用板框膜过滤系统在低温和高温条件下制备高固相乳蛋白浓缩物。

IF 3.7 1区 农林科学 Q1 AGRICULTURE, DAIRY & ANIMAL SCIENCE
Achyut Mishra , Prafulla Salunke , Venkateswarlu Sunkesula , Lloyd E. Metzger
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引用次数: 0

摘要

在典型的牛奶蛋白浓缩物(MPC)生产工艺中,脱脂牛奶使用螺旋缠绕膜进行超滤,以DM为基础生产总固体(TS)约20%和总蛋白质(TP) 80%的MPC80。然而,由于操作压力的限制,在使用螺旋缠绕膜时,通过在保留物中获得更高的固相来提高生产效率一直是一个挑战。我们尝试在板框(PF)模块中使用平板UF膜,以进一步浓缩MPC并获得更好的生产效率。将螺旋缠绕UF膜的超滤脱脂乳(饲料)浓缩在3种不同的PF设置中,包括PF在22°C (PF22), PF在50°C (PF50MS), PF在50°C (PF50HS)。因此共4种处理:饲料、PF22、PF50MS和PF50HS。对PF22和PF50HS进行过滤,直至压降达到900 kPa。对于PF50MS,当TS接近30%时停止过滤。PF22、PF50MS和PF50HS处理的平均渗透通量和最终TS均显著高于22℃处理,其渗透通量分别为8.76、10.50和11.18 Lm-2h-1, TS分别为26.83、29.92和34.24%。最终保留物的表观粘度为577;1513年;PF22、PF50MS和PF50HS处理的剪切速率分别为100 s-1和12805 cP。高温酚醛保留物中标准板计数增加;然而,这一水平低于美国农业部液态奶标准中规定的可接受限度。本研究确定了PF温度是提高MPC过滤性能的重要参数。该研究为提高乳制品生产中的TS和蛋白质水平制定了指导方针。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Manufacture of high-solids milk protein concentrate retentate using plate-and-frame membrane filtration system at low and high temperatures
In the typical milk protein concentrate (MPC) manufacturing process, skim milk is ultrafiltered using a spiral-wound membrane to produce MPC80 with ∼20% total solids (TS) and 80% total protein on a DM basis. However, improving the production efficiency by achieving higher solids in the retentate has been a challenge when using spiral-wound membranes due to the limitation of operating pressure. We attempted flat-sheet UF membrane in a plate-and-frame (PF) module to concentrate the MPC further and achieve better production efficiency. Three replicates of ultrafiltered skim milk (feed) from spiral-wound UF membrane were concentrated in 3 different PF settings, including PF at 22°C (PF22), PF at 50°C for medium solids (PF50MS), and PF at 50°C for high solids (PF50HS). Hence, there were total 4 treatments: feed, PF22, PF50MS, and PF50HS. Filtration was carried out until the pressure drop reached 900 kPa for PF22 and PF50HS. For the PF50MS, the filtration was stopped when the TS achieved close to 30%. The average permeate flux and final TS were significantly higher for the treatments conducted at 50°C compared with 22°C with permeate fluxes of 8.76, 10.50, and 11.18 Lm−2h−1 and TS of 26.83, 29.92, and 34.24%, respectively, for the PF22, PF50MS, and PF50HS treatments. The apparent viscosity of the final retentates was 577; 1,513; and 12,805 cP at a constant shear rate of 100 s−1 for the PF22, PF50MS, and PF50HS treatments, respectively. Standard plate count increased in the high-temperature PF retentates; however, the level was below the acceptable limit as described in the USDA standards for fluid milk. This study determined that PF temperature is an important parameter for improving the filtration performance of MPC. The study establishes guidelines for increasing TS and protein levels in dairy foods production.
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来源期刊
Journal of Dairy Science
Journal of Dairy Science 农林科学-奶制品与动物科学
CiteScore
7.90
自引率
17.10%
发文量
784
审稿时长
4.2 months
期刊介绍: The official journal of the American Dairy Science Association®, Journal of Dairy Science® (JDS) is the leading peer-reviewed general dairy research journal in the world. JDS readers represent education, industry, and government agencies in more than 70 countries with interests in biochemistry, breeding, economics, engineering, environment, food science, genetics, microbiology, nutrition, pathology, physiology, processing, public health, quality assurance, and sanitation.
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