2007
DOI: 10.1016/j.idairyj.2007.04.003
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Solubility and aggregation of commercial α-lactalbumin at neutral pH

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Cited by 30 publications
(12 citation statements)
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“…Similarly, the aggregation behavior of two other commercial preparations (A and B) of α -La was found to be signifi cantly different at 95 ° C at neutral pH in a complex mineral salt environment. 282 Preparation A had a higher solubility at pH 6.75 and 6.8, yielded more reactive thiol groups, had a (25%) faster fi rst -order rate constant, and formed spherical aggregates with much higher -molecular -weight species than preparation B. 282 While preparation A showed much higher aggregation tendency at pH 4.6, preparation B aggregated signifi cantly more than preparation A at pH 6.75 and 6.8.…”
Section: Sources Of Proteinsmentioning
confidence: 99%
“…Similarly, the aggregation behavior of two other commercial preparations (A and B) of α -La was found to be signifi cantly different at 95 ° C at neutral pH in a complex mineral salt environment. 282 Preparation A had a higher solubility at pH 6.75 and 6.8, yielded more reactive thiol groups, had a (25%) faster fi rst -order rate constant, and formed spherical aggregates with much higher -molecular -weight species than preparation B. 282 While preparation A showed much higher aggregation tendency at pH 4.6, preparation B aggregated signifi cantly more than preparation A at pH 6.75 and 6.8.…”
Section: Sources Of Proteinsmentioning
confidence: 99%
“…Proteins, owing to the special features of their molecular structure (a large number of both the polar and non-polar functional groups in their molecules), are prone to pronounced self-assembly in an aqueous medium as a result of weak physical bond formation, the character of which is varies markedly by the environmental conditions, such as acidification, addition of divalent ions or low-molecular mass ingredients, temperature or high-pressure treatment, fermentation (Semenova, 2007). In recent years, DLS has been used for studying the aggregation of b-lactoglobulin, a-lactalbumin, caseins and other proteins (Baeza, Gugliotta, & Pilosof, 2001;Elofsson, Dejmek, & Paulsson, 1996;Guyomarc'h, Nono, Nicolai, & Durand, 2009;Harnsilawat, Pongsawatmanit, & McClements, 2006;Hoffmann, Roefs, Verheul, Van Mil, & De Kruif, 1996;Karlsson, Ipsen, Schrader, & Ardö , 2005;McGuffey, Otterb, van Zantenc, & Foegeding, 2007;Mehalebi, Nicolai, & Durand, 2008;Roefs & De Kruif, 1994;Sharma, Haque, & Wilson, 1996). However, studies on CMP aggregation by this technique have not been reported.…”
Section: Introductionmentioning
confidence: 99%
“…In addition to the process‐related impurities, contaminants can be brought into the final DS preparations through any of the above processes. The difference in the type and level of impurities or contaminants in different protein preparations could explain the different extent and mechanism of degradation for recombinant human thrombopoietin (rhTPO), and different aggregation behaviors of three commercially holo‐α‐lactalbumin products—Sigmaα‐La, IEXα‐La, and Cα‐La, at different pHs …”
Section: Drug Substance Manufacturingmentioning
confidence: 99%
“…The difference in the type and level of impurities or contaminants in different protein preparations could explain the different extent and mechanism of degradation for recombinant human thrombopoietin (rhTPO), 34 and different aggregation behaviors of three commercially holo-"-lactalbumin products-Sigma"-La, IEX"-La, and C"-La, at different pHs. 43,44…”
Section: Drug Substance Manufacturingmentioning
confidence: 99%