Estimation of Linear models from Coarsened Observations Estimation of Linear models Estimation from Coarsened Observations A Method of Moments Approach
Bernard M.S. van Praag, J. Peter Hop, William H. Greene

TL;DR
This paper introduces a GMM-based method for estimating linear models from coarsened ordinal data, offering a computationally efficient alternative to maximum likelihood, especially for multivariate models.
Contribution
The paper proposes a novel GMM approach that simplifies and speeds up the estimation of multivariate linear models with coarsened data, avoiding complex multivariate integrations.
Findings
GMM estimates are statistically similar to ML estimates.
The proposed method significantly reduces computational time.
Applicable to multi-equation models with correlated errors.
Abstract
In the last few decades, the study of ordinal data in which the variable of interest is not exactly observed but only known to be in a specific ordinal category has become important. In Psychometrics such variables are analysed under the heading of item response models (IRM). In Econometrics, subjective well-being (SWB) and self-assessed health (SAH) studies, and in marketing research, Ordered Probit, Ordered Logit, and Interval Regression models are common research platforms. To emphasize that the problem is not specific to a specific discipline we will use the neutral term coarsened observation. For single-equation models estimation of the latent linear model by Maximum Likelihood (ML) is routine. But, for higher -dimensional multivariate models it is computationally cumbersome as estimation requires the evaluation of multivariate normal distribution functions on a large scale. Our…
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Taxonomy
TopicsReservoir Engineering and Simulation Methods
