Influence of blending on cooked rice palatability: Insights from untargeted metabolomics and leachate analysis

The palatability of rice is a crucial quality indicator; however, the mechanism by which blending improves rice palatability remains unclear. This study proposed a straightforward approach to improve rice palatability by blending high-amylose varieties, which generally exhibited lower palatability, with low-amylose or glutinous rice, the latter being nearly amylose-free. Various blending ratios were examined to optimize palatability, along with analyses of the physicochemical properties of blended rice, its leachate, and significantly different metabolites (SDMs). These findings revealed that a lower amylose content in the blended rice resulted in higher leachate production during cooking, with leachate containing less amylose. This contributed to the increased stickiness and reduced hardness of rice. Furthermore, a comparison of the SDMs in cooked blended and raw rice indicated that the primary SDMs were amino acids and lipid compounds. • Blending improves the palatability of high-amylose rice. • Reduction in amylose results in the more leachate. • More leachate leads to higher stickiness and lower hardness of rice. • Amino acids and lipid compounds are SDMs between cooked blended and raw rice.

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Publication Details

Journal
LWT
Published
2025-04-03
DOI
https://doi.org/10.1016/j.lwt.2025.117734
Citations
6
Primary Topic
Food composition and properties
Type
article
Field-Weighted Citation Impact
6.72

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article

Influence of blending on cooked rice palatability: Insights from untargeted metabolomics and leachate analysis

Motonobu Kawano, Xiaoliang Duan, Xiaoting Xing, Dong Zhang et al.
6 citations
LWT
Food composition and properties
6.72
article

Influence of blending on cooked rice palatability: Insights from untargeted metabolomics and leachate analysis

Motonobu Kawano, Xiaoliang Duan, Xiaoting Xing, Dong Zhang, Qian Wang, Hui Sun
article en
6 citations

Abstract

The palatability of rice is a crucial quality indicator; however, the mechanism by which blending improves rice palatability remains unclear. This study proposed a straightforward approach to improve rice palatability by blending high-amylose varieties, which generally exhibited lower palatability, with low-amylose or glutinous rice, the latter being nearly amylose-free. Various blending ratios were examined to optimize palatability, along with analyses of the physicochemical properties of blended rice, its leachate, and significantly different metabolites (SDMs). These findings revealed that a lower amylose content in the blended rice resulted in higher leachate production during cooking, with leachate containing less amylose. This contributed to the increased stickiness and reduced hardness of rice. Furthermore, a comparison of the SDMs in cooked blended and raw rice indicated that the primary SDMs were amino acids and lipid compounds. • Blending improves the palatability of high-amylose rice. • Reduction in amylose results in the more leachate. • More leachate leads to higher stickiness and lower hardness of rice. • Amino acids and lipid compounds are SDMs between cooked blended and raw rice.

LWTVol. 223
Kobatake Hospital (JP), Academy of National Food and Strategic Reserves Administration (CN)
National Key Research and Development Program of China
Zero hunger
Openalex Percentile: Top 3%
Food composition and properties
6.72
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Influence of blending on cooked rice palatability: Insights from untargeted metabolomics and leachate analysis — Motonobu Kawano, Xiaoliang Duan, et al. · LWT (2025) | TGRS Research Map | TGRS