Ramachandran Rani Puthukulangara, Nadimi Mohammad, Cenkowski Stefan, Paliwal Jitendra
Saint-Hyacinthe Research and Development Centre, Agriculture and Agri-Food Canada, 3600, Boulevard Casavant Ouest Saint-Hyacinthe, Québec J2S 8E3 Canada.
Department of Biosystems Engineering, University of Manitoba, E2-376, EITC, 75A Chancellor's Circle, Winnipeg, MB, R3T 2N2 Canada.
Food Eng Rev. 2024;16(4):540-566. doi: 10.1007/s12393-024-09381-7. Epub 2024 Aug 7.
Drying is a crucial unit operation within the functional foods and biopharmaceutical industries, acting as a fundamental preservation technique and a mechanism to maintain these products' bioactive components and nutritional values. The heat-sensitive bioactive components, which carry critical quality attributes, necessitate a meticulous selection of drying methods and conditions backed by robust research. In this review, we investigate challenges associated with drying these heat-sensitive materials and examine the impact of various drying methods. Our thorough research extensively covers ten notable drying methods: heat pump drying, freeze-drying, spray drying, vacuum drying, fluidized bed drying, superheated steam drying, infrared drying, microwave drying, osmotic drying, vacuum drying, and supercritical fluid drying. Each method is tailored to address the requirements of specific functional foods and biopharmaceuticals and provides a comprehensive account of each technique's inherent advantages and potential limitations. Further, the review ventures into the exploration of combined hybrid drying techniques and smart drying technologies with industry 4.0 tools such as automation, AI, machine learning, IoT, and cyber-physical systems. These innovative methods are designed to enhance product performance and elevate the quality of the final product in the drying of functional foods and biopharmaceuticals. Through a thorough survey of the drying landscape, this review illuminates the intricacies of these operations and underscores their pivotal role in functional foods and biopharmaceutical production.
干燥是功能性食品和生物制药行业中至关重要的单元操作,它是一种基本的保存技术,也是维持这些产品生物活性成分和营养价值的一种机制。携带关键质量属性的热敏性生物活性成分需要在深入研究的支持下精心选择干燥方法和条件。在本综述中,我们研究了干燥这些热敏性材料所面临的挑战,并考察了各种干燥方法的影响。我们的深入研究广泛涵盖了十种著名的干燥方法:热泵干燥、冷冻干燥、喷雾干燥、真空干燥、流化床干燥、过热蒸汽干燥、红外干燥、微波干燥、渗透干燥、真空干燥和超临界流体干燥。每种方法都针对特定功能性食品和生物制药的要求进行了定制,并全面阐述了每种技术的固有优势和潜在局限性。此外,本综述还探讨了结合混合干燥技术以及与工业4.0工具(如自动化、人工智能、机器学习、物联网和网络物理系统)相结合的智能干燥技术。这些创新方法旨在提高产品性能,并提升功能性食品和生物制药干燥过程中最终产品的质量。通过对干燥领域的全面调研,本综述阐明了这些操作的复杂性,并强调了它们在功能性食品和生物制药生产中的关键作用。