Efficiency of estimators for partially specified filtered models
P. E. Greenwood and
W. Wefelmeyer
Stochastic Processes and their Applications, 1990, vol. 36, issue 2, 353-370
Abstract:
Let Xn1,..., Xnn be counting processes and let Yn1,..., Ynn be vector-valued covariate processes. Assume that the intensity processes of the Xni with respect to the filtration generated by Xni and Yni are known up to a (possibly infinite-dimensional) parameter, but that the distribution of Xni and Yni is unspecified otherwise. We give conditions under which the partially specified likelihood in the sense of Gill-Slud-Jacod is locally asymptotically normal. We show that the partially specified likelihood determines a covariance bound in the sense of a Hájek-LeCam convolution theorem for estimating functionals of the underlying parameter. The theorem shows that the Huffer-McKeague estimator is efficient in Aalen's additive risk model, and that the Cox estimator for the regression coefficients and a Breslow-type estimator for the integrated baseline hazard are efficient in Cox's and in Prentice and Self's proportional hazards models.
Date: 1990
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