A Novel Approach to Dietary Exposure
Total Page:16
File Type:pdf, Size:1020Kb
Load more
Recommended publications
-
Sweet Success
[Sweetners] Vol. 25 No. 2 Summer 2015 Sweet Success By Judie Bizzozero, Senior Editor In light of increasing consumer demand for less caloric, healthier and “natural” products featuring lower sugar content and non-GMO ingredients, formulators are seeking out versatile ingredients that not only are easy to integrate into food and beverages, but also deliver specific and reliable health benefits. “‘Natural’ sweeteners are gaining favor among consumers due to the increased focus on products, in all categories, that are ‘free-from’ and non-GMO,” said Rudy Wouters, vice president, BENEO Technology Center, Antwerp Area, Belgium. “Consumers are looking to manufacturers to deliver products that are natural, but also lower in sugar content for the maintenance of a more healthy diet and lifestyle.” Clean-Label Trending According to 2014 data from Tate & Lyle, Hoffman Estates, Illinois, 65 percent of consumers in the United States are looking for calories on package labels. In addition to calorie reduction, 2014 data from Harleysville, Pennsylvania-based Natural Marketing Institute (NMI) found 53 percent of consumers are looking for products with simpler ingredient lists. “The dual demand for calorie reduction and simpler ingredient lists makes zero-calorie sweeteners like stevia and monk fruit an ideal option for food and beverage manufacturers. And we’re already seeing manufacturers adopt these trending sweeteners in their formulations,” said Amy Lauer, marketing manager, Tate & Lyle North America. “In fact, stevia and monk fruit are the only high- potency sweeteners to see growth in new product launches from 2013 to 2014 in the United States [Innova, 2014]. Stevia in particular is gaining momentum with a 103-percent increase in new product launches from 2013 to 2014.” Tate & Lyle’s stevia-based zero-calorie sweetener meets consumer demand for low-calorie and low- sugar products and achieves 50 percent or more sugar-reduction levels, Lauer said. -
Thaumatin Is Similar to Water in Blood Glucose Response in Wistar Rats Warid Khayata1, Ahmad Kamri2, Rasha Alsaleh1
International Journal of Academic Scientific Research ISSN: 2272-6446 Volume 4, Issue 2 (May - June 2016), PP 36-42 www.ijasrjournal.org Thaumatin is similar to water in blood glucose response in Wistar rats Warid Khayata1, Ahmad Kamri2, Rasha Alsaleh1 1 (Department of Analytical and Food Chemistry, Faculty of Pharmacy/ University of Aleppo, Aleppo, Syria) 2 (Department of Physiology, Faculty of Sciences/ University of Aleppo, Aleppo, Syria) ABSTRACT: The aim of this study was to investigate the effect of thaumatin; a sweet tasting protein, compared to a natural sweetener; sucrose and a synthetic one; aspartame on blood glucose level and body weight in male Wistar rats. Sucrose, aspartame, and thaumatin solutions have been administrated orally every day to adult male Wistar rats for 8 consecutive weeks. Within this period, blood glucose was monitored during two hours and body weight was measured every two weeks. It was found that compared to water, aspartame and thaumatin did not elevate blood glucose at all. Also, neither aspartame nor thaumatin affected body weight. Subsequently, thaumatin can be considered as a safer and healthier sweetener than aspartame or sucrose, because it is natural and do not cause elevating in blood glucose. Keywords: Blood glucose, Body weight, Sweetener, Thaumatin, Wistar rat GRAPHICAL ABSTRACT www.ijasrjournal.org 36 | Page International Journal of Academic Scientific Research ISSN: 2272-6446 Volume 4, Issue 2 (May - June 2016), PP 36-42 I. INTRODUCTION Sugar obtained from sugar cane or beet is widely used in many food products to give sweetness, viscosity, and consistency. Furthermore, it has a role in the preservation of foods [1]. -
Use of Sweeteners in Animal Nutrition
