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Morpholine: a Glazing Agent for Fruits and Vegetables Coating/Waxing (IJSTE/ Volume 2 / Issue 11 / 119) with Glazing Agent
IJSTE - International Journal of Science Technology & Engineering | Volume 2 | Issue 11 | May 2016 ISSN (online): 2349-784X Morpholine: A Glazing Agent for Fruits and Vegetables Coating/Waxing Rupak Kumar Suman Kapur Research Scholar Senior Professor Department of Biological Sciences Department of Biological Sciences BITS-Pilani, Hyderabad Campus, Hyderabad-500078, India BITS-Pilani, Hyderabad Campus, Hyderabad-500078, India Abstract The saying “an apple a day keeps the doctor away” probably gives us the impression that apples are the healthiest fruits. But besides the fact that it rhymes, does it really have no adverse effects if we eat a bright red wax coated apple every day? Morpholine (C4H9NO) is a chemical used as emulsifier in the preparation of wax coatings for fruits and vegetables to help them last longer and remain fresh even during prolonged transit. Morpholine oleate is added to wax as it enables spreading wax in water based liquid for use as a protective coating to prevent contamination by pests and diseases. Morpholine alone does not appear to pose a health concern because morpholine itself is neither a carcinogen nor a teratogen and does not cause chronic toxicity. However, it is a precursor for potent carcinogenic nitrosamines. Keywords: Carcinogen, Emulsifier, Morpholine, Teratogen, Wax Coating ________________________________________________________________________________________________________ I. INTRODUCTION The practice of fruit/vegetable coating was accepted long before their associated chemistries were understood, and are still practiced till date. The first wax coating was applied to citrus fruits in 12th-13th centuries in China. Today, it has expanded rapidly for retaining quality of a wide variety of foods/vegetables, with total annual revenue exceeding $100 million [1]. -
Rosin - Wikipedia, the Free Encyclopedia Page 1
Rosin - Wikipedia, the free encyclopedia Page 1 Rosin From Wikipedia, the free encyclopedia Rosin , also called colophony or Greek pitch (Pix græca ), is a solid form of resin obtained from pines and some other plants, mostly conifers, produced by heating fresh liquid resin to vaporize the volatile liquid terpene components. It is semi-transparent and varies in color from yellow to black. At room temperature rosin is brittle, but it melts at stove-top temperatures. It chiefly consists of various resin acids, especially abietic acid.[1] The term "colophony" comes from colophonia resina or "resin from the pine trees of Colophon," an ancient Ionic city. A cake of rosin, made for use by violinists, used here for Contents soldering 1 Uses 1.1 Pharmaceutical 2 Production 3 Properties 4 Sources 5 See also 6 Sources 7 Notes 8 External links Uses Rosin is an ingredient in printing inks, photocopying and laser printing paper, varnishes, adhesives (glues), soap, paper sizing, soda, soldering fluxes, and sealing wax. Rosin can be used as a glazing agent in medicines and chewing gum. It is denoted by E number E915. A related glycerol ester (E445) can be used as an emulsifier in soft drinks. In pharmaceuticals, rosin forms an ingredient in several plasters and ointments. In industry, rosin is a flux used in soldering. The lead-tin solder commonly used in electronics has about 1% rosin as a flux core helping the molten metal flow and making a better connection by reducing the refractory solid oxide layer formed at the surface back to metal. It is frequently seen as the burnt or clear residue around new soldering. -
Chapter 8: Food Additives
