Given data on counts of successes for each category, calculate confidence sets for the ranks of categories, where categories are ranked by their success probabilities.
csranks_multinom(
x,
coverage = 0.95,
cstype = "two-sided",
simul = TRUE,
multcorr = "Holm",
indices = NA,
na.rm = FALSE
)
A csranks
object, which is a list with three items:
L
Lower bounds of the confidence sets for ranks indicated in indices
rank
Raw rank estimates using irank
with default parameters
U
Upper bounds of the confidence sets.
vector of counts of successes for each category
nominal coverage of the confidence set. Default is 0.95.
type of confidence set (two-sided
, upper
, lower
). Default is two-sided
.
logical; if TRUE
(default), then simultaneous confidence sets are computed, which jointly cover all populations indicated by indices
.
Otherwise, for each population indicated in indices
a marginal confidence set is computed.
multiplicity correction to be used: Holm
(default) or Bonferroni
. See Details section for more.
vector of indices of x
for whose ranks the confidence sets are computed. indices=NA
(default) means computation for all ranks.
logical; if TRUE
, then NA
's are removed from x
and Sigma
(if any).
The command implements the procedure for construction of confidence sets for ranks described in the referenced paper below.
It involves testing multiple hypotheses. The `multcorr
` states, how the
p-values should be corrected to control the Family Wise Error Rate (FWER).
From a practical point of view, multcorr=Holm
takes more time, but usually results
in tighter (better) confidence sets than multcorr=Bonferroni
.
Bazylik, Mogstad, Romano, Shaikh, and Wilhelm. "Finite-and large-sample inference for ranks using multinomial data with an application to ranking political parties".
x <- c(rmultinom(1, 1000, 1:10))
csranks_multinom(x)
Run the code above in your browser using DataLab