粮食博物馆的性能评估被光学辅助驱逐

عاطفه فرهمند, مهدی وریدی, آرش کوچکی
{"title":"粮食博物馆的性能评估被光学辅助驱逐","authors":"عاطفه فرهمند, مهدی وریدی, آرش کوچکی","doi":"10.22067/IFSTRJ.V1395I1.40595","DOIUrl":null,"url":null,"abstract":"Introduction: Exploiting natural substances with dual or multiple functionalities is getting more attention in food industry due to the requirement from the health- conscious consumers and the trends for sustainable environment. Hydrocolloids are high molecular weight macromolecules that can be easily dissolved and dispersed in water under appropriate conditions. They can modulate rheological properties of foods, and are generally used as food thickeners, texture modifier, stabilizers and emulsifiers for various applications. Mucilage is a high molecular weight polyuronides consisting of sugar and uronic acid units. It is partially soluble in water and can form highly viscous solution. It exhibits hampering effect on the diffusion of glucose, help to postpone the absorption and digestion of carbohydrates. The mucilage extracted from the seeds of the quince fruit contained cellulose micro-fibrils strongly associated whit a glucuronoxylan possessing a very high proportion of glucuronic acid residues. Analysis of quince seed mucilage (QSM) has shown the presence of more cellulosic fraction and hydrolysable polysaccharide.Quince seed mucilage is one of the endemic hydrocolloids, which due to high viscosity, its extraction needs a method to reduce the extraction time, energy consumption and especially raise the extraction efficiency. The traditional extraction method of polysaccharide from plant tissues are maceration, mechanical rabbling and heat reflux. Theses extraction methods depend largely on energy input and agitation to improve the solubility and mass transfer efficiency of polysaccharides. Usually, the convention extraction method requires long extraction time and high extraction temperature with low extraction yield, but high energy consumption. Ultrasound in combination with conventional extraction is a potential technique, which is a fully reproducible food process, completed in shorter time with high reproducibility, reduced processing cost, simplified manipulation and work-up. To achieve this goal, in this study ultrasound- assisted extraction (UAE) as a novel extraction method was used. \n \nMaterials andMethods:Quince seed used in this study was purchased from a local market (KhorasanRazavi, Mashhad). They were cleaned manually by removing the foreign matter such as stones, dirt and broken seeds. They were packed in hermetic plastic vessels and stored at 5oC until further use. For mucilage extraction, first conventional extraction was optimized to select the best hydration conditions and after that UAE (24 KHz probe and 400 W power) was performed at three different levels of intensity (20, 60 and 100%) and times (5, 15 and 30 min).All chemicals used were analytical grades. Yield value of hydrocolloid was calculated by dividing the weight of dried hydrocolloid by the weight of initial dry seeds. Emulsion heat stability was determines by the method described in previous studies. In order to measuring the water absorption capacity (WAC), 0.05 g of mucilage was added to deionized water until