8 Food Additives Tanya Louise Ditschun and Carl K. Winter CONTENTS Introduction Food Additive Functionality Food Additive Regulations Generally Recognized as Safe (GRAS) The Delaney Clause Unintentional Additives Assessment of Food Safety` Specific Food Additives Under Scrutiny Saccharin Aspartame Hydrolysis Products of Aspartame Aspartic Acid Phenylalanine Methanol Diketopiperazine Marketing of Aspartame Erythrosine (FD & C Red #3) Olestra Anectodal Reports of Health Effects Due to Olestra Effects of Olestra on Nutrient Absorption Vitamin A Vitamin E Vitamin D Vitamin K Triglycerides Dietary Phytochemicals References © 2000 by CRC Press LLC Introduction Food additives have been used for centuries in food processing practices such as smoking and salting meat. Prior to the advent of refrigeration, food grown in the summer had to be preserved for the winter; salt, sugar, and vinegar were commonly used preservatives. The pursuits of explorers such as Marco Polo were often for food additives. Additives serve many roles and common uses include maintaining product consistency and pal- atability, providing leavening or control pH, enhancing flavor, and impart- ing color. A food additive can be defined in many ways. The Codex Alimentarius Commission, which develops international regulatory guidelines for food additives, provides the following definition of a food additive: Any substance not normally consumed as a food by itself, and not normal- ly used as a typical ingredient of the food, whether or not it has nutritive value, the intentional addition of which to food for a technological (includ- ing organoleptic) purpose in the manufacture, processing, preparation, treatment, packing, packaging, transport or holding of such food results, or may reasonably be expected to result, directly or indirectly, in it or its by-products becoming a component of or otherwise affecting the charac- teristics of such food. -
Supporting Document 1
Supporting document 1 Risk and Technical Assessment Report – Application A1103 Citric & Lactic Acids as Food Additives in Beer and related products Executive Summary FSANZ received an Application from DB Breweries Limited seeking to amend Standard 1.3.1 – Food Additives of the Australia New Zealand Food Standards Code (the Code) to permit the addition of citric and lactic acids as food additives in beer. Within Standard 1.3.1, this permission would apply to the food category 14.2.1 - Beer and related products. Citric and lactic acids are currently permitted as food additives in a large range of foods at levels consistent with Good Manufacturing Practice (GMP). For the proposed use of citric and lactic acids in beer and related products, this Application also requests GMP permission. The food technology assessment concluded that certain types of beers exhibit improved flavour profiles due to pH reduction achieved by the addition of citric and lactic acids. Maximum levels of addition are expected to be approximately 3 g per litre of beer (total of citric acid plus lactic acid). Citric acid and lactic acid are substances of very low toxicity. Citric acid occurs in many foods, with levels of approximately 10 and 50 g/L in orange juice and lemon juice, respectively. Lactic acid levels are highest in foods produced by fermentation, with levels of approximately 10 g/kg reported for cheese and yogurt. The Joint FAO/WHO Expert Committee on Food Additives (JECFA) concluded that establishment of an Acceptable Daily Intake (ADI) expressed in numerical terms was unnecessary for either substance. -
List of Existing Food Additives
The Japan Food Chemical Research Foundation List of Existing Food Additives This list of food additives from natural origin is complied and published by the Ministry of Health and Welfare on April 16, 1996. These additives are listed here in alphabetic order. The number preceding the name of each additive is the sequence number given to the corresponding additive in the original Japanese list. Effective from January 30, 2014 236 Absinth extract A substance composed mainly of sesquiterpenes obtained from the whole absinth grass. 10 α-Acetolactate decarboxylase - 146 Acid clay - 147 Acid phosphatase - 3 Actinidine - 56 Activated acid clay - 55 Active carbon A substance obtained by carbonizing and activating carbon-containing substances. 5 Acylase - 11 5'-Adenylic acid - 2 Agarase - 4 Agrobacterium succinoglycan A substance composed mainly of succinoglycan obtained from the cultured solution of bacteria belonging to Agrobacteriurn. 17 L-Alanine - 23 Alginate lyase - 22 Alginic acid - 24 Aluminium - 196 Amino acid-sugar reaction product A substance obtained by heating the mixture of amino acids and monosaccharides. 14 Aminopeptidase - 15 alpha-Amylase - 16 beta-Amylase - 12 Annatto extract A substance composed mainly of norbixin and bixin obtained from the seed coats of annatto. 