A tiered, Bayesian approach to estimating of population variability for regulatory decision-making.
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ABSTRACT: Characterizing human variability in susceptibility to chemical toxicity is a critical issue in regulatory decision-making, but is usually addressed by a default 10-fold safety/uncertainty factor. Feasibility of population-based in vitro experimental approaches to more accurately estimate human variability was demonstrated recently using a large (~1000) panel of lymphoblastoid cell lines. However, routine use of such a large population-based model poses cost and logistical challenges. We hypothesize that a Bayesian approach embedded in a tiered workflow provides efficient estimation of variability and enables a tailored and sensible approach to selection of appropriate sample size. We used the previously collected lymphoblastoid cell line in vitro toxicity data to develop a data-derived pri
SUBMITTER: Chiu WA
PROVIDER: S-EPMC5468494 | biostudies-literature | 2017
REPOSITORIES: biostudies-literature
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