中国乳业 ›› 2026, Vol. 0 ›› Issue (9): 66-73.doi: 10.12377/1671-4393.26.09.10

• 质量安全 • 上一篇    下一篇

乳制品管道冷消毒技术创新应用与智能升级

吴炜俊, 李颂群*, 吴泽鹏, 蔡晓驹, 莫嘉欣   

  1. 广州风行乳业股份有限公司,广东广州 510610
  • 出版日期:2026-09-25 发布日期:2026-10-23
  • 通讯作者: *李颂群(1977-),女,广东梅州人,本科,工程师,研究方向为乳品质量管控。
  • 作者简介:吴炜俊(1995-),男,广东江门人,硕士,工程师,研究方向为食品加工与安全;吴泽鹏(1991-),男,广东揭阳人,本科,助理工程师,研究方向为食品质量安全;蔡晓驹(1990-),男,广东汕头人,专科,助理工程师,研究方向为乳品工艺研发;莫嘉欣(2000-),女,广东肇庆人,本科,助理工程师,研究方向为乳品质量管理。

Innovative Application and Intelligent Green Upgrading of Cold Disinfection Technology for Dairy Product Pipelines

WU Weijun, LI Songqun*, WU Zepeng, CAI Xiaoju, MO Jiaxin   

  1. Guangzhou Fengxing Dairy Co.,Ltd.,Guangzhou Guangdong 510610
  • Online:2026-09-25 Published:2026-10-23

摘要: 乳制品生产线原位清洗(CIP)是保障产品安全与品质的核心环节,传统热力与强化学消毒存在能耗高、环境负担重、损害设备及影响产品风味等弊端,低温高效环保的冷消毒技术已成为食品工业研究热点。本文聚焦乳制品管道冷消毒技术,系统梳理物理性方法、绿色化学与生物制剂及智能化集成系统的最新进展,评述其作用机理、应用效果与局限性,深入探讨其与食品微生物组学等多学科的协同增效潜力。通过多维度评价现有应用案例,明确当前研究核心缺口:真实工业环境动态优化实证不足、绿色消毒剂生命周期评估数据匮乏、多技术协同机制不明。展望未来,提出构建数字孪生驱动的自适应微生物风险管控系统,旨在为乳品工业CIP技术迭代升级提供理论依据与前瞻性思考,助力实现高效、智能、绿色消毒的终极目标。

关键词: 乳制品管道, 冷消毒技术, 智能绿色升级, 绿色消毒剂, 跨学科协同

Abstract: Clean-in-Place(CIP)in dairy production lines constitute a core process for safeguarding product safety and quality. Traditional thermal and strong chemical disinfection methods suffer from inherent drawbacks,including high energy consumption,heavy environmental burden,potential equipment damage,and adverse impacts on product flavor. Against this backdrop,cold disinfection technology,characterized by low-temperature operation,high efficiency,and environmental friendliness,has emerged as a research hotspot in the food industry. This paper focused on cold disinfection technology for dairy product pipelines,systematically reviewing the latest advances in physical methods,green chemical and biological agents,and intelligent integrated systems. It evaluated their mechanisms of action,application efficacy,and limitations,while further exploring the synergistic enhancement potential with multiple disciplines such as food microbiomics. Through a multidimensional assessment of existing application cases,this study identified the core gaps in current research:insufficient empirical evidence for dynamic optimization under real industrial conditions,lack of life cycle assessment data for green disinfectants,and unclear synergistic mechanisms among multiple technologies. Looking forward,this paper proposed the construction of a digital twin-driven adaptive microbial risk management and control system,aiming to provide a theoretical basis and forward-looking insights for the iterative upgrading of CIP technology in the dairy industry,and to facilitate the achievement of the ultimate goal of efficient,intelligent,and green disinfection.

Key words: dairy product pipeline, cold disinfection technology, intelligent and green upgrading, green disinfectant, interdisciplinary synergy

