2014
DOI: 10.5958/0976-0563.2014.00610.1
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High pressure technology for cheese processing-a review

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Cited by 8 publications
(11 citation statements)
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“…Changes in cheese are the most frequently studied among dairy products regarding high pressure. The most relevant changes caused by utilizing high-pressure-treated milk are the modification of coagulation time, acceleration of ripening, increasing of yield, and modifications to physicochemical and sensory properties [1,4,7,21,54,58,[66][67][68][69]. Some changes are related to the denaturation of whey proteins and the fragmentation of casein micelles-high pressure causes these two protein fractions to interact with each other.…”
Section: Cheesementioning
confidence: 99%
See 1 more Smart Citation
“…Changes in cheese are the most frequently studied among dairy products regarding high pressure. The most relevant changes caused by utilizing high-pressure-treated milk are the modification of coagulation time, acceleration of ripening, increasing of yield, and modifications to physicochemical and sensory properties [1,4,7,21,54,58,[66][67][68][69]. Some changes are related to the denaturation of whey proteins and the fragmentation of casein micelles-high pressure causes these two protein fractions to interact with each other.…”
Section: Cheesementioning
confidence: 99%
“…Some changes are related to the denaturation of whey proteins and the fragmentation of casein micelles-high pressure causes these two protein fractions to interact with each other. Therefore, wet-yield curd is increased as whey proteins-such as β-Lg-bond to casein micelles, causing them to not separate during coagulation; in addition, water-holding capacity and distribution are improved [1,67,68]. In addition to the improved yield and water retention properties, the change in proteins alters rennet coagulation time; however, the extent and type of changes depend on the intensity of pressure applied.…”
Section: Cheesementioning
confidence: 99%
“…The HPP treatment decreased the titrable acidity and increased the pH of the camel and bovine cheeses significantly (p < 0.05). This has been explained by the disaggregation of the colloidal casein micelles and the increased dissolution of ionic calcium phosphate in response to the pressure effect on bovine milk (15,(54)(55)(56). Cheese produced from the HTST-pasteurized camel milk samples had the lowest pH and the highest acidity compared to bovine milk samples (p < 0.05), which can be explained by enhanced hydrophobic contacts within the casein micelles conferring stability against dissociation with increased temperature (57).…”
Section: Comparing the Effects Of Pasteurization And Hpp Treatments On Cheese Yield And Aciditymentioning
confidence: 99%
“…The first domain of pressure increase (from 0.1-600 MPa and 30-50C) result in pressure induced spore germination and the higher pressure lead to spore inactivation (Reineke et al 2013). HPP has the potential to produce microbiologically safe food and can alter the functional properties of proteins, polysaccharides and biochemical reactions without significantly affecting the nutritional and sensory properties of food (Chopde et al 2014). Dhineshkumar et al (2016) reported that a pressure range between 100 and 1200 MPa is effective for inactivation of food borne pathogens.…”
Section: Hpp In Microbial Inactivationmentioning
confidence: 99%