Simulation of continuous longitudinal outcome and competing risks data Currently, only the simulation in Elashoff et al(2008) is implemented.
SimDataC(
k_val,
p1_val,
p1a_val,
p2_val,
g_val,
truebeta,
truegamma,
randeffect,
yfn,
cfn,
mfn
)
The number of subjects in study.
The dimension of fixed effects in longitudinal measurements.
The dimension of random effects in longitudinal measurements.
The dimension of fixed effects in competing risks failure time data.
The number of type of failure in competing risks data.
True values for beta, the longitudinal coefficients.
True values for gamma, the survival coefficients.
True values for random effects in longitudinal and competing risks parts,namely in the order of
Filename of genereated Y matrix for longitudinal measurements in long format.
Filename of genereated C matrix for competing risks failure time data.
Filename of genereated M vector to indicate the number of longitudinal measurements per subject.
Files with names yfn, cfn and mfn.
censoring_rate |
Censoring rate of the survival data. |
rate1 |
Censoring rate of competing risk 1. |
rate2 |
Censoring rate of competing risk 2. |
yfn |
Filename of genereated Y matrix for longitudinal measurements. |
cfn |
Filename of genereated C matrix for competing risks failure time data. |
Elashoff, Robert M., Gang Li, and Ning Li. "A joint model for longitudinal measurements and survival data in the presence of multiple failure types." Biometrics 64.3 (2008): 762-771.
# NOT RUN {
# A toy example testint data generations
require(JMcmprsk)
set.seed(123)
yfn=tempfile(pattern = "", fileext = ".txt")
cfn=tempfile(pattern = "", fileext = ".txt")
mfn=tempfile(pattern = "", fileext = ".txt")
k_val=30;p1_val=4;p1a_val=1; p2_val=2;g_val=2;
truebeta=c(10,-1,1.5,0.6);truegamma=c(0.8,-1,0.5,-1); randeffect=c(5,0.5,0.5,0.5);
#writing files
SimDataC(k_val, p1_val, p1a_val, p2_val, g_val,truebeta,
truegamma, randeffect, yfn, cfn, mfn)
# }
# NOT RUN {
jmc(p=4,yfn,cfn,mfn,point=6)
# }
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