机械活化水溶液作为一种改善分散体系混合和结构形成的方法

IF 0.6 4区 工程技术 Q4 ENGINEERING, CHEMICAL Theoretical Foundations of Chemical Engineering Pub Date : 2025-02-07 DOI:10.1134/S0040579524601547
V. V. Ivanov, S. D. Rudnev, D. M. Borodulin, A. I. Krikun
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引用次数: 0

摘要

生面团是制作面包最复杂的工序之一。面粉与液体组分(水、水溶液)的混合是一个复杂的表面相互作用过程,涉及克服相间界面的表面能。面粉和液体成分的均匀混合物的形成强度,随后转化成面团,决定了面团的结构和机械性能。本工作的目的是对液体组分的初步机械处理对水分散体系中面团混合过程和结构形成的影响进行理论验证和实验验证。从理论上分析了自由流动材料与液体的粘接作用。结果表明,相作用界面处的表面能应降低。实验证实,机械作用于水和水溶液可使表面张力降低20-30%。结果表明,在面粉与面团液体组分的混合中,初步的机械处理可以改善面团的润湿性,增加面团的弹性,缩短面团结构形成的时间。揉捏时的比功率降低15-20%。用流变测试粘度计、Structurometer ST 2和Rehbinder圆型塑性计对面团进行流变学研究表明,面团的结构和力学性能得到了改善:极限剪切应力提高了20-25%,粘结力降低了30-40%,揉制后弹性性能提高了10%,并增加了水结合能力。这些研究是在实验室设备上和在克麦罗沃赫列布组织企业的工业条件下进行的。生面团是制作面包最复杂的工序之一。面粉与液体组分(水、水溶液)的混合是一个复杂的表面相互作用过程,涉及克服相间界面的表面能。面粉和液体成分的均匀混合物的形成强度,随后转化成面团,决定了面团的结构和机械性能。本工作的目的是对液体组分的初步机械处理对水分散体系中面团混合过程和结构形成的影响进行理论验证和实验验证。从理论上分析了自由流动材料与液体的粘接作用。结果表明,相作用界面处的表面能应降低。实验证实,机械作用于水和水溶液可使表面张力降低20-30%。结果表明,在面粉与面团液体组分的混合中,初步的机械处理可以改善面团的润湿性,增加面团的弹性,缩短面团结构形成的时间。揉捏时的比功率降低15-20%。用流变测试粘度计、Structurometer ST 2和Rehbinder圆型塑性计对面团进行流变学研究表明,面团的结构和力学性能得到了改善:极限剪切应力提高了20-25%,粘结力降低了30-40%,揉制后弹性性能提高了10%,并增加了水结合能力。这些研究是在实验室设备上和在克麦罗沃赫列布组织企业的工业条件下进行的。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

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Mechanoactivation of Aqueous Solutions as a Way to Improve Mixing and Structure Formation in Disperse Systems

Dough making is one of the most complex in bread making. Mixing of flour with liquid components (water, aqueous solutions) is a complex process of surface interaction associated with overcoming the surface energy at the interface between phases. The intensity of the formation of a homogeneous mixture of flour and liquid components, which is subsequently converted into dough, determines the structural and mechanical properties of the dough. The aim of this work was the theoretical substantiation and experimental confirmation of the influence of preliminary mechanical treatment of liquid components on the process of dough mixing and structure formation in the aqueous disperse system. The adhesive interaction of the free-flowing material with the liquid was theoretically analyzed. It was shown that the surface energy at the phase interaction interface should be reduced. It was experimentally established that mechanical action on water and aqueous solutions reduces the surface tension by 20–30%. It was determined that, in mixing of flour and liquid components of dough, preliminary mechanical treatment improves wetting, increases elasticity, and decreases the time of structure formation in dough. The specific power during kneading is reduced by 15–20%. Rheological study with a Rheotest viscometer, Structurometer ST 2, and Rehbinder conical plastometer showed improvement of the structural and mechanical properties of the dough: an increase in the ultimate shear stress by 20–25%, a decrease in the adhesion by 30–40%, an increase in the elastic properties after kneading up to 10%, and an increase in water-binding capacity. The studies were carried out on laboratory equipment and under industrial conditions at OAO Kemerovokhleb enterprises.

Dough making is one of the most complex in bread making. Mixing of flour with liquid components (water, aqueous solutions) is a complex process of surface interaction associated with overcoming the surface energy at the interface between phases. The intensity of the formation of a homogeneous mixture of flour and liquid components, which is subsequently converted into dough, determines the structural and mechanical properties of the dough. The aim of this work was the theoretical substantiation and experimental confirmation of the influence of preliminary mechanical treatment of liquid components on the process of dough mixing and structure formation in the aqueous disperse system. The adhesive interaction of the free-flowing material with the liquid was theoretically analyzed. It was shown that the surface energy at the phase interaction interface should be reduced. It was experimentally established that mechanical action on water and aqueous solutions reduces the surface tension by 20–30%. It was determined that, in mixing of flour and liquid components of dough, preliminary mechanical treatment improves wetting, increases elasticity, and decreases the time of structure formation in dough. The specific power during kneading is reduced by 15–20%. Rheological study with a Rheotest viscometer, Structurometer ST 2, and Rehbinder conical plastometer showed improvement of the structural and mechanical properties of the dough: an increase in the ultimate shear stress by 20–25%, a decrease in the adhesion by 30–40%, an increase in the elastic properties after kneading up to 10%, and an increase in water-binding capacity. The studies were carried out on laboratory equipment and under industrial conditions at OAO Kemerovokhleb enterprises.

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来源期刊
CiteScore
1.20
自引率
25.00%
发文量
70
审稿时长
24 months
期刊介绍: Theoretical Foundations of Chemical Engineering is a comprehensive journal covering all aspects of theoretical and applied research in chemical engineering, including transport phenomena; surface phenomena; processes of mixture separation; theory and methods of chemical reactor design; combined processes and multifunctional reactors; hydromechanic, thermal, diffusion, and chemical processes and apparatus, membrane processes and reactors; biotechnology; dispersed systems; nanotechnologies; process intensification; information modeling and analysis; energy- and resource-saving processes; environmentally clean processes and technologies.
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