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豆类及豆类制品的血糖生成指数:综述

Glycemic index of pulses and pulse-based products: a review.

作者信息

Singh Maleeka, Manickavasagan Annamalai, Shobana Shanmugam, Mohan Viswanathan

机构信息

Department of Food Science, University of Guelph, Guelph, Ontario, Canada.

School of Engineering, University of Guelph, Guelph, Ontario, Canada.

出版信息

Crit Rev Food Sci Nutr. 2021;61(9):1567-1588. doi: 10.1080/10408398.2020.1762162. Epub 2020 May 18.

Abstract

Pulses are a major source for plant-based proteins, with over 173 countries producing and exporting over 50 million tons annually. Pulses provide many of the essential nutrients and vitamins for a balanced and healthy diet, hence are health beneficial. Pulses have been known to lower glycemic index (GI), as they elicit lower post prandial glycemic responses, and can prevent insulin resistance, Type 2 diabetes and associated complications. This study reviews the GI values (determined by methodology) reported in 48 articles during the year 1992-2018 for various pulse type preparations consumed by humans. The GI ranges (glucose and bread as a reference respectively) for each pulse type were: broad bean (40 ± 5 to 94 ± 4, 75 to 93), chickpea (5 ± 1 to 45 ± 1, 14 ± 3 to 96 ± 21), common bean (9 ± 1 to 75 ± 8, 18 ± 2 to 99 ± 11), cowpea (6 ± 1 to 56 ± 0.2, 38 ± 19 to 66 ± 7), lentil (10 ± 3 to 66 ± 6, 37 to 87 ± 6), mung bean (11 ± 2 to 90 ± 9, 28 ± 1 to 44 ± 6), peas (9 ± 2 to 57 ± 2, 45 ± 8 to 93 ± 9), pigeon peas (7 ± 1 to 54 ± 1, 31 ± 4), and mixed pulses (35 ± 5 to 66 ± 23, 69 ± 42 to 98 ± 29). It was found that the method of preparation, processing and heat applications tended to affect the GI of pulses. In addition, removal of the hull, blending, grinding, milling and pureeing, reduced particle size, contributed to an increased surface area and exposure of starch granules to the amylolytic enzymes. This was subsequently associated with rapid digestion and absorption of pulse carbohydrates, resulting in a higher GI. High or increased heat applications to pulses were associated with extensive starch gelatinization, also leading to a higher GI. The type of reference food used (glucose or white bread) and the other nutrients present in the meal also affected the GI.

摘要

豆类是植物性蛋白质的主要来源,每年有超过173个国家生产和出口超过5000万吨豆类。豆类为均衡健康的饮食提供了许多必需的营养物质和维生素,因此对健康有益。众所周知,豆类能降低血糖指数(GI),因为它们能引起较低的餐后血糖反应,并可预防胰岛素抵抗、2型糖尿病及相关并发症。本研究回顾了1992年至2018年期间48篇文章中报道的人类食用的各种豆类制品的GI值(通过特定方法测定)。每种豆类的GI范围(分别以葡萄糖和面包为参考)为:蚕豆(40±5至94±4,75至93)、鹰嘴豆(5±1至45±1,14±3至96±21)、普通豆(9±1至75±8,18±2至99±11)、豇豆(6±1至56±0.2,38±19至66±7)、小扁豆(10±3至66±6,37至87±6)、绿豆(11±2至90±9,28±1至44±6)、豌豆(9±2至57±2,45±8至93±9)、木豆(7±1至54±1,31±4)以及混合豆类(35±5至66±23,69±42至98±29)。研究发现,制备、加工和加热方式往往会影响豆类的GI值。此外,去除豆皮、混合、研磨、粉碎和制泥、减小颗粒尺寸、增加表面积以及使淀粉颗粒暴露于淀粉酶中,随后会导致豆类碳水化合物的快速消化和吸收,从而产生更高的GI值。对豆类进行高温或增加加热会导致广泛的淀粉糊化,也会导致更高的GI值。所使用的参考食物类型(葡萄糖或白面包)以及餐食中存在的其他营养物质也会影响GI值。

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