QSM was completely wet (~ 10ml). The tubes were then centrifuged at 1600×g for 10 min. Excess water was discarded and residue was weighted. Apparent viscosity of QSM solution with 0.1% (w/v) concentration was measured using a rotational viscometer (Brookfield, DV- ІІІ, USA). Shear rate increased linearly from 2.5 - 35 s-1 at 25˚C.For measuring the foam stability and emulsion heat stability, the mucilage dispersions were prepared at 0.25 and 0.5 (w/v) respectively, and kept overnight at 4˚C. After complete hydration, 2% (w/v) egg white powder was added and then foamed by whipping at 8600 rpm for 2 min using adisperser. \n \nResults and Discussion: Optimized conditions of conventional extraction were 45 min, 47˚C and 32.5: 1 water to seed ratio. The results showed that extraction at 30 min with 100% intensity raised the extraction yield to 42.7% in comparison with control sample.Improvement in hydrocolloid extraction by ultrasound is attributed to ultrasound pressure wave diffusion which results in cavitation phenomenon.Amplitude level and exposure time had a significant (p<0.01) effect on the consistency coefficient (k), flow behavior (n) and yield stress. Herschel-bulkley model was selected as the best rheological model to describe the flow behavior. Solubility of samples varied by 66-92% due to the effect of ultrasound waves on the structure of mucilage, but this parameter was increased in comparison to the control sample. The highest foam stability was observed at 60% intensity.The efficacy of a stabilizer is dependent on the rate of its absorption at the phase boundary. Moreover molecular weight (MW) of ultrasound- assisted extracted mucilage was reduced because of pressure fluctuations caused by sonication process. As a result, the exposure of hydrocolloid dispersions to high shear forcescould lead to the cleavage of macromolecules. A reduction in the molecular weight of QSM could increase the rate of absorption on the foam bubbles. UAE increased the foam stability by17.31%. Although Water Absorption Capacity(WAC) was reduced especially at higher intensities or times, this parameter was higher in all treatments compared to control sample.WAC depends on the interaction between water and compound, amount of hydration positions or active side (OH). Extraction by ultrasound could release hydroxyl groups, so WAC of ultrasound extracted samples increased compared to control sample. However,this parameter reducedin strong treatmentsbecause of distortion of polysaccharide structure. These results showed that UAE due to its positive effect on the functional properties of QSM could be introduced as a suitable extraction method.","PeriodicalId":52634,"journal":{"name":"mjlh pjwhshhy `lwm w Sny` Gdhyy yrn","volume":"12 1","pages":"163-181"},"PeriodicalIF":0.0000,"publicationDate":"2016-03-20","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"","citationCount":"0","resultStr":"{\"title\":\"ارزیابی خواص عملکردی موسیلاژ دانه بِه استخراج شده به کمک فراصوت\",\"authors\":\"عاطفه فرهمند, مهدی وریدی, آرش کوچکی\",\"doi\":\"10.22067/IFSTRJ.V1395I1.40595\",\"DOIUrl\":null,\"url\":null,\"abstract\":\"Introduction: Exploiting natural substances with dual or multiple functionalities is getting more attention in food