Raking for estimation and inference in panel models with nonignorable attrition and refreshment
Grigory Franguridi, Jinyong Hahn, Pierre Hoonhout, Arie Kapteyn, Geert Ridder

TL;DR
This paper introduces a raking-based estimation method for panel models with nonignorable attrition, enabling practical inference by solving a functional minimization efficiently, with proven consistency and good empirical performance.
Contribution
It develops a novel raking algorithm for density estimation in panel data with nonignorable attrition, facilitating empirical application of identification strategies.
Findings
Raking algorithm converges rapidly with continuous data
Estimator is consistent with known convergence rates
Method performs well in simulations and real data analysis
Abstract
In panel data subject to nonignorable attrition, auxiliary (refreshment) sampling may restore full identification under weak assumptions on the attrition process. Despite their generality, these identification strategies have seen limited empirical use, largely because the implied estimation procedure requires solving a functional minimization problem for the target density. We show that this problem can be solved using the iterative proportional fitting (raking) algorithm, which converges rapidly even with continuous and moderately high-dimensional data. This resulting density estimator is then used as input into a parametric moment condition. We establish consistency and convergence rates for both the raking-based density estimator and the resulting moment estimator when the distributions of the observed data are parametric. We also derive a simple recursive procedure for estimating…
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Taxonomy
TopicsSpatial and Panel Data Analysis · Statistical Methods and Inference · Statistical Methods and Bayesian Inference