No. 24 / 2000, page 27 USE OF SWEETENERS IN ANIMAL NUTRITION Christina Hof (Cuxhaven, Germany) “The bitter truth about the sweet taste of excess, new which only differed in added flavour. During the first part research shows even low-calorie sweeteners seduce the of the fattening period a combination of a vanilla flavour appetite” (1990), “Diet soft drinks - too good to be true?” plus sweetener and a feed without flavour supplement (1987), these were headlines in The Independent and were offered at the same time. Later, the same flavour- the New York Times. Since then the assumption, that sweetener combination was tested with a special vanilla new non-calorie sweeteners support the trend to be slim, flavour (characterised by a slightly bitter, spicy note) has become shaky. Many scientific studies have been without addition of a sweetener (Figures 1 and 2). designed to find out whether non-calorie sweeteners increase the total calorie intake. Figure 1: Preference test in pigs (live weight 22 - 49 The knowledge from these studies could be useful for kg) at the University of Leuven (Belgium, animal feeding in order to guarantee and improve feed 1993) intake and daily weight gain. What role does taste play? Everyone knows the sensations of taste and smell; they can cause, often to a high degree, pleasant feelings or aversions. In contrast to the senses of seeing and hearing, the senses of smell and taste are not highly developed in humans. Their influence on us, however, is strong. The sense of smell, in particular, is closely asso- ciated with our emotions. -
Clean Label Alternatives in Meat Products
foods Review Clean Label Alternatives in Meat Products Gonzalo Delgado-Pando 1 , Sotirios I. Ekonomou 2 , Alexandros C. Stratakos 2 and Tatiana Pintado 1,* 1 Institute of Food Science, Technology and Nutrition (CSIC), José Antonio Novais 10, 28040 Madrid, Spain; [email protected] 2 Centre for Research in Biosciences, Coldharbour Lane, Faculty of Health and Applied Sciences, University of the West of England, Bristol BS16 1QY, UK; [email protected] (S.I.E.); [email protected] (A.C.S.) * Correspondence: [email protected] Abstract: Food authorities have not yet provided a definition for the term “clean label”. However, food producers and consumers frequently use this terminology for food products with few and recognisable ingredients. The meat industry faces important challenges in the development of clean-label meat products, as these contain an important number of functional additives. Nitrites are an essential additive that acts as an antimicrobial and antioxidant in several meat products, making it difficult to find a clean-label alternative with all functionalities. Another important additive not complying with the clean-label requirements are phosphates. Phosphates are essential for the correct development of texture and sensory properties in several meat products. In this review, we address the potential clean-label alternatives to the most common additives in meat products, including antimicrobials, antioxidants, texturisers and colours. Some novel technologies applied for the development of clean label meat products are also covered. Keywords: clean label; meat products; nitrites alternatives; phosphates alternatives Citation: Delgado-Pando, G.; Ekonomou, S.I.; Stratakos, A.C.; Pintado, T. -
Reports of the Scientific Committee for Food
Commission of the European Communities food - science and techniques Reports of the Scientific Committee for Food (Sixteenth series) Commission of the European Communities food - science and techniques Reports of the Scientific Committee for Food (Sixteenth series) Directorate-General Internal Market and Industrial Affairs 1985 EUR 10210 EN Published by the COMMISSION OF THE EUROPEAN COMMUNITIES Directorate-General Information Market and Innovation Bâtiment Jean Monnet LUXEMBOURG LEGAL NOTICE Neither the Commission of the European Communities nor any person acting on behalf of the Commission is responsible for the use which might be made of the following information This publication is also available in the following languages : DA ISBN 92-825-5770-7 DE ISBN 92-825-5771-5 GR ISBN 92-825-5772-3 FR ISBN 92-825-5774-X IT ISBN 92-825-5775-8 NL ISBN 92-825-5776-6 Cataloguing data can be found at the end of this publication Luxembourg, Office for Official Publications of the European Communities, 1985 ISBN 92-825-5773-1 Catalogue number: © ECSC-EEC-EAEC, Brussels · Luxembourg, 1985 Printed in Luxembourg CONTENTS Page Reports of the Scientific Committee for Food concerning - Sweeteners (Opinion expressed 14 September 1984) III Composition of the Scientific Committee for Food P.S. Elias A.G. Hildebrandt (vice-chairman) F. Hill A. Hubbard A. Lafontaine Mne B.H. MacGibbon A. Mariani-Costantini K.J. Netter E. Poulsen (chairman) J. Rey V. Silano (vice-chairman) Mne A. Trichopoulou R. Truhaut G.J. Van Esch R. Wemig IV REPORT OF THE SCIENTIFIC COMMITTEE FOR FOOD ON SWEETENERS (Opinion expressed 14 September 1984) TERMS OF REFERENCE To review the safety in use of certain sweeteners. -