industry due to the requirement from the health- conscious consumers and the trends for sustainable environment. Hydrocolloids are high molecular weight macromolecules that can be easily dissolved and dispersed in water under appropriate conditions. They can modulate rheological properties of foods, and are generally used as food thickeners, texture modifier, stabilizers and emulsifiers for various applications. Mucilage is a high molecular weight polyuronides consisting of sugar and uronic acid units. It is partially soluble in water and can form highly viscous solution. It exhibits hampering effect on the diffusion of glucose, help to postpone the absorption and digestion of carbohydrates. The mucilage extracted from the seeds of the quince fruit contained cellulose micro-fibrils strongly associated whit a glucuronoxylan possessing a very high proportion of glucuronic acid residues. Analysis of quince seed mucilage (QSM) has shown the presence of more cellulosic fraction and hydrolysable polysaccharide.Quince seed mucilage is one of the endemic hydrocolloids, which due to high viscosity, its extraction needs a method to reduce the extraction time, energy consumption and especially raise the extraction efficiency. The traditional extraction method of polysaccharide from plant tissues are maceration, mechanical rabbling and heat reflux. Theses extraction methods depend largely on energy input and agitation to improve the solubility and mass transfer efficiency of polysaccharides. Usually, the convention extraction method requires long extraction time and high extraction temperature with low extraction yield, but high energy consumption. Ultrasound in combination with conventional extraction is a potential technique, which is a fully reproducible food process, completed in shorter time with high reproducibility, reduced processing cost, simplified manipulation and work-up. To achieve this goal, in this study ultrasound- assisted extraction (UAE) as a novel extraction method was used. \\n \\nMaterials andMethods:Quince seed used in this study was purchased from a local market (KhorasanRazavi, Mashhad). They were cleaned manually by removing the foreign matter such as stones, dirt and broken seeds. They were packed in hermetic plastic vessels and stored at 5oC until further use. For mucilage extraction, first conventional extraction was optimized to select the best hydration conditions and after that UAE (24 KHz probe and 400 W power) was performed at three different levels of intensity (20, 60 and 100%) and times (5, 15 and 30 min).All chemicals used were analytical grades. Yield value of hydrocolloid was calculated by dividing the weight of dried hydrocolloid by the weight of initial dry seeds. Emulsion heat stability was determines by the method described in previous studies. In order to measuring the water absorption capacity (WAC), 0.05 g of mucilage was added to deionized water until QSM was completely wet (~ 10ml). The tubes were then centrifuged at 1600×g for 10 min. Excess water was discarded and residue was weighted. Apparent viscosity of QSM solution with 0.1% (w/v) concentration was measured using a rotational viscometer (Brookfield, DV- ІІІ, USA). Shear rate increased linearly from 2.5 - 