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Phenomenological analysis on whipping behavior of rice flour batter

ABSTRACT: In this study, the bubbles in rice flour batter were investigated under a constant temperature, because the bubble size distribution is important for the control of food texture. We obtained experimental data using a hand mixer and compared the properties of doughs prepared using six rice...

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Autores principales: Ichikawa, Chiaki, Ishikawa, Daitaro, Yang, Jia Min, Fujii, Tomoyuki
Formato: Online Artículo Texto
Lenguaje:English
Publicado: John Wiley and Sons Inc. 2020
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC7756452/
https://www.ncbi.nlm.nih.gov/pubmed/33159347
http://dx.doi.org/10.1111/1750-3841.15452
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author Ichikawa, Chiaki
Ishikawa, Daitaro
Yang, Jia Min
Fujii, Tomoyuki
author_facet Ichikawa, Chiaki
Ishikawa, Daitaro
Yang, Jia Min
Fujii, Tomoyuki
author_sort Ichikawa, Chiaki
collection PubMed
description ABSTRACT: In this study, the bubbles in rice flour batter were investigated under a constant temperature, because the bubble size distribution is important for the control of food texture. We obtained experimental data using a hand mixer and compared the properties of doughs prepared using six rice flours; each flour was prepared through a different milling process. We also added the size effect of the rice flour particles as the Bond number. Furthermore, we performed a dynamic wettability test to estimate the wettability of the rice flour surface. The results of this test were described well by the Washburn equation, and d(c)cosθ/d(p) was calculated as a wettability parameter (where, d(c) = effective diameter of a capillary in a powder bed, cosθ = the contact angle, d(p) = mean particle diameter of rice flour). If bubble sizes depend mainly on the inertial force, viscous force, surface tension, and gravity, then the normalized mean bubble diameter should be a function of the Reynolds number, Weber number, and Froude number. The mean bubble diameter (d(bm)) generated by whipping was expected to be affected by the thickness (d) of the rod of the mixer, its movement speed, and physical properties of the material. Therefore, dimensionless mean diameter (d(bm)/d) was expressed based on a dimensionless equation. In the three‐phase dispersion, different empirical equations were obtained depending on the amount of rice flour added, and the bubble diameter could be predicted using dimensionless parameters. In addition, the equations were generally applicable to the various materials selected for this study. PRACTICAL APPLICATION: The powder properties of rice flour were investigated, and dimensionless parameters were analyzed to construct an appropriate process control system for rice flour‐based food products. Although the process method optimized for flour products is also used for rice flour products in practical situations, the comprehensive evaluation based on dimensionless parameters leads to optimization of the process for rice‐flour based products. Moreover, this optimization might strongly support the creation of a new texture, and thus, the potential for market expansion of rice‐flour based products is considerable.
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spelling pubmed-77564522020-12-28 Phenomenological analysis on whipping behavior of rice flour batter Ichikawa, Chiaki Ishikawa, Daitaro Yang, Jia Min Fujii, Tomoyuki J Food Sci Food Engineering, Materials Science, and Nanotechnology ABSTRACT: In this study, the bubbles in rice flour batter were investigated under a constant temperature, because the bubble size distribution is important for the control of food texture. We obtained experimental data using a hand mixer and compared the properties of doughs prepared using six rice flours; each flour was prepared through a different milling process. We also added the size effect of the rice flour particles as the Bond number. Furthermore, we performed a dynamic wettability test to estimate the wettability of the rice flour surface. The results of this test were described well by the Washburn equation, and d(c)cosθ/d(p) was calculated as a wettability parameter (where, d(c) = effective diameter of a capillary in a powder bed, cosθ = the contact angle, d(p) = mean particle diameter of rice flour). If bubble sizes depend mainly on the inertial force, viscous force, surface tension, and gravity, then the normalized mean bubble diameter should be a function of the Reynolds number, Weber number, and Froude number. The mean bubble diameter (d(bm)) generated by whipping was expected to be affected by the thickness (d) of the rod of the mixer, its movement speed, and physical properties of the material. Therefore, dimensionless mean diameter (d(bm)/d) was expressed based on a dimensionless equation. In the three‐phase dispersion, different empirical equations were obtained depending on the amount of rice flour added, and the bubble diameter could be predicted using dimensionless parameters. In addition, the equations were generally applicable to the various materials selected for this study. PRACTICAL APPLICATION: The powder properties of rice flour were investigated, and dimensionless parameters were analyzed to construct an appropriate process control system for rice flour‐based food products. Although the process method optimized for flour products is also used for rice flour products in practical situations, the comprehensive evaluation based on dimensionless parameters leads to optimization of the process for rice‐flour based products. Moreover, this optimization might strongly support the creation of a new texture, and thus, the potential for market expansion of rice‐flour based products is considerable. John Wiley and Sons Inc. 2020-11-06 2020-12 /pmc/articles/PMC7756452/ /pubmed/33159347 http://dx.doi.org/10.1111/1750-3841.15452 Text en © 2020 The Authors. Journal of Food Science published by Wiley Periodicals LLC on behalf of Institute of Food Technologists This is an open access article under the terms of the http://creativecommons.org/licenses/by/4.0/ License, which permits use, distribution and reproduction in any medium, provided the original work is properly cited.
spellingShingle Food Engineering, Materials Science, and Nanotechnology
Ichikawa, Chiaki
Ishikawa, Daitaro
Yang, Jia Min
Fujii, Tomoyuki
Phenomenological analysis on whipping behavior of rice flour batter
title Phenomenological analysis on whipping behavior of rice flour batter
title_full Phenomenological analysis on whipping behavior of rice flour batter
title_fullStr Phenomenological analysis on whipping behavior of rice flour batter
title_full_unstemmed Phenomenological analysis on whipping behavior of rice flour batter
title_short Phenomenological analysis on whipping behavior of rice flour batter
title_sort phenomenological analysis on whipping behavior of rice flour batter
topic Food Engineering, Materials Science, and Nanotechnology
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC7756452/
https://www.ncbi.nlm.nih.gov/pubmed/33159347
http://dx.doi.org/10.1111/1750-3841.15452
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