Tuesday, 15 November 2016
Friday, 4 November 2016
Cuie Yan :: Organizing Committee Member
Meet the Organizing Committee Members of the conference
2nd International Conference on Food Chemistry and Hydrocolloids
Cuie Yan
Principal Scientist
PepsiCo Global R&D
USA
Dr. Cuie Yan possesses four degrees including a Ph. D. in Polymer Chemistry & Physics, and a recently completed B.S. in Nutrition. She is a Principal Scientist with PepsiCo Global Beverage R&D, with 23 years of technical and management expertise in both industry and academia across Food Science and Biotechnologies. She has authored 32 articles in peer reviewed scientific journals and 2 book chapters; and filed 6 patents and commercialized 2 of them that have been generating $20+ million annual revenue since 2008. She has delivered more than 10 presentations in international conferences and forums; and chaired 6. She also has been a reviewer for 5+ top-ranked scientific journals on Food Science & Biotechnologies; as well as one of the Editorial Board Members for Journal of Biotechnology and Journal of Bio Accent.
Thursday, 3 November 2016
Mingruo Guo :: Organizing Committee Member
Meet the Organizing Committee members of the conference
2nd International Conference on Food Chemistry and Hydrocolloids
OCM Biography
Mingruo Guo is a food chemist and inventor, specializes in the areas of functional foods, whey based environmentally safe products, prebiotics and probiotics, infant formula, herbs and nutritional food development. His ongoing research projects include whey protein-based, environmentally safe adhesive and glue products; milk, soy and oat-based symbiotic foods; soy-based coffee creamer; application of limited proteolysis of milk proteins in infant formula; and functional goat-milk yogurt kefir. He is author of the textbook \\\”Functional Foods- Principles and Technology\\\”, published in 2007. He serves as a consultant to both trouble shoot and help food manufacturers develop new products. He has a patent on spray drying technology and two others pending on functional foods and whey protein based wood finishes. The environmentally safe wood finish was awarded as one of the top 10 Green Products in the US.
Research Interest
Mingruo Guo’s research areas includes: Environmentally safe products from whey; component interactions in infant formula and nutritional products; the chemistry and technology of fermented dairy products; ultrasound treatment of milk and apple cider; pre- and probiotics; functional properties of food proteins such as whey proteins.
For more information visit Website: foodchemistry.conferenceseries.com
Tuesday, 1 November 2016
Conrad Oswald Perera :: Organizing Committee Member
Meet Dr. Conrad Oswald Perera at the conference:
Conrad Oswald Perera | The University of Auckland
He received his PhD from Oregon State University and has many years of work experience in the food industry research institutes and academia. His main research area is Chemistry and technology of processing of food products, with special emphasis in dehydration and functional foods. Currently he is working on Vitamin D stability in foods and bioactive peptides from food waste.
Current Projects:
- Dehydration
Mathematical modelling of mass transfer during osmotic drying of fruit tissues coated with edible coatings (with Prof Zhao Weibiao of National University of Singapore). - Postharvest Technology
Study of the effect of 1-Methylcyclopropene on the quality of fresh-cut fruits and vegetables. - Functional Foods
Effect of processing on soy isoflavones, and vitamin D2 from mushrooms and its bioavailability, protein functionality.
For more information visit foodchemistry.conferenceseries.com
Drop us an email for Program enquiry.
foodchemistry@conferenceseries.net
Monday, 31 October 2016
Shirai Keiko Matsumoto :: Organizing Committee Member
Meet the Organizing Committee Members of the Conference
2nd International Conference on Food Chemistry and Hydrocolloids
Dr. Keiko Shirai possesses a PhD in Biological Sciences and Health and also degrees BEng in Biochemistry and MPhil in Biotechnology. She is full time Professor at Biotechnology Department in Universidad Autonoma Metropolitana in Mexico City. She leads the group of Biopolymers and Bioprocess of Agro-Industrial and Food By-Products. She has published more than 60 papers in reputed journals and book chapters. She has supervised PhD and MPhil theses. She has 6 patents in her credit.
Her research work is focused on utilization of agricultural and aquatic wastes for biopolymer, enzyme and metabolite production, application in materials and life sciences.
For more information visit the website: foodchemistry.conferenceseries.com
Friday, 28 October 2016
Qingrong Huang :: Organizing Committee Member
Meet the Organizing Committee Members of the conference
2nd International Conference on Food Chemistry and Hydrocolloids
OCM Introduction:
Qingrong Huang
Professor| Rutgers University
Department of Food Science
The overall theme of his research at Rutgers is the rational design of food nano- or micro-structure for improved quality and performance. His research thrust areas include self-assembly of food biopolymers at nanoscale, nanoencapsulation for food delivery applications, and fabrication of nanoscale biosensors. Most of his research projects are multi-disciplinary in nature, and immerse students in research fields including bionanotechnology, biopolymers, biochemistry, food chemistry, and materials science.
