核桃粕膳食纤维提取、结构分析及粒度差异对其理化性质的影响

耿舒雯; 张有林; 张润光; 阮晓慧; 何鑫; 金子纯

doi:10.13386/j.issn1002-0306.2017.18.010

核桃粕膳食纤维提取、结构分析及粒度差异对其理化性质的影响

陕西师范大学食品工程与营养科学学院

基金项目:

陕西省农业科技攻关项目(2015NY007)；西安市现代农业创新计划项目(NC1317.3)；西安市农产品深加工及农业装备技术研究项目(NC1405.2)；

详细信息

作者简介:
耿舒雯 (1991-) , 女, 硕士研究生, 研究方向:农产品加工及贮藏, E-mail:gsw_1124@163.com。;

张有林 (1956-) , 男, 博士, 教授, 研究方向:农产品加工及贮藏, E-mail:youlinzh@snnu.edu.cn。;

中图分类号: TS209
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出版历程
- 收稿日期: 2017-02-28

Extraction, structural analysis of walnut dietary fibers and effects of particles on its physiochemical properties

College of Food Engineering and Nutritional Science, Shaanxi Normal University

摘要

摘要: 采用化学法从脱脂核桃粕中提取膳食纤维,研究5种不同粒度条件下（<40、40⁶0、60⁸0、80¹20、120¹60、>160目）核桃粕膳食纤维在持水力、膨胀性、吸油性、粘度、阳离子吸附力、葡萄糖阻滞力等理化性质方面的差异,以期为核桃粕膳食纤维的综合利用提供理论依据。结果显示,化学法提取的核桃粕膳食纤维得率为12.47%,膳食纤维含量为76.34%,蛋白质含量为5.41%;红外光谱扫描结果显示,核桃粕膳食纤维在3420 cm^-1处具有明显的纤维素特征吸收峰,表明核桃粕膳食纤维结构基本未受到破坏。不同粒度范围的核桃粕膳食纤维持水力、膨胀性和粘度均有显著差异。其中,粒度在120¹60目之间时,核桃粕膳食纤维持水力最好,为7.76 g·g^-1;粒度在80¹20目之间时,核桃粕膳食纤维膨胀值和粘度最大,分别为5.28 m L·g^-1、21.25 m Pa·s。核桃粕膳食纤维持油力（OAC值）随粒度减小呈增加趋势,当粒度>160目时核桃粕膳食纤维OAC值达到1.92 g·g^-1。此外,当核桃粕膳食纤维粒度为120¹60目时,葡萄糖阻滞力最强,粒度为80¹20目时,阳离子吸附能力最强。综合而言,核桃粕膳食纤维粒度在80¹60目之间时,具备最佳的理化特性。
- 核桃粕 /
- 膳食纤维 /
- 粒度 /
- 理化性质 /
- 葡萄糖阻滞力 /
- 阳离子吸附力
Abstract: To provide basis and reference for the utilization of walnut dietary fibers, walnut dietary fibers were extracted using chemical extraction methods and the physiochemical properties of five fibers with different particles sizes, including below 40 mesh, 40⁶0 mesh, 60⁸0 mesh, 80¹20 mesh, 120¹60 mesh and beyond 160 mesh, were also investigated.Results suggested that the yield of walnut dietary fibers, composing mainly of 76.34% of dietary fibers and 5.41% of protein, was 12.47%.Infrared spectroscopy scanning pictures indicated that walnut dietary fibers had remark absorbance at 3420 cm^-1, suggesting fiber structure had not been destructed.The significant differences of water-keeping capability, swelling capability and viscosity were observed during determining physiochemical properties of five dietary fibers with varying particle sizes.The best water-keeping capability, 7.76 g·g^-1, was observed in walnut dietary fibers with 120 ~ 160 mesh, and the best swelling capability and viscosity, 5.28 m L·g^-1, 21.25 m Pa·s, respectively, both were observed in dietary fibers with 80¹20 mesh.However, walnut dietary fibers size over 160 mesh had the best oil-keeping capability, with 1.92 g·g^-1. In addition, absorption capability of glucose was optimum at the particles 120 to 160 mesh, cation absorptin capability peaked at the particle range of 80 to 120 mesh.Overall, walnut dietary fibers with the particle size of 80¹60 mesh had the optimum physiochemical properties.
- deoiled walnut /
- dietary fibers /
- particle sizes /
- physiochemical properties /
- absorption capability of glucose /
- absorption capability of cation

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