xhaz2.0.2 package

Excess Hazard Modelling Considering Inappropriate Mortality Rates

xhaz

xhaz function

AIC.bsplines

Akaike's Information Criterion for excess hazard model with baseline h...

AIC.constant

Akaike's Information Criterion for excess hazard model with baseline h...

AIC.mexhazLT

Akaike's Information Criterion for excess hazard model from mexhazLT f...

anova.bsplines

anova.bsplines function used for likelihood-ratio Test of two models f...

anova.constant

anova.constant function used for likelihood-ratio Test of two models f...

anova.mexhazLT

anova.mexhazLT function used for likelihood-ratio Test of two models f...

BIC.bsplines

Bayesian Information Criterion for excess hazard model with baseline h...

BIC.constant

Bayesian Information Criterion for excess hazard model with baseline h...

BIC.mexhazLT

Bayesian Information Criterion for excess hazard model from mexhazLT f...

duplicate

duplicate function

exphaz

exphaz function

mexhazLT

mexhazLT function

plot.bsplines

plot.bsplines

plot.predxhaz

plots of excess hazard and net Survival from an predxhaz object

predict.bsplines

Predictions of excess hazard and net Survival from a bsplinesobject

predict.constant

Predictions of excess hazard and net Survival from an constantobject

print.bsplines

A print.bsplines Function used to print a object of class bsplines

print.constant

A print.constant Function used to print a object of class constant

print.predxhaz

A print.predxhaz Function used to print a object of class predxhaz

qbs

qbs function

summary.bsplines

A summary.bsplines Function used to print a object of class bsplines

summary.constant

A summary.constant Function used to print a object of class `xhaz.cons...

xhaz-package

Excess Hazard Modelling Considering Inappropriate Mortality Rates

Fits relative survival regression models with or without proportional excess hazards and with the additional possibility to correct for background mortality by one or more parameter(s). These models are relevant when the observed mortality in the studied group is not comparable to that of the general population or in population-based studies where the available life tables used for net survival estimation are insufficiently stratified. In the latter case, the proposed model by Touraine et al. (2020) <doi:10.1177/0962280218823234> can be used. The user can also fit a model that relaxes the proportional expected hazards assumption considered in the Touraine et al. excess hazard model. This extension was proposed by Mba et al. (2020) <doi:10.1186/s12874-020-01139-z> to allow non-proportional effects of the additional variable on the general population mortality. In non-population-based studies, researchers can identify non-comparability source of bias in terms of expected mortality of selected individuals. An excess hazard model correcting this selection bias is presented in Goungounga et al. (2019) <doi:10.1186/s12874-019-0747-3>. This class of model with a random effect at the cluster level on excess hazard is presented in Goungounga et al. (2023) <doi:10.1002/bimj.202100210>.

  • Maintainer: Juste Goungounga
  • License: AGPL (>= 3)
  • Last published: 2024-06-29