Cold Microfiltration as an Enabler of Sustainable Dairy Protein Ingredient Innovation

被引:28
作者
France, Thomas C. [1 ]
Kelly, Alan L. [1 ]
Crowley, Shane, V [1 ]
O'Mahony, James A. [1 ]
机构
[1] Univ Coll Cork, Sch Food & Nutr Sci, Cork T12 TP07, Ireland
关键词
microfiltration; cold MF; partitioning; membrane fouling; BOVINE BETA-CASEIN; SKIM-MILK; WHEY-PROTEIN; MEMBRANE FILTRATION; MICELLAR CASEIN; PROCESSING TEMPERATURE; POLYMERIC MEMBRANES; SOMATIC-CELLS; CONCENTRATE; REMOVAL;
D O I
10.3390/foods10092091
中图分类号
TS2 [食品工业];
学科分类号
0832 ;
摘要
Classically, microfiltration (0.1-0.5 mu m) of bovine skim milk is performed at warm temperatures (45-55 degrees C), to produce micellar casein and milk-derived whey protein ingredients. Microfiltration at these temperatures is associated with high initial permeate flux and allows for the retention of the casein fraction, resulting in a whey protein fraction of high purity. Increasingly, however, the microfiltration of skim milk and other dairy streams at low temperatures (<= 20 degrees C) is being used in the dairy industry. The trend towards cold filtration has arisen due to associated benefits of improved microbial quality and reduced fouling, allowing for extended processing times, improved product quality and opportunities for more sustainable processing. Performing microfiltration of skim milk at low temperatures also alters the protein profile and mineral composition of the resulting processing streams, allowing for the generation of new ingredients. However, the use of low processing temperatures is associated with high mechanical energy consumption to compensate for the increased viscosity, and thermal energy consumption for inline cooling, impacting the sustainability of the process. This review will examine the differences between warm and cold microfiltration in terms of membrane performance, partitioning of bovine milk constituents, microbial growth, ingredient innovation and process sustainability.
引用
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页数:18
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共 80 条
[1]   Effect of microfiltration of milk on plasmin activity [J].
Aaltonen, Terhi ;
Ollikainen, Pia .
INTERNATIONAL DAIRY JOURNAL, 2011, 21 (04) :193-197
[2]   Resistance of the constitutive microflora of biofilms formed on whey reverse-osmosis membranes to individual cleaning steps of a typical clean-in-place protocol [J].
Anand, Sanjeev ;
Singh, Diwakar .
JOURNAL OF DAIRY SCIENCE, 2013, 96 (10) :6213-6222
[3]   CONFORMATION AND AGGREGATION OF BOVINE BETA-CASEIN-A .1. MOLECULAR ASPECTS OF THERMAL AGGREGATION [J].
ANDREWS, AL ;
ATKINSON, D ;
EVANS, MTA ;
FINER, EG ;
GREEN, JP ;
PHILLIPS, MC ;
ROBERTSON, RN .
BIOPOLYMERS, 1979, 18 (05) :1105-1121
[4]  
[Anonymous], 2013, MEMBRANE PROCESSING
[5]   Bovine β-casein: Isolation, properties and functionality. A review [J].
Atamer, Zeynep ;
Post, Antonie E. ;
Schubert, Thomas ;
Holder, Aline ;
Boom, Remko Marcel ;
Hinrichs, Joerg .
INTERNATIONAL DAIRY JOURNAL, 2017, 66 :115-125
[6]   Scale-up from laboratory microfiltration to a ceramic pilot plant: Design and performance [J].
Baruah, GL ;
Nayak, A ;
Belfort, G .
JOURNAL OF MEMBRANE SCIENCE, 2006, 274 (1-2) :56-63
[7]   Effect of pore size and process temperature on flux, microbial reduction and fouling mechanisms during sweet whey cross-flow microfiltration by ceramic membranes [J].
Barukcic, Irena ;
Bozanic, Rajka ;
Kulozik, Ulrich .
INTERNATIONAL DAIRY JOURNAL, 2014, 39 (01) :8-15
[8]   Effect of microfiltration concentration factor on serum protein removal from skim milk using spiral-wound polymeric membranes [J].
Beckman, S. L. ;
Barbano, D. M. .
JOURNAL OF DAIRY SCIENCE, 2013, 96 (10) :6199-6212
[9]   Production efficiency of micellar casein concentrate using polymeric spiral-wound microfiltration membranes [J].
Beckman, S. L. ;
Zulewska, J. ;
Newbold, M. ;
Barbano, D. M. .
JOURNAL OF DAIRY SCIENCE, 2010, 93 (10) :4506-4517
[10]   Thermophilic bacilli and their importance in dairy processing [J].
Burgess, Sara A. ;
Lindsay, Denise ;
Flint, Steve H. .
INTERNATIONAL JOURNAL OF FOOD MICROBIOLOGY, 2010, 144 (02) :215-225