35 s-1 at 25˚C.For measuring the foam stability and emulsion heat stability, the mucilage dispersions were prepared at 0.25 and 0.5 (w/v) respectively, and kept overnight at 4˚C. After complete hydration, 2% (w/v) egg white powder was added and then foamed by whipping at 8600 rpm for 2 min using adisperser. \\n \\nResults and Discussion: Optimized conditions of conventional extraction were 45 min, 47˚C and 32.5: 1 water to seed ratio. The results showed that extraction at 30 min with 100% intensity raised the extraction yield to 42.7% in comparison with control sample.Improvement in hydrocolloid extraction by ultrasound is attributed to ultrasound pressure wave diffusion which results in cavitation phenomenon.Amplitude level and exposure time had a significant (p<0.01) effect on the consistency coefficient (k), flow behavior (n) and yield stress. Herschel-bulkley model was selected as the best rheological model to describe the flow behavior. Solubility of samples varied by 66-92% due to the effect of ultrasound waves on the structure of mucilage, but this parameter was increased in comparison to the control sample. The highest foam stability was observed at 60% intensity.The efficacy of a stabilizer is dependent on the rate of its absorption at the phase boundary. Moreover molecular weight (MW) of ultrasound- assisted extracted mucilage was reduced because of pressure fluctuations caused by sonication process. As a result, the exposure of hydrocolloid dispersions to high shear forcescould lead to the cleavage of macromolecules. A reduction in the molecular weight of QSM could increase the rate of absorption on the foam bubbles. UAE increased the foam stability by17.31%. Although Water Absorption Capacity(WAC) was reduced especially at higher intensities or times, this parameter was higher in all treatments compared to control sample.WAC depends on the interaction between water and compound, amount of hydration positions or active side (OH). Extraction by ultrasound could release hydroxyl groups, so WAC of ultrasound extracted samples increased compared to control sample. However,this parameter reducedin strong treatmentsbecause of distortion of polysaccharide structure. These results showed that UAE due to its positive effect on the functional properties of QSM could be introduced as a suitable extraction method.\",\"PeriodicalId\":52634,\"journal\":{\"name\":\"mjlh pjwhshhy `lwm w Sny` Gdhyy yrn\",\"volume\":\"12 1\",\"pages\":\"163-181\"},\"PeriodicalIF\":0.0000,\"publicationDate\":\"2016-03-20\",\"publicationTypes\":\"Journal Article\",\"fieldsOfStudy\":null,\"isOpenAccess\":false,\"openAccessPdf\":\"\",\"citationCount\":\"0\",\"resultStr\":null,\"platform\":\"Semanticscholar\",\"paperid\":null,\"PeriodicalName\":\"mjlh pjwhshhy `lwm w Sny` Gdhyy yrn\",\"FirstCategoryId\":\"1085\",\"ListUrlMain\":\"https://doi.org/10.22067/IFSTRJ.V1395I1.40595\",\"RegionNum\":0,\"RegionCategory\":null,\"ArticlePicture\":[],\"TitleCN\":null,\"AbstractTextCN\":null,\"PMCID\":null,\"EPubDate\":\"\",\"PubModel\":\"\",\"JCR\":\"\",\"JCRName\":\"\",\"Score\":null,\"Total\":0}","platform":"Semanticscholar","paperid":null,"PeriodicalName":"mjlh pjwhshhy `lwm w Sny` Gdhyy yrn","FirstCategoryId":"1085","ListUrlMain":"https://doi.org/10.22067/IFSTRJ.V1395I1.40595","RegionNum":0,"RegionCategory":null,"ArticlePicture":[],"TitleCN":null,"AbstractTextCN":null,"PMCID":null,"EPubDate":"","PubModel":"","JCR":"","JCRName":"","Score":null,"Total":0}
