Description Usage Arguments Examples
Simulates realisations from the posterior distribution for the population mean and precision components in a one-way normal random effects model with a semi-conjugate prior. The method marginalises over the random effects and uses univariate normal or log normal random walk proposals for the precision components.
1 2 | mhReffects(N, initial, intau, innu, priorparam, m, n, ybar, s, show = TRUE,
innLogscale = FALSE)
|
N |
length of MCMC chain. |
initial |
starting values for the algorithm. |
intau |
standard deviation of normal random walk innovation for data precision parameter tau. |
innu |
standard deviation of normal random walk innovation for random effects precision parameter nu. |
priorparam |
prior parameters a,b,c,d,e,f. |
m |
number of treatments. |
n |
vector containing the number of observations on each treatment. |
ybar |
vector containing the mean of observations on each treatment. |
s |
vector containing the standard deviation of observations on each treatment. |
show |
a logical. If true then acceptance rate for the proposals will be given. |
innLogscale |
a logical. If TRUE then proposals are made on a log scale. |
1 2 3 4 5 6 | data(contamination)
n=tapply(contamination$acc,contamination$keyboard,length)
ybar=tapply(contamination$acc,contamination$keyboard,mean)
s=sqrt(tapply(contamination$acc,contamination$keyboard,var)*(n-1)/n)
mcmcAnalysis(mhReffects(N=100,initial=c(200,2e-5,1),intau=1e-5,innu=7.9,
priorparam=c(200,0.1,0.1,0.1,0.1,0.1),m=10,n=n,ybar=ybar,s=s,show=TRUE),rows=3)
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