We consider the problem of hypothesis testing about a value of functional. For a given functional T the problem is to test a hypothesis T(P) = 0 versus alternatives T(P) > b0 > 0 where P is an arbitrary probability measure. Under the natural assumptions we show that the test statistics depending on the empirical probability measures are asymptotically minimax. Since the sets of alternatives is fixed the asymptotic minimaxity is considered in the senses of Bahadur and Hodges-Lehmann efficiencies. In particular the functional T can be the functional corresponding to the test statistics of Kolmogorov and omega square tests.Large deviations Nonparametric hypothesis testing Asymptotically minimax hypothesis testing Bahadur efficiency Hodges-Lehm...
AbstractThere are hypothesis testing problems for (nonlinear) functions of parameters against functi...
We observe an infinitely dimensional Gaussian random vector x = ξ + v where ξ is a sequence of stand...
We observe an infinitely dimensional Gaussian random vector x=#xi#+#upsilon# where #xi# is a sequenc...
We consider the problem of hypothesis testing about a value of functional. For a given functional T ...
We consider the problem of hypothesis testing about a value of functional. For a given functional T ...
An asymptotic lower bound for the minimax hypothesis testing about functional values is indicated. T...
We show that the sequence of chi-square tests is asymptotically minimax if a number of cells increas...
In the problem of signal detection in Gaussian white noise we show asymptotic minimaxity of kernel-b...
In the context of testing the specification of a nonlinear parametric regression function, we adopt ...
In the problem of signal detection in Gaussian white noise we show asymptotic minimaxity of kernel-b...
In the problem of signal detection in Gaussian white noise we show asymptotic minimaxity of kernel-b...
International audienceWe consider the problem of testing a particular type of composite null hypothe...
International audienceWe consider the problem of testing a particular type of composite null hypothe...
We consider the asymptotic behavior of chi-square tests when a number k_n of cells increases as the ...
International audienceWe consider the problem of testing a particular type of composite null hypothe...
AbstractThere are hypothesis testing problems for (nonlinear) functions of parameters against functi...
We observe an infinitely dimensional Gaussian random vector x = ξ + v where ξ is a sequence of stand...
We observe an infinitely dimensional Gaussian random vector x=#xi#+#upsilon# where #xi# is a sequenc...
We consider the problem of hypothesis testing about a value of functional. For a given functional T ...
We consider the problem of hypothesis testing about a value of functional. For a given functional T ...
An asymptotic lower bound for the minimax hypothesis testing about functional values is indicated. T...
We show that the sequence of chi-square tests is asymptotically minimax if a number of cells increas...
In the problem of signal detection in Gaussian white noise we show asymptotic minimaxity of kernel-b...
In the context of testing the specification of a nonlinear parametric regression function, we adopt ...
In the problem of signal detection in Gaussian white noise we show asymptotic minimaxity of kernel-b...
In the problem of signal detection in Gaussian white noise we show asymptotic minimaxity of kernel-b...
International audienceWe consider the problem of testing a particular type of composite null hypothe...
International audienceWe consider the problem of testing a particular type of composite null hypothe...
We consider the asymptotic behavior of chi-square tests when a number k_n of cells increases as the ...
International audienceWe consider the problem of testing a particular type of composite null hypothe...
AbstractThere are hypothesis testing problems for (nonlinear) functions of parameters against functi...
We observe an infinitely dimensional Gaussian random vector x = ξ + v where ξ is a sequence of stand...
We observe an infinitely dimensional Gaussian random vector x=#xi#+#upsilon# where #xi# is a sequenc...