Ying Ma

Prof. Dr. Ying Ma

School of Chemistry and Chemical Engineering, Harbin Institute of Technology, 92 West Dazhi Street, Harbin 150001, China

Research Focus & Metrics

Academic Career Length

18Years (2009-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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27 February 2010 in Food and Bioprocess Technology
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Journal Article
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SYShifeng Yu
Shifeng Yu
Ying MaYing Ma
Ying Ma
LMLucile Menager
Lucile Menager
DSDa-Wen Sun
Da-Wen Sun

Verified
Journal Article
Open access
PDF file
HLHaimei Li
Haimei Li
Ying MaYing Ma
Ying Ma
QLQiming Li
Qiming Li
JWJiaqi Wang
Jiaqi Wang
JCJinju Cheng
Jinju Cheng
JSJohn Shi
John Shi
The paper surveyed the chemical composition and nitrogen distribution of Maiwa yak milk, and compared the results with reference composition of cow milk. Compared to cow milk, yak milk was richer in protein (especially whey protein), essential amino acids, fat, lactose and minerals (except phosphorus). The contents of some nutrients (total protein, lactose, essential amino acids and casein) were higher in the warm season than in the cold season. Higher ratios of total essential amino acids/total amino acids (TEAA/TAA) and total essential amino acids/total non essential amino acids (TEAA/TNEAA) were found in the yak milk from the warm season. However its annual average ratio of EAA/TAA and that of EAA/NEAA were similar to those of cow milk. Yak milk was rich in calcium and iron (p < 0.05), and thus may serve as a nutritional ingredient with a potential application in industrial processing.

1 January 2015 in Food Chemistry
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Journal Article
Closed access
Shudong HeShudong He
Shudong He
JSJohn Shi
John Shi
Walid ElfallehWalid Elfalleh
Walid Elfalleh
HZHongwei Zhang
Hongwei Zhang
Ying MaYing Ma
Ying Ma
SXSophia Jun Xue
Sophia Jun Xue

11 July 2017 in Critical Reviews in Food Science and Nutrition
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Journal Article
Closed access
Shudong HeShudong He
Shudong He
BSBenjamin K. Simpson
Benjamin K. Simpson
HSHanju Sun
Hanju Sun
MNMichael O. Ngadi
Michael O. Ngadi
Ying MaYing Ma
Ying Ma
THTiemin Huang
Tiemin Huang
Legume lectins are carbohydrate-binding proteins of non-immune origin. Significant amounts of lectins have been found in Phaseolus vulgaris beans as far back as in the last century; however, many questions about their potential biological roles still remain obscure. Studies have shown that lectins are anti-nutritional factors that can cause intestinal disorders. Owing to their ability to act as toxic allergens and hemagglutinins, the Phaseolus vulgaris lectins are of grave concern for human health and safety. Nonetheless, their potential beneficial health effects, such as anti-cancer, anti-human immunodeficiency virus (anti-HIV), anti-microbial infection, preventing mucosal atrophy, reducing type 2 diabetes and obesity, promoting nutrients absorption and targeting drugs, are of immense interest. The significance of Phaseolus vulgaris lectins in biological researches and the potential biomedical applications have placed tremendous emphasis on the development of purification strategies to obtain the protein in pure and stable forms. These purification strategies entail considerations such as effects of proteolysis, heating, gamma radiation, and high-hydrostatic-pressure that can have crucial outcomes in either eliminating or improving bioactivities of the lectins. Thus, up-to-date research findings of Phaseolus vulgaris lectins on different aspects such as anti-nutritional and health impacts, purification strategies and novel processing trends, are systematically reviewed.


1 September 2014 in Biotechnology Reports
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Journal Article
Open access
SHShenghua He
Shenghua He
YQYibing Qin
Yibing Qin
Walid ElfallehWalid Elfalleh
Walid Elfalleh
LLLin Li
Lin Li
JCJie Cui
Jie Cui
Ying MaYing Ma
Ying Ma
The effect of ball-milling on physicochemical properties of maize starch was evaluated. Results found that the cold water solubility (CWS) of maize starch was positively correlated with the time of milling up to 3 h. There was no significant influence of using a ceramic pot versus a stainless steel pot on CWS. However, following 5 h of ball-milling CWS increased quite dramatically in the ceramic pot (72.6%) and in the stainless steel pot (70.7%), as compared to the untreated maize starches (2.9%). In addition, as CWS increased, the regions of amorphism enlarged at the expense of the crystalline regions, resulting in a change from the native starch state (oval with a smooth surface) to having more of a rough, abrasive surface. Finally, the transparency of the starch increased as CWS increased and that the syneresis of freeze-thawed ball-milled maize starch also increased with an increase in the number of freeze-thaw cycles.