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B. Keller, N. Olson, T. Richardson (1974)
Mineral Retention and Rheological Properties of Mozzarella Cheese Made by Direct AcidificationJournal of Dairy Science, 57
G. Némethy, H. Scheraga (1962)
THE STRUCTURE OF WATER AND HYDROPHOBIC BONDING IN PROTEINS. III. THE THERMODYNAMIC PROPERTIES OF HYDROPHOBIC BONDS IN PROTEINS1,2The Journal of Physical Chemistry, 66
P. Fox, L. Stepaniak (1993)
Enzymes in cheese technologyInternational Dairy Journal, 3
L. Metzger, D. Barbano, M. Rudan, P. Kindstedt (2000)
Effect of milk preacidification on low fat mozzarella cheese. I. Composition and yield.Journal of dairy science, 83 4
A. Varnam, J. Sutherland (1994)
Milk and Milk Products : Technology Chemistry and Microbiology
P. Fox, T. O'Connor, P. McSweeney, T. Guinee, N. O'Brien (1996)
Cheese: physical, biochemical, and nutritional aspects.Advances in food and nutrition research, 39
Mandy Jacob, D. Jaros, H. Rohm (2010)
The effect of coagulant type on yield and sensory properties of semihard cheese from laboratory-, pilot- and commercial-scale productions.International Journal of Dairy Technology, 63
P. Kindstedt, A. Hillier, J. Mayes (2010)
Technology, Biochemistry and Functionality of Pasta Filata/Pizza Cheese
(1993)
Cheese: Chemistry, Physics and Microbiology, ed
(2017)
Lucey, in Cheese (Fourth edition
S. Anema, Siew Lee, H. Klostermeyer (2007)
Effect of pH at heat treatment on the hydrolysis of κ-casein and the gelation of skim milk by chymosinLwt - Food Science and Technology, 40
J. Lucey, P. Fox (1993)
Importance of Calcium and Phosphate in Cheese Manufacture: A ReviewJournal of Dairy Science, 76
T. Guinee (2016)
Protein in Cheese and Cheese Products: Structure-Function Relationships
D. Johnston (2000)
The effects of freezing at high pressure on the rheology of Cheddar and Mozzarella cheeses.Milchwissenschaft-milk Science International, 55
P. Fox, T. Cogan, T. Guinee (2017)
Factors that Affect the Quality of Cheese, 1
P. Kindstedt (2007)
Low-moisture Mozzarella cheese (LMMC)
P. Walstra (1999)
Casein sub-micelles: do they exist?International Dairy Journal, 9
D. Dalgleish (2011)
On the structural models of bovine casein micelles—review and possible improvementsSoft Matter, 7
D. Horne, J. Lucey (2017)
Rennet-Induced Coagulation of Milk, 1
M. Alexander, M. Corredig, D. Dalgleish (2006)
Diffusing wave spectroscopy of gelling food systems : The importance of the photon transport mean free path (l*) parameterFood Hydrocolloids, 20
S. Vogt, Jeremy Smith, J. Seymour, A. Carr, M. Golding, S. Codd (2015)
Assessment of the changes in the structure and component mobility of Mozzarella and Cheddar cheese during heatingJournal of Food Engineering, 150
(1983)
Vandijk, Neth
D. Horne (2002)
Casein structure, self-assembly and gelationCurrent Opinion in Colloid and Interface Science, 7
D. Horne (1998)
Casein interactions : Casting light on the black boxes, the structure in dairy productsInternational Dairy Journal, 8
P. Walstra, J. Wouters, T. Geurts (2005)
Dairy Science and Technology
P. Walstra, R. Jenness (1984)
Dairy chemistry and physics
M. Cervantes, D. Lund, N. Olson (1983)
Effects of salt concentration and freezing on mozzarella cheese textureJournal of Dairy Science, 66
D. Reid, Hong Yan (2004)
RHEOLOGICAL, MELTING AND MICROSTRUCTURAL PROPERTIES OF CHEDDAR AND MOZZARELLA CHEESES AFFECTED BY DIFFERENT FREEZING METHODSJournal of Food Quality, 27
D. Dalgleish (1979)
Proteolysis and aggregation of casein micelles treated with immobilized or soluble chymosinJournal of Dairy Research, 46
Esther Feeney, P. Fox, T. Guinee (2001)
Effect of ripening temperature on the quality of low moisture Mozzarella cheese: 1. Composition and proteolysisLait, 81
and P
(2008)
inMilk Proteins, ed
P. Kindstedt (2004)
Mozzarella cheese: 40 years of scientific advancementInternational Journal of Dairy Technology, 57
