Exploring the performance of amaranth grain starch and protein microcapsules as β-carotene carrier systems for food applications

苋菜 淀粉 胡萝卜素 千穗谷 材料科学 食品科学 阿拉伯树胶 化学 化学工程 工程类
作者
Laylla Marques Coelho,Idalina Gonçalves,Paula Ferreira,Ana C. Pinheiro,A. A. Vicente,Joana T. Martins
出处
期刊:Food structure [Elsevier]
卷期号:33: 100287-100287 被引量:14
标识
DOI:10.1016/j.foostr.2022.100287
摘要

Underexploited sources of bio-based wall materials for bioactive compounds (such as β-carotene) encapsulation have gained increasing interest within the scientific community. In this study, the potential of amaranth ( Amaranthus cruentus ) grain starch and protein rich fractions as microcapsules’ wall materials to carrier β-carotene was evaluated. Microcapsules were produced by spray-drying and their morphological and physicochemical characterization was carried out. The microcapsules presented a spherical shape (particle size distribution: 0.3 - 30 μm) and encapsulation efficiencies ranging from 64 to 69%. Results showed that protein-based microcapsules had better β-carotene storage stability as compared to starch-based microcapsules (at 8 and 25 ºC). β-carotene release kinetics at 37 ºC and pH 7.4 could be mainly described by structural-relaxation phenomenon using the linear superposition model. Moreover, encapsulated β-carotene exhibited higher bioaccessibility than its free form after simulated in vitro digestion tests. Microcapsules did not affect cell viability at 0.0625 mg·L -1 of β-carotene. Thus, amaranth grain biopolymers-based microcapsules were successfully developed as promising β-carotene delivery systems to be added to food products and consequently, to improve their functionality. • Amaranth grain components have great potential to be explored by food industry. • Biopolymers extracted from amaranth grain were used as encapsulating agents. • β-carotene was successfully loaded in amaranth-based microcapsules by spray-drying. • Amaranth-based microcapsules enhanced β-carotene stability and bioaccessibility.
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