Set the initial values N=30000, I=10. We make the conservative
choice of .
For every
define n(i)=100i and
.
Formula (3) is required because under certain hypothesis (see, for example, Lehmann (1983)), the following asymptotic expansions hold:
If that is the case, one could carry on analyzing the regression model defined by:
where estimator of
,
``sample mean'' over samples of
of size M(i),
,
,
,
.
Here,
represents any of the
(100 in total).
Now, since we have from
equation (5) that, for n(i) large:
using equation (4).
Thus, .
Moreover, taking into account the simulation scheme, we might consider
that
are independent (notice that, for each
the generation proceeds, instead of going back to the
beginning).
We can then apply a regression analysis to the model (6)
considering the values as the observed values of
.
Then, for example using least squares estimators, we could
estimate the coefficients in (6) with
In order to assess the accuracy of the estimators in (7), the simulation could be carried on obtaining, say R, values like
Then, one could analyze the empirical distributions of
and, from this, we would obtain estimates of the accuracy of the
least squares estimators in model (6).
Remember that, in most of the situations, our main goal will be knowledge about ; but
is also interesting since it says
something about the asymptotic bias of the procedure.
Observe that, after performing those R replications we will have at
hand RM(i) outcomes of the random variable :
.
This sample would allow us to study its empirical distribution.
We omit this last part in this work.