2014
DOI: 10.1124/dmd.114.059857
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Quantitative Structure-Pharmacokinetic Relationships for the Prediction of Renal Clearance in Humans

Abstract: Renal clearance (CL R ), a major route of elimination for many drugs and drug metabolites, represents the net result of glomerular filtration, active secretion and reabsorption, and passive reabsorption. The aim of this study was to develop quantitative structurepharmacokinetic relationships (QSPKR) to predict CL R of drugs or drug-like compounds in humans. Human CL R data for 382 compounds were obtained from the literature.Step-wise multiple linear regression was used to construct QSPKR models for training se… Show more

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Cited by 32 publications
(29 citation statements)
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“…There are mixed reports from clinical studies suggesting possible urine flow-dependent CL R of digoxin (Steiness, 1974; Halkin et al, 1975; Steiness et al, 1982) and potential role of passive tubular reabsorption in vivo (although minor). Although prediction of tubular reabsorption clearance from physicochemical properties was recently reported, the validated quantitative structure-pharmacokinetic property relationship model does not allow for prediction of passive diffusion clearance (CL PD ) values in different regions of the nephron (Dave and Morris, 2015). Recently, a static model for prediction of tubular reabsorption was reported that considered regional differences in physiologic parameters for prediction of fraction reabsorbed; this model has not been validated in the MechKiM using appropriate range of model compounds (Scotcher et al, 2016c).…”
Section: Methodsmentioning
confidence: 99%
“…There are mixed reports from clinical studies suggesting possible urine flow-dependent CL R of digoxin (Steiness, 1974; Halkin et al, 1975; Steiness et al, 1982) and potential role of passive tubular reabsorption in vivo (although minor). Although prediction of tubular reabsorption clearance from physicochemical properties was recently reported, the validated quantitative structure-pharmacokinetic property relationship model does not allow for prediction of passive diffusion clearance (CL PD ) values in different regions of the nephron (Dave and Morris, 2015). Recently, a static model for prediction of tubular reabsorption was reported that considered regional differences in physiologic parameters for prediction of fraction reabsorbed; this model has not been validated in the MechKiM using appropriate range of model compounds (Scotcher et al, 2016c).…”
Section: Methodsmentioning
confidence: 99%
“…Passive renal tubular reabsorption of drugs has been correlated with drug lipophilicity and other physico-chemical properties (23,24). Recently, a quantitative structurepharmacokinetic relationship (QSPKR) model has been developed for prediction of reabsorption clearance, although prior information on the dominant process (reabsorption or secretion) and/or Biopharmaceutical Drug Disposition and Classification System (BDDCS) class is required (25).…”
Section: Measurement Of Renal Passive Tubular Permeability In Vitromentioning
confidence: 99%
“…Regression models were evaluated for (1) all 834 compounds, (2) compounds in the ROC‐HUE and ROC‐LUE groups and (3) compounds with unique ion status – anions, cations, zwitterions and neutral compounds. A regression model with R 2 adj > 0.5 would be considered to have strong predictive power .…”
Section: Methodsmentioning
confidence: 99%
“…(1) The measured LogP (MLogP) and (2) the measured LogD (pH=7.4) (MLogD) were obtained from Benet et al [7]. We further obtained (3) calculated LogP (cLogP), and (4) polar surface area (PSA), (5) ACD labs cLogP, (6) ACD labs cLogD (pH=7.4) , (7) pKa, (8) ionization status (anions, cations, zwitterions and neutral) at a pH of 7.4, (9) water accessible surface area, (10) polarizability, (11) molar refractivity, (12) molecular volume, (13) molecular weight, (14) number of free rotatable bonds, (15) number of rings, (16) dreiding energy, (17) minimum projection area and (18) maximum projection areas for all compounds from a ChemSpider search and share chemistry online database [13] and a ChEMBL database [14]. 'cLogP' descriptor values (3) obtained from the ChemSpider and ChEMBL databases were calculated using ChemAxon physicochemical properties calculator program.…”
Section: Data Acquisition and Processingmentioning
confidence: 99%
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