A Physiologically Based in Silico Tool to Assess the Risk of Drug-Related Crystalluria

Drug precipitation in the nephrons of the kidney can cause drug-induced crystal nephropathy (DICN). To aid mitigation of this risk in early drug discovery, we developed a physiologically based in silico model to predict DICN in rats, dogs, and humans. At a minimum, the likelihood of DICN is determin...

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Veröffentlicht in:Journal of medicinal chemistry 2020-06, Vol.63 (12), p.6489-6498
Hauptverfasser: Li, Zhenhong, Litchfield, John, Tess, David A, Carlo, Anthony A, Eng, Heather, Keefer, Christopher, Maurer, Tristan S
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container_end_page 6498
container_issue 12
container_start_page 6489
container_title Journal of medicinal chemistry
container_volume 63
creator Li, Zhenhong
Litchfield, John
Tess, David A
Carlo, Anthony A
Eng, Heather
Keefer, Christopher
Maurer, Tristan S
description Drug precipitation in the nephrons of the kidney can cause drug-induced crystal nephropathy (DICN). To aid mitigation of this risk in early drug discovery, we developed a physiologically based in silico model to predict DICN in rats, dogs, and humans. At a minimum, the likelihood of DICN is determined by the level of systemic exposure to the molecule, the molecule’s physicochemical properties and the unique physiology of the kidney. Accordingly, the proposed model accounts for these properties in order to predict drug exposure relative to solubility along the nephron. Key physiological parameters of the kidney were codified in a manner consistent with previous reports. Quantitative structure–activity relationship models and in vitro assays were used to estimate drug-specific physicochemical inputs to the model. The proposed model was calibrated against urinary excretion data for 42 drugs, and the utility for DICN prediction is demonstrated through application to 20 additional drugs.
doi_str_mv 10.1021/acs.jmedchem.9b01995
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title A Physiologically Based in Silico Tool to Assess the Risk of Drug-Related Crystalluria
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