Skip to main content
added 88 characters in body
Source Link
Christoph Hanck
  • 34.8k
  • 3
  • 78
  • 137

Partial answer for linear models (I do not argue things are different for nonlinear models, just do not present results):

Partial answer for linear models:

Partial answer for linear models (I do not argue things are different for nonlinear models, just do not present results):

added 268 characters in body
Source Link
Christoph Hanck
  • 34.8k
  • 3
  • 78
  • 137

Remark 1: ifIf we knew the error variance, the result would be true, as Wald and LR then are identical, cf - no differences can arise from estimating the variance in different ways. See also Exact equivalence of LR and Wald in linear regression under known error variance)

Remark 5: Since $\mathcal{W}_{ij}=O_p(1)$ also under local alternatives, as the statistics are noncentral chi-square distributed (see e.g. Sampling distribution of Coefficient of determination in general for a related discussion for the F statistic). Therefore, Remark 3 should also go through under such local alternatives.

Remark 1: if we knew the error variance, the result would be true, as Wald and LR then are identical, cf. Exact equivalence of LR and Wald in linear regression under known error variance)

Remark 5: Since $\mathcal{W}_{ij}=O_p(1)$ also under local alternatives, as the statistics are noncentral chi-square distributed, Remark 3 should also go through under such local alternatives.

Remark 1: If we knew the error variance, the result would be true, as Wald and LR then are identical - no differences can arise from estimating the variance in different ways. See also Exact equivalence of LR and Wald in linear regression under known error variance)

Remark 5: $\mathcal{W}_{ij}=O_p(1)$ also under local alternatives, as the statistics are noncentral chi-square distributed (see e.g. Sampling distribution of Coefficient of determination in general for a related discussion for the F statistic). Therefore, Remark 3 should also go through under such local alternatives.

added 57 characters in body
Source Link
Christoph Hanck
  • 34.8k
  • 3
  • 78
  • 137

Remark 5: Since $\mathcal{W}_{ij}=O_p(1)$ also under local alternatives, as the statistics are noncentral chi-square distributed, Remark 3 should also go through under such local alternatives.

Remark 5: Since $\mathcal{W}_{ij}=O_p(1)$ also under local alternatives, Remark 3 should also go through under such local alternatives.

Remark 5: Since $\mathcal{W}_{ij}=O_p(1)$ also under local alternatives, as the statistics are noncentral chi-square distributed, Remark 3 should also go through under such local alternatives.

added 249 characters in body
Source Link
Christoph Hanck
  • 34.8k
  • 3
  • 78
  • 137
Loading
added 249 characters in body
Source Link
Christoph Hanck
  • 34.8k
  • 3
  • 78
  • 137
Loading
added 49 characters in body
Source Link
Christoph Hanck
  • 34.8k
  • 3
  • 78
  • 137
Loading
added 222 characters in body
Source Link
Christoph Hanck
  • 34.8k
  • 3
  • 78
  • 137
Loading
added 490 characters in body
Source Link
Christoph Hanck
  • 34.8k
  • 3
  • 78
  • 137
Loading
added 1501 characters in body
Source Link
Christoph Hanck
  • 34.8k
  • 3
  • 78
  • 137
Loading
deleted 16 characters in body
Source Link
Christoph Hanck
  • 34.8k
  • 3
  • 78
  • 137
Loading
added 1170 characters in body
Source Link
Christoph Hanck
  • 34.8k
  • 3
  • 78
  • 137
Loading
deleted 122 characters in body
Source Link
Richard Hardy
  • 69.5k
  • 13
  • 126
  • 278
Loading
Source Link
Christoph Hanck
  • 34.8k
  • 3
  • 78
  • 137
Loading