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Using Monte Carlo experiments to select meta-analytic estimators
Sanghyun Hong1, W Robert Reed1
1Department of Economics and Finance, University of Canterbury, Christchurch, New Zealand.
Monte Carlo analysis helps select meta-analytic estimators by evaluating bias, MSE, and coverage. Performance varies by research context, guiding researchers to choose the best estimator for their specific situation.
Area of Science:
- Statistical analysis
- Meta-analysis methodology
- Research methods
Background:
- Meta-analysis is crucial for synthesizing research findings across various disciplines.
- Selecting appropriate meta-analytic estimators is vital for accurate and reliable results.
- Existing research lacks comprehensive guidance on estimator selection based on empirical performance.
Purpose of the Study:
- To demonstrate the utility of Monte Carlo analysis for selecting meta-analytic estimators.
- To compare the performance of 11 common meta-analytic estimators across diverse research scenarios.
- To provide practical guidance for researchers in choosing the most suitable estimator for their specific study.
Main Methods:
- Conducted 1620 experiments simulating various research characteristics (sample size, effect size, heterogeneity, publication bias).
- Evaluated 11 common meta-analytic estimators based on bias, mean squared error (MSE), and coverage rates.
- Replicated simulation environments from four recent meta-analysis studies.
Main Results:
- Estimator performance varied significantly across different performance measures (bias, MSE, coverage).
- No single estimator consistently outperformed others; performance was context-dependent.
- Sample size and effect size heterogeneity were key factors influencing relative estimator performance.
- An estimator optimal for MSE might be suboptimal for coverage rates.
Conclusions:
- Monte Carlo analysis provides a robust framework for evaluating and selecting meta-analytic estimators.
- Observable research characteristics, such as sample size and effect heterogeneity, can guide estimator choice.
- This study offers practical insights for meta-analysts to improve the rigor and validity of their research synthesis.
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