Evaluation of available energy of several dietary fiber materials based on the fermentability from breath hydrogen excretion in healthy human subjects

Sadako Nakamura, T. Oku
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引用次数: 10

Abstract

In order to evaluate the available energy of dietary fiber materials, the fermentability was estimated from breath hydrogen excretion for 8 h after ingestion of 5g of dietary fiber materials in healthy human subjects. Fructo-oligosaccharide, of which available energy has been 2kcal/g, was used as a positive control, because it is not digested and is completely fermented by intestinal microbes. The following results were obtained based on the variable fermentability of each dietary fiber material. 1) Polydextrose, indigestible dextrin, partially hydrolyzed guar gum, lowered molecular alginate-Na and glucomannan were estimated as 1 kcal/g. 2) Nondigestible starch, which was resistant for the fermentation by intestinal microbes, was estimated as Okcal/g. 3) Cellulose, which is a water-insoluble dietary fiber, was slowly fermented and was estimated as l kcal/g. These results demonstrate that the method using breath hydrogen analysis is available to estimate the fermentability of dietary fiber in human gastrointestinal tract. However, it was not enough to collect expiratory gas of every 30 min period for 8 h after ingestion of dietary fiber materials. The fermentation of each dietary fiber material did not have been finished yet till 8 h after ingestion. Therefore, if the breath is collected for longer periods, the fermentability might increase and the available energy would be changed from the values as mention above. Another study with longer periods of breath collection will be needed.
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基于健康人呼出氢可发酵性的几种膳食纤维材料的有效能评价
为了评价膳食纤维材料的可利用能量,通过摄入5g膳食纤维材料后8 h的呼氢排泄量来估计其可发酵性。低聚果糖作为阳性对照,其有效能为2kcal/g,因为它不被肠道微生物消化,完全发酵。根据不同膳食纤维原料发酵性的变化,得到以下结果:1)聚葡萄糖、难消化糊精、部分水解瓜尔胶、低分子海藻酸钠和葡甘露聚糖估计为1 kcal/g。2)对肠道微生物发酵产生抗性的不可消化淀粉估计为Okcal/g。3)纤维素是一种不溶于水的膳食纤维,缓慢发酵,估计为1 kcal/g。这些结果表明,呼气氢分析方法可用于估计膳食纤维在人体胃肠道中的可发酵性。然而,在摄入膳食纤维材料后的8 h内,每隔30 min收集一次呼气气体是不够的。每一种膳食纤维原料的发酵直到摄入后8 h才完成。因此,如果长时间收集呼吸,发酵性可能会增加,可用能量将从上述值改变。需要另一项更长的呼吸收集时间的研究。
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