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Constructing Statistical Intervals for Small Area Estimates Based on Generalized Linear Mixed Model in Health Surveys
Yan Wang1, Xingyou Zhang2, Hua Lu1
1Division of Population Health, National Center for Chronic Disease Prevention and Health Promotion, Centers for Disease Control and Prevention, Atlanta, GA, USA.
Monte Carlo (MC) simulation offers a computationally efficient method for creating statistical intervals in small area estimation. This approach yields results comparable to Bayesian methods for health indicators, making it suitable for public health practice.
Area of Science:
- Statistics
- Public Health
- Biostatistics
Background:
- Generalized Linear Mixed Models (GLMM) are common for small area estimation of health indicators.
- Bayesian estimation is typically used for statistical intervals but is computationally intensive for large surveys.
- Frequentist methods like bootstrapping and Monte Carlo (MC) simulation are alternatives but lack comprehensive evaluation.
Purpose of the Study:
- To evaluate frequentist approaches, specifically bootstrapping and MC simulation, for constructing statistical intervals in small area estimation.
- To compare the magnitude, width, and computational time of intervals generated by bootstrapping and MC simulation against Bayesian credible intervals.
- To assess the viability of MC simulation as an efficient alternative for public health applications.
Main Methods:
- Utilized the 2013 Florida Behavioral Risk Factor Surveillance System data.
- Applied a Generalized Linear Mixed Model (GLMM) to estimate county-level prevalence of three health outcomes.
- Generated 95% confidence intervals (CIs) using bootstrapping and MC simulation, comparing them to Bayesian credible intervals from a hierarchical Bayesian model.
Main Results:
- 95% CIs from MC simulation closely matched 95% credible intervals from Bayesian estimation for county-level health outcome prevalence.
- MC simulation demonstrated superior computational efficiency compared to other methods.
- Bootstrapping and MC simulation intervals were evaluated for magnitude and width, with MC simulation showing promise.
Conclusions:
- Monte Carlo simulation is a computationally efficient and viable option for constructing statistical intervals in small area estimation for public health.
- The study provides evidence supporting MC simulation as a practical alternative to computationally intensive Bayesian methods.
- Findings suggest MC simulation can reliably generate statistical intervals for health indicators in large, complex survey data.
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