I cant find any where information or algorithm how to apply in steps the bootstrap procedure to estimate the 95% confidence intervals for the 95% quantile from a random sample. Does anyone knows how to do it and can you write it? Thanks in advance.
2026-03-26 01:07:57.1774487277
Bootstrap estimation of the 95% confidence intervals for the 95% quantile for gamma distribution
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The simplest possible approach is a nonparametric bootstrap as follows:
You have a large sample from a process, but no idea what the underlying distribution may be (no family such as gamma, no parameters). Maybe it is the length of time until a particular item fails when operated at too high a temperature. You can easily make a histogram of the SAMPLE and see it has a long tail to the right. And that it's 95th percentile is at 92.62 days. Knowing the 95th percentile of this PROCESS is important, and you want a 95% CI for that.
Here is one method to find a 95% CI based on the observed 95th percentile of the sample programmed in R. (There are many styles of nonparametric bootstrap. I have no idea which ones you may have encountered. This one uses the 'quantile method'.)
So based on your sample, a bootstrap 95% CI for the 95th percentile of the process is $(88.3, 98.2).$ The final statement says that, among 10,000 bootstrap iterations, we encountered 're-samples' that produced 265 uniquely distinct 95th percentiles, which is enough for a reasonably good CI. I suspect that using a very small sample of size for such a bootstrap would not yield a useful CI.
Because pseudorandom simulation is involved in getting a bootstrap CI, you may get a slightly different result if you run the same program again. One additional run gave slightly different result that agrees with the one above when rounded to one decimal place.
I don't know whether this is a drill exercise in a class or a real problem from your work. If you have some kind of parametric bootstrap method in mind, please provide a more specific description of the situation.