Random pairing MLE for estimation of item parameters in Rasch model
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Abstract (arXiv)
The Rasch model, a classical model in the item response theory, is widely used in psychometrics to model the relationship between individuals' latent traits and their binary responses to assessments or questionnaires. In this paper, we introduce a new likelihood-based estimator -- random pairing maximum likelihood estimator (mathrmRP-MLE) and its bootstrapped variant multiple random pairing MLE (mathrmMRP-MLE) which faithfully estimate the item parameters in the Rasch model. The new estimators have several appealing features compared to existing ones. First, both work for sparse observations, an increasingly important scenario in the big data era. Second, both estimators are provably minimax optimal in terms of finite sample ℓ∞ estimation error. Lastly, both admit precise distributional characterization that allows uncertainty quantification on the item parameters, e.g., construction of confidence intervals for the item parameters. The main idea underlying mathrmRP-MLE and mathrmMRP-MLE is to randomly pair user-item responses to form item-item comparisons. This is carefully designed to reduce the problem size while retaining statistical independence. We also provide empirical evidence of the efficacy of the two new estimators using both simulated and real data.
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References · 19
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- 2016Top-K Ranking from Pairwise Comparisons: When Spectral Ranking is Optimalcited by 9
7 more
- 2021ℓ∞-Bounds of the MLE in the BTL Model under General Comparison Graphscited by 8
- 2023A unified analysis of likelihood-based estimators in the Plackett--Luce modelcited by 8
- 2020A General Pairwise Comparison Model for Extremely Sparse Networkscited by 7
- 2022A Spectral Approach to Item Response Theorycited by 4
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- 2023Optimal and Private Learning from Human Response Datacited by 2
- 2024Top-K ranking with a monotone adversarycited by 2
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