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Rule-Based Designs Considering Toxicity Alone

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Dose-Finding Designs for Early-Phase Cancer Clinical Trials

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Abstract

The primary objective of a phase I trial for an anticancer agent is to determine the maximum tolerated dose (MTD), which is defined as the dose having a toxicity (in particular, the dose-limiting toxicity) probability closest to the prespecified target toxicity probability level. Thus, dose-finding designs for phase I trials usually focus on the frequency or incidence of toxicity alone. Traditionally, dose-finding designs can be broadly classified as rule-/algorithm- or model-based designs. Rule-based designs identify the MTD by relying on prespecified dose escalation and de-escalation rules, whereas model-based designs estimate the MTD by fitting a model assumed to reflect the monotonic dose–toxicity relationship to the corresponding data. In this chapter, we focus on rule-based designs. In particular, we describe the \(3+3\) design and its variations, because this is the most common rule-based design used in practice. However, we also emphasize the limitations of the \(3+3\) design, because it poorly identifies the MTD despite its simplicity and transparency. With this in mind, we then overview alternative rule-based designs that can improve the performance of the \(3+3\) design and discuss some related topics.

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Daimon, T., Hirakawa, A., Matsui, S. (2019). Rule-Based Designs Considering Toxicity Alone. In: Dose-Finding Designs for Early-Phase Cancer Clinical Trials. SpringerBriefs in Statistics(). Springer, Tokyo. https://doi.org/10.1007/978-4-431-55585-8_2

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