Following is a summary of his specific research areas:
(1) Nanoencapsulation of Nutraceuticals/Drugs. The development of high quality, stable dietary supplements with good oral bioavailability would make a major impact on the health industry. One of the major challenges of dietary flavonoids and carotenoids is their poor oral bioavailabily. The development of novel preparations of dietary supplements with improved bioavailability may improve their biological activity in vivo. A wide variety of encapsulation platforms, including nanostructured emulsions,, W/O/W or O/W/W double emulsions, solid lipid or biopolymer–based nanoparticles, and direct conjugation of phytochemicals to biopolymer side chains have been developed to encapsulate plant polyphenolic compounds. With the help of nanoencapsulation, the body absorption and the blood circulation time of phytochemicals inside the body increase, therefore, the desired pharmaco-kinetics of these phytochemicals may be achieved.
(2) Self-assembly of Biopolymers at Nanoscale. Because of the complexity of modern multi-component food systems, the physical properties of food materials, such as phase behaviors, mechanical properties, and intermolecular interactions between food components at different length scales (nano-, micro-, and macro-scales) must be understood. Polysaccharides and proteins are two key components in both natural and processed foods. The knowledge of their interactions is of importance not only in making cost-efficient use of functional ingredients, but also in designing novel food, controlling and improving food ingredient structures and textural properties of fabricated foods. We have developed new experimental techniques and computer simulation algorithms to provide new insights into the self-assembly of food polymers in a series of complex fluids:
- Hydrocolloid Gels: Hydrocolloids have been widely used as gelling or thickening agents in the food industry; however, many issues related to physical gelation in polymer solutions induced by self-assembly of polymer chains remain unclear. We have developed a novel method that can predict and construct phase diagram, as well as provide molecular level understanding of sol-gel transitions of polymers through a combination of small-angle neutron scattering and Monte Carlo simulation on the basis of a recently-developed eight-site bond fluctuation algorithm.
- Protein/Polysaccharide Hybrids: Hybrids formed by polysaccharides and proteins have already served as important materials in a variety of food/drug delivery applications because they create a barrier of protein between food ingredients and food matrices, and this barrier improves the ingredient performance and shelf-life stability in many food systems.
- Nanoscale Interactions between Biopolymers: The macroscopic properties of food biopolymers are determined to a great extent by the mechanical characteristics of individual components, including such aspects as entropic and enthalpic elasticities as well as their molecular conformations. Very recently, the conformation of BSA as well as its interactions with negatively-charged surface in saline solutions of different pH have been investigated by SANS and AFM-based chemical force microscopy (CFM) (J. Phys. Chem. B, 2008). A new approach to extract the contribution of elementary interactions from the statistically averaged force-extension curves through self-consistent fitting has been developed.
- Multilayer Biopolymer Films: In recent years considerable effort has been devoted to the development of methods for the preparation of composite food particles consisting of polymer cores covered with shells of different chemical composition. Our approach is to assemble edible films with controlled surface hydrophobicity and morphology through the formation of multi-layered biopolymer films using a layer-by-layer (LBL) approach. We have developed UV-Ozone treatment to modify the film hydrophobicity, and electrostatic LBL deposition of charged biopolymers to form nanostructured films with specific properties.
(3) Quantum Dots: To strengthen the power of these delivery systems with the addition of the traceable and targetable capabilities, we have developed a method to prepare water-soluble CdTe QDs with excellent chemical stability and quantum yields (J. Phys. Chem. B, 2006; J. Phys. Chem. C, 2008). Now these water-soluble QDs are ready to be incorporated into our nanoemulsion- or nanoparticle-based delivery systems.
(4) Drug/Protein Interactions: Many studies showed that the interactions between polyphenols in tea and proteins may lead to the loss of bioavailability of polyphenols and their antioxidant capacity. It is crucial to understand the mechanism of binding between tea polyphenols and proteins. Recently, we have used QCM-D to systematically monitor the binding between a series of tea polyphenols, including EGCG (J. Agr. Food Chem., 2007), theaflavin, thearubigin (J. Agr. Food Chem., 2007) and BSA surface. This approach can be easily expended to the screening of nutraceuticals, as well as the studies of binding between drugs and receptor proteins.
(5) Nanoscale Biosensors for Pathogen Detection and Disease Diagnosis: Two types of biosensors have been developed in my laboratory, (1) chip-based sensors, where high-capacity surfaces with increased number of probes (and subsequently the amount of bound target) have been fabricated to generate greater signal output, and (2) QCM-D based biosensors, where toxins or pathogenic cells can be detected through the incorporation of direct immunoassay.
Wednesday, 26 October 2016
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