Abstract

PurposeAdverse effects related to anti-cancer drug treatment influence patient’s quality of life, have an impact on the realized dosing regimen, and can hamper response to treatment. Quantitative models that relate drug exposure to the dynamics of adverse effects have been developed and proven to be very instrumental to optimize dosing schedules. The aims of this review were (i) to provide a perspective of how adverse effects of anti-cancer drugs are modeled and (ii) to report several model structures of adverse effect models that describe relationships between drug concentrations and toxicities.MethodsVarious quantitative pharmacodynamic models that model adverse effects of anti-cancer drug treatment were reviewed.ResultsQuantitative models describing relationships between drug exposure and myelosuppression, cardiotoxicity, and graded adverse effects like fatigue, hand-foot syndrome (HFS), rash, and diarrhea have been presented for different anti-cancer agents, including their clinical applicability.ConclusionsMathematical modeling of adverse effects proved to be a helpful tool to improve clinical management and support decision-making (especially in establishment of the optimal dosing regimen) in drug development. The reported models can be used as templates for modeling a variety of anti-cancer-induced adverse effects to further optimize therapy.

Highlights

  • Adverse effects are a major problem in the treatment with both cytotoxic drugs and newer targeted therapies, resulting in dose reductions, dose delays, and treatment cessation

  • Box 80082, 3508 TB Utrecht, The Netherlands (HFS), rash, and diarrhea have been presented for different anti-cancer agents, including their clinical applicability

  • The reported models can be used as templates for modeling a variety of anti-cancer-induced adverse effects to further optimize therapy

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Summary

Introduction

Adverse effects are a major problem in the treatment with both cytotoxic drugs and newer targeted therapies, resulting in dose reductions, dose delays, and treatment cessation. The reported models can be used as templates for modeling a variety of anti-cancer-induced adverse effects to further optimize therapy. Since modeling adverse effects is becoming increasingly important in anti-cancer drug treatment and drug development, an overview of existing modeling approaches can be helpful for future research.

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