Application of the MechPeff model to predict passive effective intestinal permeability in the different regions of the rodent small intestine and colon

A major component of physiologically based pharmacokinetic (PBPK) models is the prediction of the rate and extent of absorption of orally dosed drugs for which knowledge of effective passive intestinal permeability (Peff) is essential. Single‐pass intestinal perfusion (SPIP) studies are used to esta...

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Veröffentlicht in:Biopharmaceutics & drug disposition 2017-03, Vol.38 (2), p.94-114
Hauptverfasser: Pade, D., Jamei, M., Rostami‐Hodjegan, A., Turner, D.B.
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Jamei, M.
Rostami‐Hodjegan, A.
Turner, D.B.
description A major component of physiologically based pharmacokinetic (PBPK) models is the prediction of the rate and extent of absorption of orally dosed drugs for which knowledge of effective passive intestinal permeability (Peff) is essential. Single‐pass intestinal perfusion (SPIP) studies are used to establish effective permeability in vivo but are difficult to perform in rodents, while mechanistic models to predict drug Peff in rat and mouse have not been published. This work evaluates the predictive performance of the ‘MechPeff’ model to predict Peff in the rodent intestine based upon knowledge of regional gut physiology and drug‐specific physicochemical parameters. The ‘MechPeff’ model, built‐in to the Simcyp Rat and Mouse Simulators, predicts transcellular, paracellular and mucus layer permeabilities and combines these to give the overall Peff. The jejunal and/or ileal Peff was predicted for 12 (4) acidic, 13 (12) basic, 10 (8) neutral and 2 (0) ampholytic drugs in the rat (mouse), spanning a wide range of MW and logPo:w, and compared with experimental Peff obtained using SPIP. A key input is the intrinsic transcellular permeability (Ptrans,0) which can be derived from modelling of appropriate in vitro permeability experiments or predicted from physicochemical properties. The Peff predictions were reasonably good when experimentally derived Ptrans,0 was used; from 42 Peff,rat values, 24 (57%) were within 3‐fold, and of 19 Peff,mouse values, 12 (63%) were within 3‐fold, of observed Peff. Considering the lack of alternative models to predict Peff in preclinical species, and the minimal drug‐specific inputs required, this model provides a valuable tool within drug discovery and development programmes. Copyright © 2017 John Wiley & Sons, Ltd.
doi_str_mv 10.1002/bdd.2072
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Single‐pass intestinal perfusion (SPIP) studies are used to establish effective permeability in vivo but are difficult to perform in rodents, while mechanistic models to predict drug Peff in rat and mouse have not been published. This work evaluates the predictive performance of the ‘MechPeff’ model to predict Peff in the rodent intestine based upon knowledge of regional gut physiology and drug‐specific physicochemical parameters. The ‘MechPeff’ model, built‐in to the Simcyp Rat and Mouse Simulators, predicts transcellular, paracellular and mucus layer permeabilities and combines these to give the overall Peff. The jejunal and/or ileal Peff was predicted for 12 (4) acidic, 13 (12) basic, 10 (8) neutral and 2 (0) ampholytic drugs in the rat (mouse), spanning a wide range of MW and logPo:w, and compared with experimental Peff obtained using SPIP. A key input is the intrinsic transcellular permeability (Ptrans,0) which can be derived from modelling of appropriate in vitro permeability experiments or predicted from physicochemical properties. The Peff predictions were reasonably good when experimentally derived Ptrans,0 was used; from 42 Peff,rat values, 24 (57%) were within 3‐fold, and of 19 Peff,mouse values, 12 (63%) were within 3‐fold, of observed Peff. Considering the lack of alternative models to predict Peff in preclinical species, and the minimal drug‐specific inputs required, this model provides a valuable tool within drug discovery and development programmes. 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Single‐pass intestinal perfusion (SPIP) studies are used to establish effective permeability in vivo but are difficult to perform in rodents, while mechanistic models to predict drug Peff in rat and mouse have not been published. This work evaluates the predictive performance of the ‘MechPeff’ model to predict Peff in the rodent intestine based upon knowledge of regional gut physiology and drug‐specific physicochemical parameters. The ‘MechPeff’ model, built‐in to the Simcyp Rat and Mouse Simulators, predicts transcellular, paracellular and mucus layer permeabilities and combines these to give the overall Peff. The jejunal and/or ileal Peff was predicted for 12 (4) acidic, 13 (12) basic, 10 (8) neutral and 2 (0) ampholytic drugs in the rat (mouse), spanning a wide range of MW and logPo:w, and compared with experimental Peff obtained using SPIP. A key input is the intrinsic transcellular permeability (Ptrans,0) which can be derived from modelling of appropriate in vitro permeability experiments or predicted from physicochemical properties. The Peff predictions were reasonably good when experimentally derived Ptrans,0 was used; from 42 Peff,rat values, 24 (57%) were within 3‐fold, and of 19 Peff,mouse values, 12 (63%) were within 3‐fold, of observed Peff. Considering the lack of alternative models to predict Peff in preclinical species, and the minimal drug‐specific inputs required, this model provides a valuable tool within drug discovery and development programmes. 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source MEDLINE; Access via Wiley Online Library
subjects Administration, Oral
Animals
bile salts
Colon - anatomy & histology
Colon - metabolism
Diffusion
Drug Discovery - methods
gut morphology
High-Throughput Screening Assays
Intestinal Absorption
Intestinal Mucosa - anatomy & histology
Intestinal Mucosa - metabolism
Intestine, Small - anatomy & histology
Intestine, Small - metabolism
mechanistic prediction
MechPeff
Mice
Models, Biological
Permeability
Pharmaceutical Preparations - administration & dosage
Pharmaceutical Preparations - metabolism
Pharmacokinetics
Rats, Sprague-Dawley
Reproducibility of Results
rodent intestinal permeability
title Application of the MechPeff model to predict passive effective intestinal permeability in the different regions of the rodent small intestine and colon
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