Composition |
High amylose corn starch, lutinous rice, Japonica rice, Indica rice |
High amylose content. |
Gel strength enhanced. |
Tian et al., 2023; Ulbrich et al., 2023
|
Cake batter |
viscoelasticity showed a positive correlation with the length of amylose intermediate and long chains as well as amylopectin long chains. |
Gel strength and elasticity enhanced. |
Yang, Pan, et al., 2022 |
Rice noodle |
Length chain and smaller molecular size of amylose, amylopectin with a lower amylopectin unit-chain ratio. |
Hardness, elasticity, and tensile strength of rice noodle increased. |
Zhang et al., 2022 |
Mung bean starch, proso millet starch, waxy maize starch, amylose-extender waxy maize starch |
Amylopectin with a higher proportion of longer external chains. |
Exhibited higher viscoelastic properties, formed a stable network structure. |
Qiao et al., 2024; Zhou et al., 2021
|
Rice starch |
Smaller amylopectin. |
Greater viscoelasticity and stronger network. |
Li, Lei, et al., 2019 |
Indica rice starch |
GCPs and SGAPs were selectively removed. |
Leading to an increase in the leaching of linear starch, a decrease in both the G′ and G″, and a weakening of the gel structure. |
Luo & Wang, 2022 |
Rice starch |
GCPs exert a more significant influence on the formation of starch gels than surface proteins. |
Zhan et al., 2020 |
Buckwheat starch |
The starch aggregates and the gel strength significantly decreased |
Du et al., 2024 |
Rice starch |
The elimination of lipids via sodium dodecyl sulfate treatment diminishes the concentration of linear starch-lipid complexes. |
Culminating in an increase in the swelling power of rice starch. |
Hu et al., 2017 |
Cross-linked glutinous corn starch. |
Removed the surface lipids |
Viscoelastic properties (G′ and G″) enhanced. |
Xu, Liu, et al., 2024 |