25 Anthocyanase - 19 Arabino galactan - 20 L-Arabinose - 21 L-Arginine - 145 Artemisia sphaerocephala seed A substance composed mainly of polysaccharides obtained from the seed gum coats of SABAKU-YOMOGI (Artemisia sphaerocephala KRASCH). 6 Ascorbate oxidase - 7 L-Asparagine - 8 L-Aspartic acid - 9 Aspergillus terreus glycoprotein A substance composed mainly of glycoprotein obtained from the cultured solution of mould belonging to Aspergillus terreus . 1 Aureobasidium cultured solution A substance composed mainly of beta-1, 3-1, 6-glucan obtained from the cultured solution of yeast belonging to Aureobasidium . -
Chemical and Technical Assessment 65Th JECFA
Chemical and Technical Assessment 65th JECFA BEESWAX Chemical and Technical Assessment (CTA) First draft prepared by Paul M. Kuznesof, Ph.D.∗ Reviewed by D. Brian Whitehouse, Ph.D. 1 Summary Beeswax (INS No. 901) consists primarily of a mixture of esters of fatty acids and fatty alcohols, paraffinic hydrocarbons, and free fatty acids; minor amounts of free fatty alcohols are also present. Two types of beeswax are marketed: yellow beeswax (C.A.S No. 8006-40-4) and white beeswax (C.A.S. No. 8012-89-3). Yellow beeswax is a yellow or light-brown solid that is somewhat brittle when cold and presents a characteristic odour of honey. White beeswax is a white or yellowish white solid (thin layers are translucent) having a characteristic, but faint, odour of honey. Beeswax is obtained from the honeycombs of bees (Apis mellifera L., Fam. Apidae) after removal of the honey. The combs are melted with hot water, steam, or solar heat. After removing the insoluble impurities, the liquid wax is cast into cakes for further purification to obtain food-grade yellow beeswax. Bleaching the latter with e.g. hydrogen peroxide, sulfuric acid or sunlight, yields white beeswax. Beeswax consists primarily of five main groups of components, namely: 1. Free fatty acids (typically 12-14%), most of which are saturated (ca. 85%) and have a chain length of C24-C32. 2. Free primary fatty alcohols (ca. 1%) with a chain length of C28-C35. 3. Linear wax monoesters and hydroxymonoesters (35-45%) with chain lengths generally of C40- C48. The esters are derived almost exclusively from palmitic acid, 15-hydroxypalmitic acid, and oleic acid. -
Electronic Nicotine Delivery Device (ENDS)"
Qeios, CC-BY 4.0 · Review, March 4, 2020 Review of "Electronic Nicotine Delivery Device (ENDS)" Clive Bates Overall. T he definition provided is helpful but there are a few remaining ambiguities, most notably with respect to the inclusion or exclsuion of heated tobacco products within this definition. I think the set of definitions in this field should be looked at together for coherence, and speculate whether they could be built from a set of elemental variables. Device? Strictly, ENDS are not devices, but device-liquid combinations. It is possible to put a non-nicotine liquid in a refillable vaping device that is also designed for nicotine (i.e a flavoured e-liquid with no nicotine). So a device only becomes an ENDS when paired with liquid or class of liquids that contain nicotine. T he same hardware is not an ENDS if not using a nicotine liquid. Not all devices are hand-held: there are electronic hookah pipes using nicotine liquids, for example, that stand on a table or the floor. H umectant? T he function of the propylene glycol or glycerol in the e-liquid is not primarily as a humectant but as: (1) a diluent (to create a chosen nicotine concentration) and, (2) an excipient (a inert carrier for the active ingredients - flavours and nicotine). While these agents can also be humectants, that is not their primary function in ENDS. Clarity over excipient names. T here is great confusion about the names of excipients and an opportunity for clarity here: "...one or more excipients, which may include propylene glycol (PG), glycerol or other excipients. -
Propylene Glycol
