2018
DOI: 10.1016/j.jmva.2018.01.001
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Minimax linear estimation at a boundary point

Abstract: This paper characterizes the minimax linear estimator of the value of an unknown function at a boundary point of its domain in a Gaussian white noise model under the restriction that the first-order derivative of the unknown function is Lipschitz continuous (the second-order Hölder class). The result is then applied to construct the minimax optimal estimator for the regression discontinuity design model, where the parameter of interest involves function values at boundary points.

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Cited by 4 publications
(3 citation statements)
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“…When p = 1, the optimal estimator is a local constant estimator based on the triangular kernel. When p = 2, the solution is given in Fuller (1961) and Zhao (1997) for the interior point problem, and in Gao (2018) for the boundary point problem. See Appendix E in the supplemental materials for details, including plots of these kernels.…”
Section: Kernel Efficiencymentioning
confidence: 99%
“…When p = 1, the optimal estimator is a local constant estimator based on the triangular kernel. When p = 2, the solution is given in Fuller (1961) and Zhao (1997) for the interior point problem, and in Gao (2018) for the boundary point problem. See Appendix E in the supplemental materials for details, including plots of these kernels.…”
Section: Kernel Efficiencymentioning
confidence: 99%
“…When p=1, the optimal estimator is a local constant estimator based on the triangular kernel. When p=2, the solution is given in Fuller () and Zhao () for the interior point problem, and in Gao () for the boundary point problem. See Appendix D.2 in the Online Supplemental Material for details.…”
Section: Applicationsmentioning
confidence: 99%
“…the interior point problem, and in Gao (2018) for the boundary point problem. See Appendix D.2 in the Online Supplemental Material for details.…”
Section: Boundary Pointmentioning
confidence: 99%