Designing drug regimens that mitigate nonadherence
Elijah D Counterman, Sean D Lawley

TL;DR
This paper develops a stochastic pharmacokinetic model to analyze how nonadherence impacts drug levels and proposes robust regimen design principles, including extended release and double dosing strategies, to mitigate nonadherence effects.
Contribution
It introduces a mathematical model of drug concentration under random nonadherence and derives principles for designing more resilient drug regimens.
Findings
Extended release drugs show significant resilience to nonadherence.
Double dosing after missed doses benefits slow absorption or elimination drugs.
Mathematical analysis quantifies the impact of nonadherence on drug levels.
Abstract
Medication adherence is a well-known problem for pharmaceutical treatment of chronic diseases. Understanding how nonadherence affects treatment efficacy is made difficult by the ethics of clinical trials that force patients to skip doses of the medication being tested, the unpredictable timing of missed doses by actual patients, and the many competing variables that can either mitigate or magnify the deleterious effects of nonadherence, such as pharmacokinetic absorption and elimination rates, dosing intervals, dose sizes, adherence rates, etc. In this paper, we formulate and analyze a mathematical model of the drug concentration in an imperfectly adherent patient. Our model takes the form of the standard single compartment pharmacokinetic model with first order absorption and elimination, except that the patient takes medication only at a given proportion of the prescribed dosing…
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