引用次数: 0

摘要

摘要:由于消费者健康意识的要求和环境可持续发展的趋势,开发具有双重或多重功能的天然物质越来越受到食品工业的重视。水胶体是一种高分子量的大分子,在适当的条件下易于溶解和分散在水中。它们可以调节食品的流变特性,通常用作食品增稠剂、质地调节剂、稳定剂和乳化剂,用于各种用途。粘液是一种高分子量的由糖和糖醛酸组成的聚脲。部分溶于水,可形成高粘性溶液。它对葡萄糖的扩散有阻碍作用,有助于延缓碳水化合物的吸收和消化。从木瓜果实的种子中提取的粘液含有纤维素微原纤维,与葡萄糖醛酸残基的比例非常高。对木瓜籽粘液(QSM)的分析表明,其含有较多的纤维素组分和可水解多糖。木瓜籽粘液是一种特有的水胶体,由于其高粘度,需要一种减少提取时间、降低提取能耗,特别是提高提取效率的方法。从植物组织中提取多糖的传统方法有浸渍法、机械法和热回流法。这些提取方法主要依靠能量输入和搅拌来提高多糖的溶解度和传质效率。通常,传统的提取方法需要较长的提取时间和较高的提取温度,提取率低,且能耗高。超声与传统提取相结合是一种极具发展潜力的食品提取技术,它是一种完全可重复的食品加工工艺,完成时间短,重现性高,加工成本低,操作简便,后处理方便。为了实现这一目标,本研究采用超声辅助提取(UAE)作为一种新的提取方法。材料和方法:本研究中使用的榅桲籽购自当地市场(马什哈德KhorasanRazavi)。它们是通过人工清除石头、泥土和破碎的种子等异物来清洁的。它们被包装在密封的塑料容器中,并在5摄氏度的温度下储存,直到下次使用。在提取黏液时,首先对常规提取工艺进行优化,选择最佳水化条件,然后以24 KHz探针和400 W功率在3种不同强度(20、60和100%)和时间(5、15和30 min)下进行UAE (UAE)。所有使用的化学品都是分析级的。用干燥后的水胶体质量除以初始干燥种子的质量计算水胶体的产量值。乳状液热稳定性的测定采用了前人研究的方法。为了测量吸水能力(WAC),在去离子水中加入0.05 g粘液,直到QSM完全湿润(~ 10ml)。然后在1600×g离心10分钟。多余的水被丢弃,残留物称重。使用旋转粘度计(Brookfield, DV- ІІІ,美国)测量0.1% (w/v)浓度的QSM溶液的表观粘度。在25℃下,剪切速率从2.5 ~ 35 s-1呈线性增加。为测定泡沫稳定性和乳状液热稳定性,分别在0.25和0.5 (w/v)的温度下制备浆液分散体,并在4℃下保存过夜。水化完全后,加入2% (w/v)的蛋清粉,用分散器以8600 rpm搅拌2 min起泡。结果与讨论:常规提取工艺为45 min、47℃、32.5:1水种比。结果表明,以100%的提取强度提取30 min,提取率可达42.7%。超声对水胶体萃取效果的改善是由于超声压力波的扩散导致空化现象。振幅水平和暴露时间对一致性系数(k)、流动特性(n)和屈服应力有显著影响(p<0.01)。选择Herschel-bulkley模型作为描述流动行为的最佳流变模型。由于超声波对黏液结构的影响,样品的溶解度变化了66-92%,但与对照样品相比,该参数有所增加。60%强度时泡沫稳定性最高。稳定剂的效力取决于它在相边界处的吸收率。超声辅助提取的黏液的分子量由于超声过程中产生的压力波动而降低。因此,水胶体分散体暴露在高剪切力下可能导致大分子的裂解。 摘要:由于消费者健康意识的要求和环境可持续发展的趋势,开发具有双重或多重功能的天然物质越来越受到食品工业的重视。水胶体是一种高分子量的大分子,在适当的条件下易于溶解和分散在水中。它们可以调节食品的流变特性,通常用作食品增稠剂、质地调节剂、稳定剂和乳化剂,用于各种用途。粘液是一种高分子量的由糖和糖醛酸组成的聚脲。部分溶于水,可形成高粘性溶液。它对葡萄糖的扩散有阻碍作用,有助于延缓碳水化合物的吸收和消化。从木瓜果实的种子中提取的粘液含有纤维素微原纤维,与葡萄糖醛酸残基的比例非常高。对木瓜籽粘液(QSM)的分析表明,其含有较多的纤维素组分和可水解多糖。木瓜籽粘液是一种特有的水胶体,由于其高粘度,需要一种减少提取时间、降低提取能耗,特别是提高提取效率的方法。从植物组织中提取多糖的传统方法有浸渍法、机械法和热回流法。这些提取方法主要依靠能量输入和搅拌来提高多糖的溶解度和传质效率。通常,传统的提取方法需要较长的提取时间和较高的提取温度,提取率低,且能耗高。超声与传统提取相结合是一种极具发展潜力的食品提取技术,它是一种完全可重复的食品加工工艺,完成时间短,重现性高,加工成本低,操作简便,后处理方便。为了实现这一目标,本研究采用超声辅助提取(UAE)作为一种新的提取方法。材料和方法:本研究中使用的榅桲籽购自当地市场(马什哈德KhorasanRazavi)。它们是通过人工清除石头、泥土和破碎的种子等异物来清洁的。它们被包装在密封的塑料容器中,并在5摄氏度的温度下储存,直到下次使用。在提取黏液时,首先对常规提取工艺进行优化,选择最佳水化条件,然后以24 KHz探针和400 W功率在3种不同强度(20、60和100%)和时间(5、15和30 min)下进行UAE (UAE)。所有使用的化学品都是分析级的。用干燥后的水胶体质量除以初始干燥种子的质量计算水胶体的产量值。乳状液热稳定性的测定采用了前人研究的方法。为了测量吸水能力(WAC),在去离子水中加入0.05 g粘液,直到QSM完全湿润(~ 10ml)。然后在1600×g离心10分钟。多余的水被丢弃,残留物称重。使用旋转粘度计(Brookfield, DV- ІІІ,美国)测量0.1% (w/v)浓度的QSM溶液的表观粘度。在25℃下,剪切速率从2.5 ~ 35 s-1呈线性增加。为测定泡沫稳定性和乳状液热稳定性,分别在0.25和0.5 (w/v)的温度下制备浆液分散体,并在4℃下保存过夜。水化完全后,加入2% (w/v)的蛋清粉,用分散器以8600 rpm搅拌2 min起泡。结果与讨论:常规提取工艺为45 min、47℃、32.5:1水种比。结果表明,以100%的提取强度提取30 min,提取率可达42.7%。超声对水胶体萃取效果的改善是由于超声压力波的扩散导致空化现象。振幅水平和暴露时间对一致性系数(k)、流动特性(n)和屈服应力有显著影响(p<0.01)。选择Herschel-bulkley模型作为描述流动行为的最佳流变模型。由于超声波对黏液结构的影响,样品的溶解度变化了66-92%,但与对照样品相比,该参数有所增加。60%强度时泡沫稳定性最高。稳定剂的效力取决于它在相边界处的吸收率。超声辅助提取的黏液的分子量由于超声过程中产生的压力波动而降低。因此,水胶体分散体暴露在高剪切力下可能导致大分子的裂解。 降低QSM的分子量可以提高泡沫泡的吸收率。阿联酋使泡沫稳定性提高了17.31%。虽然在较高的强度或次数下,吸水量(WAC)降低,但与对照样品相比,该参数在所有处理中都较高。WAC取决于水与化合物之间的相互作用、水化位置的多少或活性侧(OH)。超声提取可释放羟基,因此超声提取样品的WAC较对照样品有所增加。然而,由于多糖结构的扭曲,该参数在强处理中降低。这些结果表明,由于阿联酋对QSM的功能特性有积极的影响,可以作为一种合适的提取方法引入。 降低QSM的分子量可以提高泡沫泡的吸收率。阿联酋使泡沫稳定性提高了17.31%。虽然在较高的强度或次数下,吸水量(WAC)降低,但与对照样品相比,该参数在所有处理中都较高。WAC取决于水与化合物之间的相互作用、水化位置的多少或活性侧(OH)。超声提取可释放羟基,因此超声提取样品的WAC较对照样品有所增加。然而,由于多糖结构的扭曲,该参数在强处理中降低。这些结果表明,由于阿联酋对QSM的功能特性有积极的影响,可以作为一种合适的提取方法引入。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
