2014
DOI: 10.1208/s12249-013-0069-4
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From Bench to Humans: Formulation Development of a Poorly Water Soluble Drug to Mitigate Food Effect

Abstract: Abstract. This study presents a formulation approach that was shown to mitigate the dramatic food effect observed for a BCS Class II drug. In vitro (dissolution), in vivo (dog), and in silico (GastroPlus®) models were developed to understand the food effect and design strategies to mitigate it. The results showed that such models can be used successfully to mimic the clinically observed food effect. GastroPlus® modeling showed that food effect was primarily due to the extensive solubilization of the drug into … Show more

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Cited by 30 publications
(13 citation statements)
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“…Overall, BMS-C's FE mechanism was driven by solubilization in high-fat meal, aided further by the delayed fed-state gastric emptying that prolongs the window of absorption (36). Using this knowledge, FE mitigation strategies such as the inclusion of surfactants and lipid formulation additives were found to show improved bioavailability in the fasted state (38).…”
Section: Case Studies On Fe Mechanismsmentioning
confidence: 99%
“…Overall, BMS-C's FE mechanism was driven by solubilization in high-fat meal, aided further by the delayed fed-state gastric emptying that prolongs the window of absorption (36). Using this knowledge, FE mitigation strategies such as the inclusion of surfactants and lipid formulation additives were found to show improved bioavailability in the fasted state (38).…”
Section: Case Studies On Fe Mechanismsmentioning
confidence: 99%
“…However, adjustment of certain model parameters, enabled by the availability of in vivo animal and human data, was required for accurate prediction of plasma profiles. Additional software including IDEA™, PK-Sim ® , and STELLA employ similar frameworks (compartment-based) and have been used to predict the effect of ingested food on drug absorption [167, 170, 171]. Overall, literature reports support the promise of employing PBPK models in predicting food effect, but indicate that models currently widely employed require in vivo data to optimize model parameters for confidence in PK predictions.…”
Section: Value Of Mathematical Modeling and Existing Modeling Apprmentioning
confidence: 99%
“…In vitro metabolism data Permeability estimate Preclinical species IV PK data Stability in biorelevant fluids FIH formulation characterization PSD for FIH formulation FIH, phase IIB/III Impact of changes in dissolution profile, formulation related Impact of changes in dissolution profile, process and /or stability related Impact of release rate for MR formulations 22 Impact of API PSD 22,24 Physiologically based IVIVC 31 Impact of physiological variability (e.g., stomach pH) 20,21 Food effect assessment [16][17][18] Estimate of precipitation time in vivo from clinical data Verification of understanding of oral absorption and disposition in healthy volunteers and patients PBPK-PD…”
Section: Application Of Absorption Pbpk Modeling In Pharmaceutical Dementioning
confidence: 99%
“…Food effect predictions have been relatively well documented. [14][15][16][17][18] More recently, a few publications have also focused on understanding stomach pH-related interactions. [19][20][21][22] A few literature reports have demonstrated the potential applicability of PBPK modeling to study active pharmaceutical ingredient (API) properties [22][23][24] or understand the impact of dissolution differences during manufacturing changes.…”
Section: Introductionmentioning
confidence: 99%