R. Lawrence, L. Creamer, J. Gilles (1987)
Texture Development During Cheese RipeningJournal of Dairy Science, 70
P. Kindstedt (2002)
CHEESE | Pasta-Filata Cheeses
Donald McMahon, C. Oberg (2017)
Pasta-Filata Cheeses
M. Faccia, A. Trani, A. Luccia (2009)
Short communication: Relationships between milk quality and acidification in the production of table Mozzarella without starters.Journal of dairy science, 92 9
H. Swaisgood (2003)
Chemistry of the Caseins
S. Visser, P. ROOIJEN, C. Slangen (1980)
Peptide substrates for chymosin (rennin). Isolation and substrate behaviour of two tryptic fragments of bovine kappa casein.European journal of biochemistry, 108 2
T. Janhøj, K. Qvist (2010)
The Formation of Cheese Curd
B. Paulson, D. McMahon, C. Oberg (1998)
Influence of sodium chloride on appearance, functionality, and protein arrangements in nonfat Mozzarella cheeseJournal of Dairy Science, 81
P. Kindstedt, J. Rippe, C. Duthie (1989)
Measurement of Mozzarella Cheese Melting Properties by Helical ViscometryJournal of Dairy Science, 72
(2002)
Ryser, in Encyclopedia of Dairy Sciences, edited by H
(1997)
P.L.H.McSweeney, inMicrobiology and Biochemistry of Cheese and Fermented Milk, ed
C. Holt, C. Kruif, R. Tuinier, P. Timmins (2003)
Substructure of bovine casein micelles by small-angle X-ray and neutron scatteringColloids and Surfaces A: Physicochemical and Engineering Aspects, 213
D. McMahon, H. Du, W. McManus, K. Larsen (2010)
Erratum to “Microstructural changes in casein supramolecules during acidification of skim milk” (J. Dairy Sci. 92:5854–5867)Journal of Dairy Science, 93
D. McMahon, R. Fife, C. Oberg (1999)
Water Partitioning in Mozzarella Cheese and Its Relationship to Cheese MeltabilityJournal of Dairy Science, 82
N. Farkye, L. Kiely, R. Allshouse, P. Kindstedt (1991)
Proteolysis in Mozzarella Cheese During Refrigerated StorageJournal of Dairy Science, 74
L. Kiely, P. Kindstedt, G. Hendricks, J. Levis, J. Yun, D. Barbano (1992)
Effect of draw pH on the development of curd structure during the manufacture of Mozzarella cheeseFood Structure, 11
J. Yun, L. Kiely, D. Barbano, P. Kindstedt (1993)
Mozzarella Cheese: Impact of Cooking Temperature on Chemical Composition, Proteolysis and Functional PropertiesJournal of Dairy Science, 76
D. McMahon, B. Oommen (2008)
Supramolecular structure of the casein micelle.Journal of dairy science, 91 5
B. Schneeman (2004)
Plenary Lecture 6: Emerging Food Technology and World HealthJournal of Food Science, 69
J. Yun, D. Barbano, L. Kiely, P. Kindstedt (1995)
Mozzarella Cheese: Impact of Rod:Coccus Ratio on Composition, Proteolysis, and Functional PropertiesJournal of Dairy Science, 78
M. Broberg (1999)
The Department of Health and Human Services.Home healthcare nurse, 17 7
P. McSweeney, P. Fox (2009)
Advanced Dairy Chemistry
Prateek Sharma, P. Munro, Tzvetelin Dessev, P. Wiles, R. Buwalda (2016)
Effect of shear work input on steady shear rheology and melt functionality of model Mozzarella cheesesFood Hydrocolloids, 54
D. Horne (2003)
Casein micelles as hard spheres: limitations of the model in acidified gel formationColloids and Surfaces A: Physicochemical and Engineering Aspects, 213
(2005)
Handbook of Food Science
S. Feunteun, F. Mariette (2008)
Effects of Acidification with and without Rennet on a Concentrated Casein System: A Kinetic NMR Probe Diffusion StudyMacromolecules, 41
P. Kindstedt (1995)
Factors affecting the functional characteristics of unmelted and melted mozzarella cheese.Advances in experimental medicine and biology, 367
Kindstedt Ps (1993)
Effect of manufacturing factors, composition, and proteolysis on the functional characteristics of mozzarella cheese.Critical Reviews in Food Science and Nutrition, 33
D. Dalgleish, A. Law (1988)
pH-Induced dissociation of bovine casein micelles. I. Analysis of liberated caseinsJournal of Dairy Research, 55
D. Everett (2007)
Microstructure of natural cheeses.
