| Literature DB >> 33608511 |
Maya Diamant1, Shoham Baruch2,3, Eias Kassem4, Khitam Muhsen2, Dov Samet1, Moshe Leshno1, Uri Obolski5,6.
Abstract
The overuse of antibiotics is exacerbating the antibiotic resistance crisis. Since this problem is a classic common-goods dilemma, it naturally lends itself to a game-theoretic analysis. Hence, we designed a model wherein physicians weigh whether antibiotics should be prescribed, given that antibiotic usage depletes its future effectiveness. The physicians' decisions rely on the probability of a bacterial infection before definitive laboratory results are available. We show that the physicians' equilibrium decision rule of antibiotic prescription is not socially optimal. However, we prove that discretizing the information provided to physicians can mitigate the gap between their equilibrium decisions and the social optimum of antibiotic prescription. Despite this problem's complexity, the effectiveness of the discretization solely depends on the type of information available to the physician to determine the nature of infection. This is demonstrated on theoretic distributions and a clinical dataset. Our results provide a game-theory based guide for optimal output of current and future decision support systems of antibiotic prescription.Entities:
Year: 2021 PMID: 33608511 DOI: 10.1038/s41467-021-21088-5
Source DB: PubMed Journal: Nat Commun ISSN: 2041-1723 Impact factor: 14.919