1999
DOI: 10.1002/(sici)1097-0126(199904)48:4<327::aid-pi165>3.0.co;2-y
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Gliadin nanoparticles: formation, all-trans-retinoic acid entrapment and release, size optimization

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Cited by 32 publications
(6 citation statements)
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“…Solvent desorption has a variety of pseudonyms, including nanoprecipitation (Barichello and others 1999; Duclairoir and others 1999; Lee and others 1999; Jiminez and others 2004; Leo and others 2004), interfacial deposition/solvent displacement (Murakami and others 1999; Mosqueira and others 2000, 2001), salting‐out (Galindo‐Rodriguez and others 2004), simple coacervation (Mauguet and others 2002; Mohanty and Bohidar 2003), and emulsification‐diffusion (Galindo‐Rodriguez and others 2004; Cirpanli and others 2005; Lai and Tsiang 2005). These different pseudonyms represent differences in the approaches used to induce solvent desorption and biopolymer particle formation, for example, polymer polarity, use of salts, speed of solvent addition, and removal of solvent (as by evaporation).…”
Section: Biopolymer Particle Formation Methodsmentioning
confidence: 99%
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“…Solvent desorption has a variety of pseudonyms, including nanoprecipitation (Barichello and others 1999; Duclairoir and others 1999; Lee and others 1999; Jiminez and others 2004; Leo and others 2004), interfacial deposition/solvent displacement (Murakami and others 1999; Mosqueira and others 2000, 2001), salting‐out (Galindo‐Rodriguez and others 2004), simple coacervation (Mauguet and others 2002; Mohanty and Bohidar 2003), and emulsification‐diffusion (Galindo‐Rodriguez and others 2004; Cirpanli and others 2005; Lai and Tsiang 2005). These different pseudonyms represent differences in the approaches used to induce solvent desorption and biopolymer particle formation, for example, polymer polarity, use of salts, speed of solvent addition, and removal of solvent (as by evaporation).…”
Section: Biopolymer Particle Formation Methodsmentioning
confidence: 99%
“…Desolvation is generally performed by introducing large quantities of aqueous solution and other polar cosolvents (Duclairoir and others 1998) or salts (Mauguet and others 2002; Lazko and others 2004a) to an ethanol‐dispersion. Particle size of these particles can be optimized using salts and surfactants (Duclairoir and others 1999). Such gliadin particles ( d ∼ 500 nm) were capable of encapsulating retinoic acid (Duclairoir and others 1999).…”
Section: Biopolymer Particle Formation Methodsmentioning
confidence: 99%
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“…The entrapment or encapsulation of vitamin A has been used as an approach to improve chemical and photochemical stability in different systems, such as emulsions, 14 hydrogels, 15 solid lipid nanoparticles, 16,17 polymer encapsulation. 18,19 Addition of antioxidants has also been used to protect vitamin A from photooxidation. 14,15 The chemical stability of RP in emulsions was reported to be associated to the physical stability of emulsion and the presence of a coherent gel-like structure in the system.…”
Section: Introductionmentioning
confidence: 99%
“…Zero order diffusion (release rate 0.065 mg RA/h) was observed after about a 20% initial burst. Duclairoir et al optimized the parameters on the size of gliadin nanoparticles and the release profile of all‐trans‐retinoic acid 16. Encapsulation and in vitro release of α‐Tocopherol from gliadin nanoparticles had also been studied 17.…”
Section: Introductionmentioning
confidence: 99%