Toshiaki Kimura, Y. Sagara, M. Fukushima, S. Taneya (1992)
Effect of pH on submicroscopic structure of string cheeseMilchwissenschaft-milk Science International, 47
M. Kuo, S. Gunasekaran (2009)
Effect of freezing and frozen storage on microstructure of mozzarella and pizza cheesesLwt - Food Science and Technology, 42
C. Kruif, C. Holt (2003)
Casein Micelle Structure, Functions and Interactions
V. Mistry, J. Maubois (2017)
Chapter 27 – Application of Membrane Separation Technology to Cheese Production
D. McMahon, W. McManus (1998)
Rethinking casein micelle structure using electron microscopyJournal of Dairy Science, 81
C. Holt, D. Davies, A. Law (1986)
Effects of colloidal calcium phosphate content and free calcium ion concentration in the milk serum on the dissociation of bovine casein micellesJournal of Dairy Research, 53
(2018)
Zaritzky, Lebensmittel-Wissenschaft und-Technologie
J. Lucey (2007)
22 – Microstructural approaches to the study and improvement of cheese and yogurt products
S. Gunasekaran, M. Ak (2002)
Cheese Rheology and Texture
A. Kannan, R. Jenness (1961)
Relation of Milk Serum Proteins and Milk Salts to the Effects of Heat Treatment on Rennet ClottingJournal of Dairy Science, 44
Harjinder Singh, S. Shalabi, P. Fox, A. Flynn, A. Barry (1988)
Rennet coagulation of heated milk: influence of pH adjustment before or after heatingJournal of Dairy Research, 55
P. Fox, P. McSweeney (2006)
Advanced dairy chemistry. Volume 2: lipids.
P. Fox (1989)
Proteolysis During Cheese Manufacture and RipeningJournal of Dairy Science, 72
Ram Panthi, K. Jordan, A. Kelly, J. Sheehan (2017)
Selection and Treatment of Milk for Cheesemaking
T. Guinee, P. Fox (2017)
Chapter 13 – Salt in Cheese: Physical, Chemical and Biological Aspects
M. Rowney, P. Roupas, M. Hickey, D. Everett (2004)
Salt-induced structural changes in 1-day old Mozzarella cheese and the impact upon free oil formationInternational Dairy Journal, 14
Y. Hui, F. Sherkat (2005)
Waste Management inMeat Plant
C. Oberg, A. Wang, L. Moyes, Rodney Brown, G. Richardson (1991)
Effects of Proteolytic Activity of Thermolactic Cultures on Physical Properties of Mozzarella CheeseJournal of Dairy Science, 74
M. Grufferty, Patrick Fox (1988)
Milk alkaline proteinaseJournal of Dairy Research, 55
J. Lucey (2017)
Formation, Structural Properties, and Rheology of Acid-Coagulated Milk Gels, 1
S. Francolino, F. Locci, R. Ghiglietti, Romina Iezzi, G. Mucchetti (2010)
Use of milk protein concentrate to standardize milk composition in Italian citric mozzarella cheese making.Lwt - Food Science and Technology, 43
N. Bertola, A. Califano, A. Bevilacqua, N. Zaritzky (1996)
Textural Changes and Proteolysis of Low-Moisture Mozzarella Cheese Frozen under Various ConditionsLwt - Food Science and Technology, 29
MD KINAMI, I. Miyazaki, Mdi
AND T
C. Holt (1992)
Structure and stability of bovine casein micelles.Advances in protein chemistry, 43
T. Vliet, P. Walstra (1994)
Water in casein gels; how to get it out or keep it in.Journal of Food Engineering, 22
C. Oberg, Richard Merrill, Rodney Brown, G. Richardson (1992)
Effects of Freezing, Thawing, and Shredding on Low Moisture, Part-Skim Mozzarella CheeseJournal of Dairy Science, 75
(2007)
Structure of Dairy Products, ed
C. Slattery, R. Evard (1973)
A model for the formation and structure of casein micelles from subunits of variable composition.Biochimica et biophysica acta, 317 2
N. Joshi, K. Muthukumarappan, R. Dave (2004)
Viscoelastic Properties of Part Skim Mozzarella Cheese: Effect of Calcium, Storage, and Test TemperatureInternational Journal of Food Properties, 7
Satyendra Garg, B. Johri (1994)
Rennet: Current trends and future researchFood Reviews International, 10
M. Auty (2002)
MICROSTRUCTURE OF MILK CONSTITUENTS AND PRODUCTS
Dongjin Lu, S. Nielsen (1993)
Heat inactivation of native plasminogen activators in bovine milkJournal of Food Science, 58
M. Famelart, F. Lepesant, F. Gaucheron, Y. Graet, P. Schuck (1996)
pH-Induced physicochemical modifications of native phosphocaseinate suspensions: Influence of aqueous phaseLait, 76
Andrew Legg, A. Carr, R. Bennett, K. Johnston (2017)
Chapter 26 – General Aspects of Cheese Technology
Jeremy Smith, J. Hindmarsh, A. Carr, M. Golding, D. Reid (2017)
Molecular drivers of structural development in Mozzarella cheeseJournal of Food Engineering, 214