PROPYLENEGLYCOL ____________________Name ____________________________________________DateDate alsocalled…methylethylglycol , propane-1,2-diol , 1,2-propanediol ,2-hydroxypropanol , 1,2-dihydroxypropane , isopropyleneglycol ,and E1520 . Whatisit? Propyleneglycolisusedasasofteningagent,solvent,moisturizer,preservativeor vehicleinmanypersonalproducts,medications,andindustry. Wheremightitbefound? Heattransferfluid Householdcleaningproducts Moisturizinglotion,cream Hydraulicpressfluid Make-up(foundation,concealer, Industrialsolvents lipstick,lipliner,lipbalm, Insecttrapcontents gloss,mascara,eyeliner) Paint,enamel,stain,deckcoat,varnish Hairproducts(shampoo,gel, Paintballingredient conditioner,color,minoxidil) Petshampoo,spray,deodorizer Soap,cleanser,bodywash Photographicchemical Bubblebath,showergel Pitfalltrapforgroundbeetles Handsanitizer,handcleaner Plasticizer,polyesterandalkydresins Moisttowelettes,babywipes Polyurethanecushions Toothpaste,toothwhiteners Printingfountaininksolution,rollerwash Mouthwash,coldsoreremedy Tiresealant Shavingcream,aftershavegel Tobaccohumectant,cigarhumidor Antiperspirant,deodorant Transcutaneous-nervestimulatorgel Cuticleremover Ultraviolettattooink Salinesolution Wallpaperstripper,drywallprimer Personallubricant Waterproofing,cracksealant Sunscreen,massageoil Treatmentforathletesfoot,itch, PGisinmanyprescriptions : acne,yeast,earache Most cortisone creams,ointments,lotions,gels Clindamycingel,sol’nKeralytGel OtherPossibleExposures: Dovonexsolution Ketoconazolecr,foam Aircraftde-icingfluid Efudexcream,sol’nMetronidazolegel -
Evaluation of Honey and Rice Syrup As Replacements for Sorbitol in the Production of Restructured Duck Jerky
271 Open Access Asian Australas. J. Anim. Sci. Vol. 29, No. 2 : 271-279 February 2016 http://dx.doi.org/10.5713/ajas.15.0431 www.ajas.info pISSN 1011-2367 eISSN 1976-5517 Evaluation of Honey and Rice Syrup as Replacements for Sorbitol in the Production of Restructured Duck Jerky Endy Triyannanto and Keun Taik Lee* Department of Food Processing and Distribution, Gangneung-Wonju National University, Gangneung 210-702, Korea ABSTRACT: The aim of this study was to evaluate the potential of natural humectants such as honey and rice syrup to replace sorbitol in the production of restructured duck jerky. Each humectant was mixed at 3%, 6%, and 10% (wt/wt) concentrations with the marinating solution. The values of water activity and the moisture-to-protein ratio of all of the samples were maintained below 0.75. Jerky samples treated with honey retained more moisture than those exposed to other treatments. Among all samples, those treated with 10% sorbitol produced the highest processing yield and the lowest shear force values. The highest L* value and the lowest b* value were observed for the sorbitol-treated sample, followed by the rice syrup- and honey-treated samples. Duck jerky samples treated with 10% honey showed the highest scores for the sensory parameters evaluated. The overall acceptability scores of samples treated with rice syrup were comparable with those of samples treated with sorbitol. Microscopic observation of restructured duck jerky samples treated with honey showed stable forms and smaller pores when compared with other treatments. (Key Words: Honey, Rice Syrup, Sorbitol, Restructured Duck Jerky) INTRODUCTION use of tenderloin for manufacturing a duck jerky could be valuable because tenderloin has been treated as a by- Meat jerky is a popular snack that is easily found in product and is cheaper than the other parts such as breasts retail shops worldwide. -
Decco Communication on Shellac Resin
Decco Communication on Shellac Resin 1 BACKGROUND Some supermarkets in Australia have inquired about the quality of shellac resin used as an ingredient in apple wax coatings. Apple packers, who are EE Muir’s customers, have in turn asked EE Muir to provide documentation on the quality of shellac and manufacturing practices used by Decco. Below are a number of documents and explanations that Decco is providing to EE Muir in support of Decco’s quality and manufacturing practices. 2 WHAT IS NATURAL SHELLAC RESIN Shellac is a natural gum resin secreted by the lac beetle (laccifer lacca) which lives on trees in tropical and subtropical regions. The natural gum resin is harvested from the trees and then processed and refined into flakes and powders of pure natural shellac resin. 3 SHELLAC AND ITS USES Natural shellac resin has unique properties and is used in various applications such as: Fruit coatings, Confectionery (Candy & Chocolates coating), Pharmaceutical (Tablets coatings) as well as several non- food segments. Shellac is used as a 'wax' coating on citrus fruit to prolong its shelf/storage life. It is also used to replace the natural wax of the apple, which is removed during the cleaning & washing process. In these applications, the wax coating prevents moisture loss (shrinking, shriveling of the fruit) and preserves the textural and eating quality of the fruit. When used for this purpose, it has the food additive E number E904 which is recognized and adopted worldwide. Shellac is also used as a glazing agent on pills, food, chocolate & candies, in the form of pharmaceutical glaze or, confectioner's glaze. -
Humectant and Cosmetics and External Preparations Containing the Same
Europäisches Patentamt *EP001417955A1* (19) European Patent Office Office européen des brevets (11) EP 1 417 955 A1 (12) EUROPEAN PATENT APPLICATION published in accordance with Art. 158(3) EPC (43) Date of publication: (51) Int Cl.7: A61K 7/48, A61K 7/00, 12.05.2004 Bulletin 2004/20 A61K 31/047, A61K 31/23, A61P 17/16 (21) Application number: 02760624.3 (86) International application number: (22) Date of filing: 13.08.2002 PCT/JP2002/008255 (87) International publication number: WO 2003/015741 (27.02.2003 Gazette 2003/09) (84) Designated Contracting States: (72) Inventors: AT BE BG CH CY CZ DE DK EE ES FI FR GB GR • FUJINO, Jin IE IT LI LU MC NL PT SE SK TR Yokohama-shi, Kanagawa 235-0023 (JP) Designated Extension States: • OOYAMA, Keiichi AL LT LV MK RO SI Yokohama-shi, Kanagawa 235-0023 (JP) (30) Priority: 13.08.2001 JP 2001245282 (74) Representative: Vuillermoz, Bruno et al Cabinet Laurent & Charras (71) Applicant: The Nisshin OilliO, Ltd. B.P. 32 Tokyo 104-8285 (JP) 20, rue Louis Chirpaz 69131 Ecully Cédex (FR) (54) HUMECTANT AND COSMETICS AND EXTERNAL PREPARATIONS CONTAINING THE SAME (57) An object of the present invention is to provide basic acid having 16-28 carbons, more than half of the a humectant which is excellent in moisture retaining hydroxyl groups of at least one of the glycerin and the properties and stability at high temperature above 40°C, condensate of the same remaining as hydroxyl groups and a cosmetic and an external agent comprising the in the ester compound; a component B: a dihydric water same. -
Allergens 230118.Xlsx
Code Product Brand Owner Type Pack ABV% Size Ingredient List (Only if <1/2% ABV) 108660 Kopparberg Alcohol Free with mixed Fruit Cider Of Sweden Ltd Cider Packaged 0 500 ml Carbonated Water, Fermented Apples, Juice (Apple, Blackcurrant, Elderberry, Raspberry), Sugar, Acid (Citric Acid), Flavouring, Preservative (Potassium Sorbate), Antioxidant (E224/Sulphite). 109120 Kopparberg Alcohol Free with Strawberry & Lime Cider Of Sweden Ltd Cider Packaged 0 4 ltr Carbonated water, fermented pear or apple juice, sugar, flavouring, juice from other fruit and berries depending on the flavor of the cider, citric acid (E330), potassium sorbate (E202) and sulfite (E224). 109312Heineken 0.0 Heineken Uk Ltd Lager Packaged 0 330 ml Aater, malted barley, hop extract, natural flavourings 105355 Becks Blue Inbev Uk Lager Packaged 0 275 ml Brewing Water, Malted Barley, Hops 700633Coca Cola Zero Sugar Coca Cola Enterprises (Cce) Minerals Draught 0 7 ltr Carbonated Water, Caramel E150d, Phosphric Acid,Sweetners(Aspartame,Acesulfame K)Natural Flavourings inckudign Caffeine, Acidity Regulator,( Sodium Citrate) 700049 Coca Cola (B-I-B) Marstons Minerals Draught 0 7 ltr Carbonated Water, Sugar, Colour (Caramel E150D), Phosphoric Acid, Natural Flavourings Including Caffeine. 700050 Diet Coca Cola (B-I-B) Marstons Minerals Draught 0 7 ltr Carbonated Water, Colour (Caramel E150D), Sweeteners (Aspartame, Acesulfame K), Natural Flavourings Including Caffeine, Phosphoric Acid, Citric Acid. 700008Diet Pepsi (B-I-B) Marstons Minerals Draught 0 7 ltr Water, Colour (Caramel E150D), Acids (Phosphoric Acid, Citric Acid), Flavourings (Including Caffeine), Sweeteners (Aspartame, Acesulfame K), Acidity Regulator (Sodium Citrate), Preservative (Sodium Benzoate), Anti-Foaming Agent (E900). Contains A Source Of Phenylalanine 700009 Pepsi (B-I-B) Marstons Minerals Draught 0 7 ltr Sugar, Water, Colour (Caramel E150D), Acid (Phosphoric Acid), Flavourings (Including Caffeine).