Unlocking Cognitive Analysis Potential in Alzheimer's Disease Clinical Trials: Investigating Hierarchical Linear Models for Analyzing Novel Measurement Burst Design Data

Measurement burst designs typically administer brief cognitive tests four times per day for 1 week, resulting in a maximum of 28 data points per week per test for every 6 months. In Alzheimer's disease clinical trials, utilizing measurement burst designs holds great promise for boosting statistical power by collecting huge amount of data. However, appropriate methods for analyzing these complex datasets are not well investigated. Furthermore, the large amount of burst design data also poses tremendous challenges for traditional computational procedures such as SAS mixed or Nlmixed. We propose to analyze burst design data using novel hierarchical linear mixed effects models or hierarchical mixed models for repeated measures. Through simulations and real-world data applications using the novel SAS procedure Hpmixed, we demonstrate these hierarchical models' efficiency over traditional models. Our sample simulation and analysis code can serve as a catalyst to facilitate the methodology development for burst design data.

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Publication Details

Journal
Statistics in Medicine
Published
2024-11-25
DOI
https://doi.org/10.1002/sim.10292
Citations
6
Primary Topic
Statistical Methods in Clinical Trials
Type
article
Field-Weighted Citation Impact
4.25

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article

Unlocking Cognitive Analysis Potential in Alzheimer's Disease Clinical Trials: Investigating Hierarchical Linear Models for Analyzing Novel Measurement Burst Design Data

Randall John Bateman, Jason J. Hassenstab, Eric McDade, Guoqiao Wang et al.
6 citations
Statistics in Medicine
Statistical Methods in Clinical Trials
4.25
article

Unlocking Cognitive Analysis Potential in Alzheimer's Disease Clinical Trials: Investigating Hierarchical Linear Models for Analyzing Novel Measurement Burst Design Data

Randall John Bateman, Jason J. Hassenstab, Eric McDade, Guoqiao Wang, Andrew J. Aschenbrenner, Jorge J. Llibre‐Guerra, Yan Li, Chengjie Xiong
article en
6 citations

Abstract

Measurement burst designs typically administer brief cognitive tests four times per day for 1 week, resulting in a maximum of 28 data points per week per test for every 6 months. In Alzheimer's disease clinical trials, utilizing measurement burst designs holds great promise for boosting statistical power by collecting huge amount of data. However, appropriate methods for analyzing these complex datasets are not well investigated. Furthermore, the large amount of burst design data also poses tremendous challenges for traditional computational procedures such as SAS mixed or Nlmixed. We propose to analyze burst design data using novel hierarchical linear mixed effects models or hierarchical mixed models for repeated measures. Through simulations and real-world data applications using the novel SAS procedure Hpmixed, we demonstrate these hierarchical models' efficiency over traditional models. Our sample simulation and analysis code can serve as a catalyst to facilitate the methodology development for burst design data.

Statistics in MedicineVol. 43(30)
Washington University in St. Louis (US)
GHR Foundation, National Institutes of Health, National Institute on Aging
Openalex Percentile: Top 5%
Statistical Methods in Clinical Trials
4.25
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Unlocking Cognitive Analysis Potential in Alzheimer's Disease Clinical Trials: Investigating Hierarchical Linear Models for Analyzing Novel Measurement Burst Design Data — Randall John Bateman, Jason J. Hassenstab, et al. · Statistics in Medicine (2024) | TGRS Research Map | TGRS