C. Daviau, M. Famelart, A. Pierre, H. Goudédranche, J. Maubois (2000)
Rennet coagulation of skim milk and curd drainage: effect of pH, casein concentration, ionic strength and heat treatmentLait, 80
A. Pastorino, C. Hansen, D. McMahon (2003)
Effect of salt on structure-function relationships of cheese.Journal of dairy science, 86 1
A. Hill (1995)
Chemical species in cheese and their origin in milk components.Advances in experimental medicine and biology, 367
P. Fox, Mcsweeny P.L.H. (1996)
Proteolysis in cheese during ripeningFood Reviews International, 12
L. Costabel, M. Pauletti, E. Hynes (2007)
Proteolysis in Mozzarella cheeses manufactured by different industrial processes.Journal of dairy science, 90 5
(1985)
Guerts, Neth
G. Ribero, A. Rubiolo, S. Zorrilla (2009)
Microstructure of Mozzarella cheese as affected by the immersion freezing in NaCl solutions and by the frozen storageJournal of Food Engineering, 91
D. Mcclements (2007)
Understanding and Controlling the Microstructure of Complex Foods
C. Bryant, D. Mcclements (1998)
Molecular basis of protein functionality with special consideration of cold-set gels derived from heat-denatured wheyTrends in Food Science and Technology, 9
N. Bertola, A. Califano, A. Bevilacqua, N. Zaritzky (1996)
Effect of Freezing Conditions on Functional Properties of Low Moisture Mozzarella CheeseJournal of Dairy Science, 79
W. Sawyer (1969)
Complex Between -Lactoglobulin and ?-Casein. A ReviewJournal of Dairy Science
M. Guo, J. Gilmore, P. Kindstedt (1997)
Effect of sodium chloride on the serum phase of Mozzarella cheeseJournal of Dairy Science, 80
F. Solorza, A. Bell (1995)
Effect of calcium, fat and total solids on the rheology of a model soft cheese systemInternational Journal of Dairy Technology, 48
N. Farkye, P. Fox (1991)
Preliminary study on the contribution of plasmin to proteolysis in Cheddar cheese: cheese containing plasmin inhibitor, 6-aminohexanoic acidJournal of Agricultural and Food Chemistry, 39
A. Renda, D. Barbano, J. Yun, P. Kindstedt, S. Mulvaney (1997)
Influence of Screw Speeds of the Mixer at Low Temperature on Characteristics of Mozzarella CheeseJournal of Dairy Science, 80
M. Guo, P. Kindstedt (1995)
Age-Related Changes in the Water Phase of Mozzarella CheeseJournal of Dairy Science, 78
D. Everett, M. Auty (2017)
Chapter 21 – Cheese Microstructure1
D. Dalgleish, M. Corredig (2012)
The structure of the casein micelle of milk and its changes during processing.Annual review of food science and technology, 3
(2003)
Timmins, Colloids Surf
P. Walstra (1990)
On the stability of casein micelles.Journal of Dairy Science, 73
S. Eliot, J. Vuillemard, J. Emond (2006)
Stability of shredded Mozzarella cheese under modified atmospheresJournal of Food Science, 63
Baraem Ismail, S. Nielsen (2010)
Invited review: Plasmin protease in milk: current knowledge and relevance to dairy industry.Journal of dairy science, 93 11
(1985)
Technological Suitability of Calf Rennet Substitutes, 194 (Bulletin of the International Dairy Federation
H. Rollema, J. Brinkhuis (1989)
A 1H-NMR study of bovine casein micelles; influence of pH, temperature and calcium ions on micellar structureJournal of Dairy Research, 56
F. Weber (1984)
Drainage of curd.
(2004)
H.McSweeney, inCheese: An Overview, ed
From its journey from milk through to its end use, Mozzarella cheese undergoes significant transformations in its makeup of components and their structural arrangement. The typical Mozzarella processing steps each alter the structural configuration of the system. The colloidal dispersion of proteins, fat, lactose and minerals that is milk experiences physical, thermal, chemical, biological and ionic induced changes to its composition and structure throughout the manufacturing process and storage. This review critically evaluates the literature related to the structural changes occurring as a result of each step in Mozzarella cheese production process. Emphasis is placed on the role of each step and the induced transformations at the micro and macro scale in the system. Additionally, the review also looks at the changes that occur as a result of storage. This evolution in structure culminates in the creation of an end product with a bi-continuous gel structure that has a desired functionality in its end use.
Food Biophysics – Springer Journals
Published: Dec 30, 2017
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