Chemical Basics of Life
© Jones & Bartlett Learning, LLC. NOT FOR SALE OR DISTRIBUTION CHAPTER 2 Chemical Basics of Life OUTLINE KEY TERMS Atoms, Molecules, and Chemical Bonds Acids: Electrolytes that release hydrogen ions in water. Atomic Structure Activation energy: The amount of energy required to start a Molecules reaction. Chemical Bonds Anions: Ions with a negative charge. Types of Chemical Reactions Atomic number: A whole number representing the number Enzymes of positively charged protons in the nucleus of an atom. Acids, Bases, and the pH Scale Atomic weight: The total number of protons and neutrons in Chemical Constituents of Cells the nucleus of an atom. Inorganic Substances Atoms: The smallest complete units of an element, varying in Organic Substances size, weight, and interaction with other atoms. Summary Bases: Electrolytes that release ions that bond with Learning Goals hydrogen ions. Critical Thinking Questions Carbohydrates: Substances (including sugars) that provide Websites much of the energy required by the body’s cells, as well as Review Questions helping to build cell structures. Catalysts: Atoms or molecules that can change the rate of a OBJECTIVES reaction without being consumed during the process. After studying this chapter, readers should be able to: Cations: Ions with a positive charge. 1. Describe the relationships between atoms and Chemistry: The study of the composition of matter and molecules. changes in its composition. 2. Explain chemical bonds. Compounds: Molecules made up of different bonded atoms. 3. Describe how an atomic number is determined. Decomposition: A reaction that occurs when bonds with a 4. List the major groups of inorganic chemicals reactant molecule break, forming simpler atoms, molecules, common in cells. -
GRAS Notice 920, THAUMATIN II
GRAS Notice (GRN) No. 920 https://www.fda.gov/food/generally-recognized-safe-gras/gras-notice-inventory Form Approved: OMB No. 0910-0342; Expiration Date: 02/29/2016 (See last page for OMB Statement) FDA USE ONLY GRN NUMBER DATE OF RECEIPT DEPARTMENT OF HEALTH AND HUMAN SERVICES ESTIMATED DAILY INTAKE INTENDED USE FOR INTERNET Food and Drug Administration GENERALLY RECOGNIZED AS SAFE NAME FOR INTERNET (GRAS) NOTICE KEYWORDS Transmit completed form and attachments electronically via the Electronic Submission Gateway (see Instructions); OR Transmit completed form and attachments in paper format or on physical media to: Office of Food Additive Safety (HFS-200), Center for Food Safety and Applied Nutrition, Food and Drug Administration, 5100 Paint Branch Pkwy., College Park, MD 20740-3835. PART I – INTRODUCTORY INFORMATION ABOUT THE SUBMISSION 1. Type of Submission (Check one) New Amendment to GRN No. Supplement to GRN No. 2. All electronic files included in this submission have been checked and found to be virus free. (Check box to verify) 3a. For New Submissions Only: Most recent presubmission meeting (if any) with FDA on the subject substance (yyyy/mm/dd): 3b. For Amendments or Supplements: Is your (Check one) amendment or supplement submitted in Yes If yes, enter the date of response to a communication from FDA? No communication (yyyy/mm/dd): PART II – INFORMATION ABOUT THE NOTIFIER Name of Contact Person Position Yuri Gleba, Ph.D. Chief Executive Officer Company (if applicable) 1a. Notifier Nomad Bioscience GmbH Mailing Address (number and street) Biozentrum Halle, Weinbergweg 22 City State or Province Zip Code/Postal Code Country Halle/Saale Saxony-Anhalt D-06120 Germany Telephone Number Fax Number E-Mail Address 49 345 1314 2606 4934513142601 [email protected] Name of Contact Person Position Kristi 0 . -
An Integrated Approach to Understand Apicomplexan Metabolism From
