Torres-Gallo Ramiro, Andrade-Pizarro Ricardo, Salcedo Jairo, Chávez-Salazar Andrés, Castellanos-Galeano Francisco J
Department of Agroindustrial Engineering, School of Engineering, University of Atlántico, 30th Avenue No. 8-49, Puerto Colombia, 081001, Atlántico, Colombia; Doctorates in Engineering, University of Caldas, Street 65 No. 26-10, Manizales 170001, Caldas, Colombia.
Department of Food Engineering, School of Engineering, University of Cordoba, km 3, Road to Cereté, 232527 Córdoba, Colombia.
Int J Biol Macromol. 2025 Jan;285:138239. doi: 10.1016/j.ijbiomac.2024.138239. Epub 2024 Dec 2.
Mango (Mangifera indica L.) seed, a byproduct of mango pulp and juice processing, is recognized for its abundant starch content. The advancement of the modern food industry has prompted a shift away from traditional starch extraction methods due to their environmental impact and low efficiency. The study aimed to optimize the ultrasound-assisted extraction process of starch from the cotyledons of mango seeds, employing response surface methodology with a customized optimal design and an optimal-I optimality criterion. We investigated the effects of cotyledon/water ratio, time, power, and sonication frequency on maximizing starch extraction yield. We explored the impact of ultrasound on structural, morphological, functional, and pasting properties. The maximum starch extraction yield was 50.74%. This yield was about 82.4% higher than that of conventional wet extraction. Ultrasound-assisted extraction increased starch purity and amylose content; it reduced granule size while enhancing all starch pasting properties without affecting starch's chemical structure and morphological, thermal, and functional properties. The mango cotyledon starch can be classified as medium to normal amylose content starches, exhibiting A-type polymorphs, fast-swelling, and capable of forming strong, firm, low-sticky gels. These results demonstrate the potential applications of mango residue and ultrasound technology in the food and pharmaceutical industry.
芒果(杧果)种子是芒果果肉和果汁加工的副产品,因其淀粉含量丰富而受到关注。现代食品工业的发展促使人们摒弃传统的淀粉提取方法,因为这些方法对环境有影响且效率低下。本研究旨在采用响应面法,通过定制的优化设计和最优I最优性准则,优化从芒果种子子叶中超声辅助提取淀粉的工艺。我们研究了子叶/水比例、时间、功率和超声频率对淀粉提取率最大化的影响。我们探讨了超声对淀粉结构、形态、功能和糊化特性的影响。淀粉最大提取率为50.74%。该提取率比传统湿法提取高出约82.4%。超声辅助提取提高了淀粉纯度和直链淀粉含量;它减小了颗粒尺寸,同时增强了所有淀粉糊化特性,而不影响淀粉的化学结构以及形态、热学和功能特性。芒果子叶淀粉可归类为中等至高直链淀粉含量的淀粉,呈现A型多晶型,膨胀迅速,能够形成强韧、紧实、低粘性的凝胶。这些结果证明了芒果残渣和超声技术在食品和制药工业中的潜在应用。