| Literature DB >> 27816631 |
Alison Margolskee1, Adam S Darwich2, Xavier Pepin3, Leon Aarons2, Aleksandra Galetin2, Amin Rostami-Hodjegan4, Sara Carlert5, Maria Hammarberg5, Constanze Hilgendorf5, Pernilla Johansson5, Eva Karlsson5, Dónal Murphy6, Christer Tannergren5, Helena Thörn5, Mohammed Yasin6, Florent Mazuir7, Olivier Nicolas7, Sergej Ramusovic8, Christine Xu9, Shriram M Pathak10, Timo Korjamo11, Johanna Laru12, Jussi Malkki11, Sari Pappinen11, Johanna Tuunainen11, Jennifer Dressman13, Simone Hansmann13, Edmund Kostewicz13, Handan He14, Tycho Heimbach14, Fan Wu14, Carolin Hoft15, Loic Laplanche15, Yan Pang15, Michael B Bolger16, Eva Huehn16, Viera Lukacova16, James M Mullin16, Ke X Szeto16, Chester Costales17, Jian Lin17, Mark McAllister18, Sweta Modi17, Charles Rotter17, Manthena Varma18, Mei Wong18, Amitava Mitra19, Jan Bevernage20, Jeike Biewenga20, Achiel Van Peer20, Richard Lloyd21, Carole Shardlow21, Peter Langguth22, Irina Mishenzon22, Mai Anh Nguyen22, Jonathan Brown23, Hans Lennernäs24, Bertil Abrahamsson5.
Abstract
Orally administered drugs are subject to a number of barriers impacting bioavailability (Foral), causing challenges during drug and formulation development. Physiologically-based pharmacokinetic (PBPK) modelling can help during drug and formulation development by providing quantitative predictions through a systems approach. The performance of three available PBPK software packages (GI-Sim, Simcyp®, and GastroPlus™) were evaluated by comparing simulated and observed pharmacokinetic (PK) parameters. Since the availability of input parameters was heterogeneous and highly variable, caution is required when interpreting the results of this exercise. Additionally, this prospective simulation exercise may not be representative of prospective modelling in industry, as API information was limited to sparse details. 43 active pharmaceutical ingredients (APIs) from the OrBiTo database were selected for the exercise. Over 4000 simulation output files were generated, representing over 2550 study arm-institution-software combinations and approximately 600 human clinical study arms simulated with overlap. 84% of the simulated study arms represented administration of immediate release formulations, 11% prolonged or delayed release, and 5% intravenous (i.v.). Higher percentages of i.v. predicted area under the curve (AUC) were within two-fold of observed (52.9%) compared to per oral (p.o.) (37.2%), however, Foral and relative AUC (Frel) between p.o. formulations and solutions were generally well predicted (64.7% and 75.0%). Predictive performance declined progressing from i.v. to solution and immediate release tablet, indicating the compounding error with each layer of complexity. Overall performance was comparable to previous large-scale evaluations. A general overprediction of AUC was observed with average fold error (AFE) of 1.56 over all simulations. AFE ranged from 0.0361 to 64.0 across the 43 APIs, with 25 showing overpredictions. Discrepancies between software packages were observed for a few APIs, the largest being 606, 171, and 81.7-fold differences in AFE between SimCYP and GI-Sim, however average performance was relatively consistent across the three software platforms.Entities:
Keywords: Absorption; Biopharmaceutics; Drug database; Modelling and simulation (M&S); Oral bioavailability (F(oral)); Physiologically-based pharmacokinetics (PBPK)
Mesh:
Substances:
Year: 2016 PMID: 27816631 DOI: 10.1016/j.ejps.2016.10.036
Source DB: PubMed Journal: Eur J Pharm Sci ISSN: 0928-0987 Impact factor: 4.384