[1] Wang X,Chen M,Lu Y,et al.Inactivation of multidrug-resistant bacteria using cold atmospheric-pressure plasma technology[J].Frontiers in Medicine,2025(12):1522186.
[2] Pant K J,Cotter P D,Wilkinson M G,et al.Towards sustainable Cleaning-in-Place(CIP)in dairy processing:Exploring enzyme-based approaches to cleaning in the cheese industry[J].Comprehensive Reviews in Food Science and Food Safety,2023,22(5):3602-3619.
[3] 曾韵乔,张天阳,曾超,等.饮用水消毒研究进展:从氯消毒到新型技术的应用[J].能源环境保护,2025,39(1):48-59.
[4] Kanca N,Avar Y K.Cold plasma technology and its effects on some properties of milk and dairy products[J].Research in Agricultural Sciences,2023,54(2):89-94.
[5] Song M G,Roy P K,Jeon E B,et al.Effect of dielectric barrier discharge plasma against Listeria monocytogenes mixed-culture biofilms on food-contact surfaces[J].Antibiotics(Basel),2023,12(3):609.
[6] Cai S,Zhu F Y,Ji H C,et al.Pipeline offline trough cleaning technology[J].Metalurgija,2022,61(3/4):717-720.
[7] Asimakopoulou E,Sotiriοs Ι Ε,Papakonstantinou P,et al.Inhibition of corrosion causing Pseudomonas aeruginosa using plasma activated water[J].Journal of Applied Microbiology,2021,132(4):2781-2794.
[8] Chen B K,Wang C K.Electrolyzed water and its pharmacological activities:A mini-review[J].Molecules,2022,27(4):1222.
[9] Liu Y,Wang C,Shi Z,et al.Optimization and modeling of slightly acidic electrolyzed water for the Clean-in-Place process in milking systems[J].Foods(Basel,Switzerland),2020,9(11):1685.
[10] Vega-Bosch A,Santamarina-Campos V,Osete-Cortina L,et al.Efficient and sustainable cleaning:A comparative analysis of cryogenic technology[J].Applied Sciences,2024,14(15):6591.
[11] Munir M,Nadeem M,Qureshi T M,et al.Effects of high pressure,microwave and ultrasound processing on proteins and enzyme activity in dairy systems-A review[J].Innovative Food Science and Emerging Technologies,2019(57):102192.
[12] Biasi A,Gionta M,Pisa F,et al.Enhancement of microbicidal efficacy of chemical disinfectants when combined with ultrasound technology[J].Journal of Applied Microbiology,2024,135(3).
[13] Tian P,Wang X,Zhu G,et al.Effects of combining lysozyme,ultrasound,and heat treatments on the inactivation of Bacillus subtilis spores[J].Archives of Microbiology,2025,207(8).
[14] Ates E G,Bal M,Cetin Karasu M,et al.Reformulation and characterization of Mediterranean ingredients by novel technologies[J].Food Engineering Reviews,2025,17(3):1-35.
[15] Palma M,Qi B.Advancing phage therapy:A comprehensive review of the safety,efficacy,and future prospects for the targeted treatment of bacterial infections[J].Infectious Disease Reports,2024,16(6):1127-1181.
[16] Gvaladze T,Lehnherr H,Hertwig S.A bacteriophage cocktail can efficiently reduce five important Salmonella serotypes both on chicken skin and stainless steel[J].Frontiers in Microbiology,2024(15):1354696.
[17] Soto Lopez M E,Mendoza-Corvis F,Salgado-Behaine J J,et al.Phage endolysins as an alternative biocontrol strategy for pathogenic and spoilage microorganisms in the food industry[J].Viruses,2025,17(4):564.
[18] Rabbani A,Khaliq A,Mudgil P,et al.Recent advances in lemongrass essential oil:Food safety,preservation,and bioactivity in food systems[J].Comprehensive Reviews in Food Science and Food Safety,2026,25(1):e70350.
[19] Albano C,Nabawy A,Tran W C,et al.Effective killing of Mycobacterium abscessus biofilm by nanoemulsion delivery of plant phytochemicals[J].Microbiology Spectrum,2025,13(3):e0216624.
[20] Luna-Solorza J M,Ayala-Zavala J F,Cruz-Valenzuela M R,et al.Oregano essential oil versus conventional disinfectants against Salmonella typhimurium and Escherichia coli O157:H7 biofilms and damage to stainless-steel surfaces[J].Pathogens,2023,12(10):1245.
[21] Arefi A,Vilas C,Delele M A,et al.Convergence of Digital Twins and food drying technology:How to bring the next generation of dryers to life?[J].Journal of Food Engineering,2026(404):112770.
[22] Siponen S,Ikonen J,Gomez-Alvarez V,et al.Effect of pipe material and disinfectant on active bacterial communities in drinking water and biofilms[J].Journal of Applied Microbiology,2025,136(1):lxaf004.
[23] Ma F,Tang X,Chao Y,et al.Antifouling and bactericidal zwitterionic polymer coatings with synergistic inhibitory and killing properties[J].ACS Applied Biomaterials,2025,8(12):1635-1645.
[24] Lee M,Han S I,Kim C,et al.ZrO2/ZnO/TiO2 nanocomposite coatings on stainless steel for improved corrosion resistance,biocompatibility,and antimicrobial activity[J].ACS Applied Materials & Interfaces,2022,14(11):13801-13811.
[25] Zhang B,Zhang Y,Ma S,et al.Slippery liquid-infused porous surface(SLIPS)with super-repellent and contact-killing antimicrobial performances[J].Colloids and Surfaces B:Biointerfaces,2022(220):112878.
[26] Shao H,Yin K,Xu N,et al.Adaptive surfaces with stimuli-responsive wettability:From tailoring to applications[J].ACS Nano,2025,19(7):6729-6747.
[27] Hassan A E O,Demirkol A.Comparative analysis of Kalman-based approaches for fault detection in a Clean-In-Place System Model[J].Processes,2025,13(4):936.
[28] Splechtna R,Behravan M,Jelovic M,et al.Interactive design-of-experiments:Optimizing a cooling system[J].IEEE Transactions on Visualization and Computer Graphics,2024,230(5):121567.
[29] Abdurrahman E E M,Ferrari G.Digital Twin applications in the food industry:A review[J].Frontiers in Sustainable Food Systems,2025(9):1538375.
[30] Matuszek T.Cleaning effectiveness and environmental criteria[J].Journal of Hygienic Engineering & Design,2012(1):44-46.
[31] Nabbou N,Benyagoub E,Belhachemi M,et al.Removal performance for thermotolerant coliforms and fecal streptococci from dairy effluents by Kenadsa’s natural green clay(Bechar-Algeria)in a fixed-bed column[J].Applied Water Science,2021,11(6):106.
[32] Eberle U,Lange A,Dewaele J,et al.LCA study and environmental benefits for low temperature disinfection process in commercial laundry[J].The International Journal of Life Cycle Assessment,2007,12(2):127-138.
[33] Kukhtyn M,Berhilevych O,Kravcheniuk K,et al.The influence of disinfectants on microbial biofilms of dairy equipment[J].Eureka:Life Sciences,2017(5):11-17.
[34] Afolaranmi S O,Drakoulelis M,Filios G,et al.PasteurAIzer:An AI-enabled solution for product quality monitoring in tunnel pasteurization machines[J].Machines(Basel),2023,11(2):191.
Viewed
Full text


Abstract

Cited

  Shared   
  Discussed   
No Suggested Reading articles found!