ارزیابی خواص عملکردی موسیلاژ دانه بِه استخراج شده به کمک فراصوت
Introduction: Exploiting natural substances with dual or multiple functionalities is getting more attention in food industry due to the requirement from the health- conscious consumers and the trends for sustainable environment. Hydrocolloids are high molecular weight macromolecules that can be easily dissolved and dispersed in water under appropriate conditions. They can modulate rheological properties of foods, and are generally used as food thickeners, texture modifier, stabilizers and emulsifiers for various applications. Mucilage is a high molecular weight polyuronides consisting of sugar and uronic acid units. It is partially soluble in water and can form highly viscous solution. It exhibits hampering effect on the diffusion of glucose, help to postpone the absorption and digestion of carbohydrates. The mucilage extracted from the seeds of the quince fruit contained cellulose micro-fibrils strongly associated whit a glucuronoxylan possessing a very high proportion of glucuronic acid residues. Analysis of quince seed mucilage (QSM) has shown the presence of more cellulosic fraction and hydrolysable polysaccharide.Quince seed mucilage is one of the endemic hydrocolloids, which due to high viscosity, its extraction needs a method to reduce the extraction time, energy consumption and especially raise the extraction efficiency. The traditional extraction method of polysaccharide from plant tissues are maceration, mechanical rabbling and heat reflux. Theses extraction methods depend largely on energy input and agitation to improve the solubility and mass transfer efficiency of polysaccharides. Usually, the convention extraction method requires long extraction time and high extraction temperature with low extraction yield, but high energy consumption. Ultrasound in combination with conventional extraction is a potential technique, which is a fully reproducible food process, completed in shorter time with high reproducibility, reduced processing cost, simplified manipulation and work-up. To achieve this goal, in this study ultrasound- assisted extraction (UAE) as a novel extraction method was used. Materials andMethods:Quince seed used in this study was purchased from a local market (KhorasanRazavi, Mashhad). They were cleaned manually by removing the foreign matter such as stones, dirt and broken seeds. They were packed in hermetic plastic vessels and stored at 5oC until further use. For mucilage extraction, first conventional extraction was optimized to select the best hydration conditions and after that UAE (24 KHz probe and 400 W power) was performed at three different levels of intensity (20, 60 and 100%) and times (5, 15 and 30 min).All chemicals used were analytical grades. Yield value of hydrocolloid was calculated by dividing the weight of dried hydrocolloid by the weight of initial dry seeds. Emulsion heat stability was determines by the method described in previous studies. In