The Choice of Effect Measure for Binary Outcomes: Introducing Counterfactual Outcome State Transition Parameters

Author:

Huitfeldt Anders1,Goldstein Andrew23,Swanson Sonja A.45

Affiliation:

1. Stanford University School of Medicine , The Meta-Research Innovation Center at Stanford , 1070 Arastradero Road , California, Palo Alto , USA

2. Department of Medicine , New York University , New York , USA

3. Department of Medical Informatics , Columbia University , New York , USA

4. Department of Epidemiology , Harvard T.H. Chan School of Public Health , Boston , USA

5. Department of Epidemiology , Erasmus MC , Rotterdam , Netherlands

Abstract

Abstract Standard measures of effect, including the risk ratio, the odds ratio, and the risk difference, are associated with a number of well-described shortcomings, and no consensus exists about the conditions under which investigators should choose one effect measure over another. In this paper, we introduce a new framework for reasoning about choice of effect measure by linking two separate versions of the risk ratio to a counterfactual causal model. In our approach, effects are defined in terms of counterfactual outcome state transition parameters, that is, the proportion of those individuals who would not have been a case by the end of follow-up if untreated, who would have responded to treatment by becoming a case; and the proportion of those individuals who would have become a case by the end of follow-up if untreated who would have responded to treatment by not becoming a case. Although counterfactual outcome state transition parameters are generally not identified from the data without strong monotonicity assumptions, we show that when they stay constant between populations, there are important implications for model specification, meta-analysis, and research generalization.

Publisher

Walter de Gruyter GmbH

Subject

Applied Mathematics,Epidemiology

Reference18 articles.

1. Athey, S., and Imbens, G. W. (2006). Identification and inference in nonlinear difference-in-differences models. Econometrica, 74:431–497.

2. Bareinboim, E., and J. Pearl. (2013). A general algorithm for deciding transportability of experimental results. Journal of Causal Inference 1:107–13.

3. Cole, S. R., and E. A. Stuart. (2010). “Generalizing evidence from randomized clinical trials to target populations: The ACTG 320 trial.” American Journal of Epidemiology 172: 107–115. .

4. Deeks, J. J. (2002). “Issues in the selection of a summary statistic for meta-analysis of clinical trials with binary outcomes.” Statistics in Medicine 21: 1575–1600. .

5. Deeks, J. J., and Altman, D. G. (2008). Effect measures for meta-analysis of trials with binary outcomes. In: Systematic Reviews in Health Care: Meta-Analysis in Context: Second Edition, M. Egger, G.D Smith and D.G Altman (Eds). London: BMJ Publishing Group Publisher location. 313–335.

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