Shanmugasundram et al. BMC Bioinformatics 2014, 15(Suppl 3):A3 http://www.biomedcentral.com/1471-2105/15/S3/A3 MEETINGABSTRACT Open Access An integrated approach to understand apicomplexan metabolism from their genomes Achchuthan Shanmugasundram1,2*, Faviel F Gonzalez-Galarza1, Jonathan M Wastling2, Olga Vasieva1, Andrew R Jones1 From Ninth International Society for Computational Biology (ISCB) Student Council Symposium 2013 Berlin, Germany. 19 July 2013 Background Methods The Apicomplexa is a large phylum of intracellular para- We have utilised an approach called ‘metabolic recon- sites that show great diversity and adaptability in the struction’, in which genes are systematically assigned to various ecological niches they occupy. They are the cau- functions within pathways/networks [1-4]. Functional sative agents of human and animal infections including annotation and metabolic reconstruction was carried malaria, toxoplasmosis and theileriosis, which have a out using a semi-automatic approach, integrating geno- huge economic and social impact. A number of apicom- mic information with biochemical evidence from the plexan genomes have been sequenced and are publicly literature. The functions were automatically assigned available. However, the prediction of gene models and using a sequence similarity-based approach and protein annotation of gene functions remains challenging. motif information. Experimental evidence was also Table 1 A survey of the data available for the different apicomplexan genomes in LAMP. The analysis is updated from the survey table published in the previous publication [5] Organism No of metabolic No of unique No of missing No of Total no of No of metabolites No of end pathways enzymesa enzymesb reactionsc metabolitesd from hoste metabolites to host or of unknown fatef T. -
The Effect of Using E-Numbers Or Colloquial Additive Names on the Consumption Intention
The effect of using E-numbers or colloquial additive names on the consumption intention. Master thesis Author: Ron Hoogma Supervisor: Arnout Fischer Coreader: Ivo van der Lans Chairgroup: Marketing and Consumer Behaviour Date: 2015 The effect of using E-numbers or colloquial additive names on the consumption intention. Table of content Abstract ................................................................................................................................................... 3 Introduction ............................................................................................................................................. 4 Theoretical background ........................................................................................................................... 6 Risk & Benefit perception .................................................................................................................... 6 Understanding and perceiving additives ............................................................................................. 7 Methodology ......................................................................................................................................... 10 Operationalization ............................................................................................................................. 10 Pre-test .............................................................................................................................................. 11 Main study ........................................................................................................................................ -
Aspartame | European Food Safety Authority
5/17/2017 Aspartame | European Food Safety Authority Home Topics AZ Aspartame Aspartame Aspartame is a lowcalorie, intense artificial sweetener. It is a white, odourless powder, approximately 200 times sweeter than sugar. In Europe, it is authorised to be used as a food additive in foodstuffs such as drinks, desserts, sweets, dairy, chewing gums, energyreducing and weight control products and as a tabletop sweetener. The sweetener aspartame and its breakdown products have been a matter of extensive investigation for more than 30 years including experimental animal studies, clinical research, intake and epidemiological studies and postmarketing surveillance. It has been found to be safe and authorised for human consumption for many years and in many countries following thorough safety assessments. In the European Union (EU) the label on foodstuffs containing aspartame must state its presence, indicating either its name or its E number (E 951). Activities Role EU framework FAQ Completed work Since 2002, EFSA has kept the safety of aspartame under regular review and its Scientific Panels have issued several opinions on studies related to this sweetener. Currently, this work is carried out by the Panel on Food Additives and Nutrient Sources Added to Food (ANS). Latest activities In December 2013 EFSA published its first full risk assessment of aspartame. The opinion concludes that aspartame and its breakdown products are safe for general population (including infants, children and pregnant women). The current Acceptable Daily Intake (ADI) of 40mg/kg bw/day is considered protective for the general population and consumer exposure to aspartame is well below this ADI. -
Food Additives
Food additives Department of Chemistry The Open University of Sri Lanka 1 Published by The Open University of Sri Lanka 2014 Food additives Introduction In previous lessons, we considered the chemistry of synthetic polymers, natural polymers and biomolecules such as carbohydrates, amino acids, proteins, fatty acids and lipids. In this lesson, we intend to study pros and cons of food additives. People around the world use natural and artificial food additives particularly to improve the taste and appearance of food without thinking of their effects on their health. Do you have the practice of checking the list of food additives given in the label when you buy food items? Centuries ago and even today people smoke fish/meat and add certain chemicals to them (e.g. salt) to improve their shelf life. Particularly in eastern countries, people add spices and indigenous herbs to food to improve its taste and colour. Some food varieties are seasonal (and abundant during the season) and are not available throughout the year. But preserved food is made available around the year, enabling us to enjoy food in different forms, even in places where it is not available or produced. Consumption of food additives may have certain health risks. Carcinogenesis (i.e. causation of cancers), hyperactivity in children, precipitation of allergies, and migraine are some known health risks associated with food additives. It is high time you knew more about what you eat. Let us examine the definition of a food additive. Food additives can be defined as chemical substances deliberately added to food, directly or indirectly, in known or regulated quantities, for purposes of assisting in the processing of food, preservation of food, or in improving the flavour, texture, or appearance of food. -
Title Atomic Structure of the Sweet-Tasting Protein
View metadata, citation and similar papers at core.ac.uk brought to you by CORE provided by Kyoto University Research Information Repository Atomic structure of the sweet-tasting protein thaumatin I at pH Title 8.0 reveals the large disulfide-rich region in domain II to be sensitive to a pH change. Masuda, Tetsuya; Ohta, Keisuke; Mikami, Bunzo; Kitabatake, Author(s) Naofumi; Tani, Fumito Biochemical and biophysical research communications (2012), Citation 419(1): 72-76 Issue Date 2012-03-02 URL http://hdl.handle.net/2433/175270 Right © 2012 Elsevier Inc. Type Journal Article Textversion author Kyoto University Atomic structure of the sweet-tasting protein thaumatin I at pH 8.0 reveals the large disulfide-rich region in domain II to be sensitive to a pH change Tetsuya Masudaab*, Keisuke Ohtaab, Bunzo Mikamic , Naofumi Kitabataked , and Fumito Taniab aDivision of Food Science and Biotechnology, Graduate School of Agriculture, Kyoto University, Gokasho, Uji, Kyoto, 611-0011, Japan, bDepartment of Natural Resources, Graduate School of Global Environmental Studies, Kyoto University, Gokasho, Uji, Kyoto, 611-0011, Japan, and cDivision of Applied Life Sciences, Graduate School of Agriculture, Kyoto University, Gokasho, Uji, Kyoto, 611-0011, Japan and dDepartment of Foods and Human Nutrition, Notre Dame Seishin University, Okayama 700-8516, Japan Correspondence email: [email protected] 1 Abstract Thaumatin, an intensely sweet-tasting plant protein, elicits a sweet taste at 50 nM. Although the sweetness remains when thaumatin is heated at 80C for 4 h under acid conditions, it rapidly declines when heating at a pH above 7.0. To clarify the structural difference at high pH, the atomic structure of a recombinant thaumatin I at pH 8.0 was determined at a resolution of 1.0 Å.