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Featured researches published by Jai Chand Rana.
Journal of Food Science | 2014
Khetan Shevkani; Narpinder Singh; Amritpal Kaur; Jai Chand Rana
UNLABELLED The present work was carried out to evaluate physicochemical (composition, hunter color, and sodium dodecyl sulfate-polyacrylamide gel electrophoresis [SDS-PAGE]), pasting, and functional properties (foaming, emulsification, water, and fat absorption capacity) of amaranth full-fat flours from 6 lines/cultivars (AFs), and to see the effects of lipid removal/defatting on these properties. Protein, ash, and lipid content of AFs ranged between 12.5% to 15.2%, 3.0% to 3.5%, and 7.1% to 8.0%, respectively. The flours showed a number of bands between 97 and 7 kDa, with main subunits of approximately 58, 37, 33, 31, 23, and 16 kDa in the SDS-PAGE profiles. The protein content and L* value increased, while b* values decreased following defatting for most of the lines/cultivars. The defatted flours (DAFs) had higher final viscosity and stability (lower breakdown viscosity) as compared to counterpart AFs. The protein profiling of the flours was not affected with the lipid removal/defatting. However, water absorption capacity and foam stability of the flours improved upon defatting. Principal component analysis revealed that pasting temperature was positively related to lipid content, while breakdown viscosity was negatively related to protein content. Foaming properties (capacity and stability) showed negative relationship with lipid content, and positive with protein content, ash content, water, and fat absorption capacity. PRACTICAL APPLICATION Amaranth grains are known to have higher amount of proteins and lipids than cereals. Amaranth lipids are rich in unsaturated fatty acids, which are prone to oxidative rancidity. Removal of lipids or defatting of flours may be carried out to enhance product shelf life by preventing undesirable oxidative chain reactions. Therefore, this research was undertaken to see the effects of defatting on the functional properties of amaranth flours. The defatting was a value addition process as it improved the functional properties of the flours.
Food Chemistry | 2015
Shagun Sharma; Narpinder Singh; Amardeep Singh Virdi; Jai Chand Rana
The grain and flour characteristics of different field pea (FP) accessions were evaluated. Accessions with higher grain weight had less compact structure with a greater proportion of large-sized starch granules. Accessions with higher protein content had lower starch content, blue value and λ(max) whereas accessions with higher amylose showed higher resistant starch (RS) and final viscosity and lower rapidly digestible starch (RDS). Ca, Zn, K and Fe content vary significantly amongst different accessions and creamish green and white seeds accessions showed higher Fe and Zn content. Yellow coloured accessions (1.36-3.71%) showed lower antioxidant activity as compared to brownish and green coloured accessions (4.06-9.30%). Out of 21 major polypeptides observed (9-100 kDa), 11 showed differential trypsin inhibitory activity (TIA) under non-reducing conditions. Polypeptides of 68, 46, 33 and 22 kDa showed prominent TIA.
Food Hydrocolloids | 2015
Khetan Shevkani; Narpinder Singh; Amritpal Kaur; Jai Chand Rana
International Journal of Food Science and Technology | 2014
Khetan Shevkani; Narpinder Singh; Jai Chand Rana; Amritpal Kaur
Food Chemistry | 2009
Seeratpreet Kaur; Narpinder Singh; Navdeep Singh Sodhi; Jai Chand Rana
Food Chemistry | 2010
Shubhpreet Kaur; Narpinder Singh; Jai Chand Rana
Food Research International | 2013
Amritpal Kaur; Parmeet Kaur; Narpinder Singh; Amardeep Singh Virdi; Prabhjeet Singh; Jai Chand Rana
Food Chemistry | 2010
Narpinder Singh; Navpreet Kaur; Jai Chand Rana; Sk Sharma
Starch-starke | 2014
Narpinder Singh; Shubhpreet Kaur; Amritpal Kaur; Naoto Isono; Yuya Ichihashi; Takahiro Noda; Jai Chand Rana
Food Research International | 2012
Narpinder Singh; Seeratpreet Kaur; Jai Chand Rana; Yoshiko Nakaura; Naoyoshi Inouchi