2011
DOI: 10.1016/j.ejpb.2010.12.006
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Identification of permeability-related hurdles in oral delivery of curcumin using the Caco-2 cell model

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Cited by 222 publications
(175 citation statements)
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“…According to these results, the use of microemulsion for DOX can be leaded to an enhancement of permeated drug concentration. A similar result concerning the release of a submicron lipid emulsion formulation was also observed (15,16 …”
Section: Permeability Studies For Dox Microemulsion and Solutionsupporting
confidence: 59%
“…According to these results, the use of microemulsion for DOX can be leaded to an enhancement of permeated drug concentration. A similar result concerning the release of a submicron lipid emulsion formulation was also observed (15,16 …”
Section: Permeability Studies For Dox Microemulsion and Solutionsupporting
confidence: 59%
“…The cumulative amount of the drug that permeated through the monolayers measured in the receiver compartment was plotted against the sampling time. The apparent permeability coefficient was calculated according to the following equation (27).…”
Section: Transport Across the Caco-2 Monolayersmentioning
confidence: 99%
“…Curcumin is ineffectively transported across the intestinal mucosa into the circulation (Holder et al, 1978;Wahlstrom and Blennow, 1978;Ravindranath and Chandrasekhara, 1980;Cheng et al, 2001;Sharma et al, 2001Sharma et al, , 2004Garcea et al, 2004Garcea et al, , 2005Yang et al, 2007a;Vareed et al, 2008;Villegas et al, 2008;Suresh and Srinivasan, 2010;Wahlang et al, 2011;Berginc et al, 2012). Furthermore, the curcumin molecules that bypass transport hurdles and escape biotransformation in the intestinal mucosa (Ireson et al, 2002;Hoehle et al, 2007;Wahlang et al, 2011;Berginc et al, 2012;Dempe et al, 2012), i.e., by definition the first pass effect for orally administered curcumin, and manage to reach the circulation instantaneously become susceptible to chemical modification in blood ; uptake and biotransformation by the liver (second pass effect), kidneys, and other organs (Holder et al, 1978;Wahlstrom and Blennow, 1978;Pan et al, 1999;Asai and Miyazawa, 2000;Garcea et al, 2004;Hoehle et al, 2006;Tamvakopoulos et al, 2007b;Vareed et al, 2008;Marczylo et al, 2009), and excretion via the biliary or urinary system, albeit the latter occurs to a limited extent (Holder et al, 1978;Ravindranath and Chandrasekhara, 1980;Sharma et al, 2004;Marczylo et al, 2009;Suresh and Srinivasan, 2010). These phenomena are further elaborated in the context of biological curcumin metabolite...…”
Section: A Curcumin Pharmacokinetics and Pharmacodynamicsmentioning
confidence: 99%
“…The enzymatic source responsible for the reduction of curcumin is, however, strictly cytosolic, whereas the reduction of hexahydrocurcumin to octahydrocurcumin occurs in both the cytosol and microsomes (Ireson et al, 2002). In Caco-2 cell transport experiments, Wahlang et al (2011) showed that itraconazole-mediated inhibition of cytochrome P450 CYP3A4, an isozyme that is replete Cancer Pharmacology of Curcumin in the liver and intestines (Yokose et al, 1999) and capable of detoxifying certain drugs by reduction (Shahrokh et al, 2012), results in an increased curcumin permeability coefficient (Wahlang et al, 2011). This finding is suggestive of alterations in reductive biotransformation of curcumin by CYP3A4, which manifests itself in differential curcumin transport kinetics as a result of a shifted curcumin:reduced curcumin equilibrium and corollary effects on transporter activity.…”
Section: Pharmacokinetics and Pharmacodynamic Implications Of Curcmentioning
confidence: 99%