非热冷等离子体技术在淀粉改性中的物理作用

Rakesh Kumar Gupta, Proshanta Guha, Prem Prakash Srivastav
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引用次数: 0

摘要

与传统方法相比,非热冷等离子体技术具有明显的优势,已成为改性淀粉的一种新型且前景广阔的方法。本文探讨了冷等离子体技术改性淀粉分子所涉及的基本物理机制。冷等离子处理产生的反应物和电磁场可诱导淀粉发生受控的物理和化学变化,包括交联和化学功能化。这些改变会影响淀粉的基本特性,如糊化温度、粘度和结构完整性。此外,冷等离子体的非热性还能保持淀粉中热敏化合物的完整性,使其适用于食品和材料行业的广泛应用。通过优化气体成分和处理持续时间等工艺参数,冷等离子体技术可以对淀粉进行精确的定制改性,以满足特定的功能要求。因此,全面了解用于淀粉改性的冷等离子体技术背后的物理机制为食品工业的创新开辟了新途径。通过冷等离子体技术改性的淀粉基产品可以提高质量,并广泛应用于各行各业。
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Physical action of nonthermal cold plasma technology for starch modification

Nonthermal cold plasma technology has emerged as a novel and promising approach for modifying starch, offering distinct advantages over traditional methods. This article explores the fundamental physical mechanisms involved in cold plasma technology to modify starch molecules. Cold plasma treatment generates reactive species and electromagnetic fields that induce controlled physical and chemical changes in starch, including cross-linking and chemical functionalization. These modifications influence fundamental properties of starch, such as gelatinization temperature, viscosity, and structural integrity. Moreover, the nonthermal nature of cold plasma preserves the integrity of heat-sensitive compounds in starch, making it suitable for a wide range of applications in the food and material industries. By optimizing process parameters, such as gas composition and treatment duration, cold plasma technology enables precise and tailored modifications of starch to meet specific functional requirements. So, a comprehensive understanding of the physical mechanism behind cold plasma technology for starch modification opens up new avenues for innovation in the food industry. Starch-based products that have been altered by cold plasma to have improved qualities and be used in a wide range of industries.

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