order to measuring the water absorption capacity (WAC), 0.05 g of mucilage was added to deionized water until QSM was completely wet (~ 10ml). The tubes were then centrifuged at 1600×g for 10 min. Excess water was discarded and residue was weighted. Apparent viscosity of QSM solution with 0.1% (w/v) concentration was measured using a rotational viscometer (Brookfield, DV- ІІІ, USA). Shear rate increased linearly from 2.5 - 35 s-1 at 25˚C.For measuring the foam stability and emulsion heat stability, the mucilage dispersions were prepared at 0.25 and 0.5 (w/v) respectively, and kept overnight at 4˚C. After complete hydration, 2% (w/v) egg white powder was added and then foamed by whipping at 8600 rpm for 2 min using adisperser. Results and Discussion: Optimized conditions of conventional extraction were 45 min, 47˚C and 32.5: 1 water to seed ratio. The results showed that extraction at 30 min with 100% intensity raised the extraction yield to 42.7% in comparison with control sample.Improvement in hydrocolloid extraction by ultrasound is attributed to ultrasound pressure wave diffusion which results in cavitation phenomenon.Amplitude level and exposure time had a significant (p<0.01) effect on the consistency coefficient (k), flow behavior (n) and yield stress. Herschel-bulkley model was selected as the best rheological model to describe the flow behavior. Solubility of samples varied by 66-92% due to the effect of ultrasound waves on the structure of mucilage, but this parameter was increased in comparison to the control sample. The highest foam stability was observed at 60% intensity.The efficacy of a stabilizer is dependent on the rate of its absorption at the phase boundary. Moreover molecular weight (MW) of ultrasound- assisted extracted mucilage was reduced because of pressure fluctuations caused by sonication process. As a result, the exposure of hydrocolloid dispersions to high shear forcescould lead to the cleavage of macromolecules. A reduction in the molecular weight of QSM could increase the rate of absorption on the foam bubbles. UAE increased the foam stability by17.31%. Although Water Absorption Capacity(WAC) was reduced especially at higher intensities or times, this parameter was higher in all treatments compared to control sample.WAC depends on the interaction between water and compound, amount of hydration positions or active side (OH). Extraction by ultrasound could release hydroxyl groups, so WAC of ultrasound extracted samples increased compared to control sample. However,this parameter reducedin strong treatmentsbecause of distortion of polysaccharide structure. These results showed that UAE due to its positive effect on the functional properties of QSM could be introduced as a suitable extraction method.
求助全文
通过发布文献求助,成功后即可免费获取论文全文。 去求助
来源期刊
自引率
0.00%
发文量
3
审稿时长
32 weeks
×
引用
GB/T 7714-2015
复制
MLA
复制
APA
复制
导出至
BibTeX EndNote RefMan NoteFirst NoteExpress
×
提示
您的信息不完整,为了账户安全,请先补充。
现在去补充
×
提示
您因"违规操作"
具体请查看互助需知
我知道了
×
提示
确定
请完成安全验证×
copy
已复制链接
快去分享给好友吧!
我知道了
右上角分享
点击右上角分享
0
联系我们:info@booksci.cn Book学术提供免费学术资源搜索服务,方便国内外学者检索中英文文献。致力于提供最便捷和优质的服务体验。 Copyright © 2023 布克学术 All rights reserved.
京ICP备2023020795号-1
ghs 京公网安备 11010802042870号
Book学术文献互助
Book学术文献互助群
群 号:481959085
Book学术官方微信