimate}
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