72 Subpart G—Gums, Chewing Gum Bases and Related Substances
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Calcium Stearate Processing
National Organic Standards Board Technical Advisory Panel (TAP) Review Compiled by University of California Sustainable Agriculture Research and Education Program (UC SAREP) for the USDA National Organic Program Calcium Stearate Processing Executive Summary1 A petition is under consideration with respect to NOP regulations subpart G §205.605, governing the use of substances in processed products: Petitioned: Inclusion of calcium stearate on National List of nonagricultural substances allowed in or on processed products labeled as “organic” or “made with organic (specified ingredients or food group(s)).” Calcium stearate is a compound of calcium with a mixture of solid organic acids obtained from edible sources. It is generally used as a solid-phase lubricant that reduces friction between particles of the substance to which it is added. The Petitioner’s intended use is “as a flow agent (anti-dusting agent)” to be used in dry flour based ingredients sold to bakeries (NOSB Petition). The NOP has no prior listing or ruling on the substance. All three reviewers agreed that the substance should be considered synthetic. The reviewers were divided over the use of calcium stearate in food labeled as “organic.” Two of the reviewers felt it should not be allowed in these foods, while one reviewer felt it should be accepted. One reviewer who voted to restrict its use indicated that more information was needed on the nature of the substance and its potential applications, and the other reviewer felt that inclusion of a “synthetic” substance in organics runs contrary to consumer’s expectations regarding organic products. All three reviewers agreed that the substance should be allowed in products labeled as “made with organic…” ingredients. -
Retention Indices for Frequently Reported Compounds of Plant Essential Oils
Retention Indices for Frequently Reported Compounds of Plant Essential Oils V. I. Babushok,a) P. J. Linstrom, and I. G. Zenkevichb) National Institute of Standards and Technology, Gaithersburg, Maryland 20899, USA (Received 1 August 2011; accepted 27 September 2011; published online 29 November 2011) Gas chromatographic retention indices were evaluated for 505 frequently reported plant essential oil components using a large retention index database. Retention data are presented for three types of commonly used stationary phases: dimethyl silicone (nonpolar), dimethyl sili- cone with 5% phenyl groups (slightly polar), and polyethylene glycol (polar) stationary phases. The evaluations are based on the treatment of multiple measurements with the number of data records ranging from about 5 to 800 per compound. Data analysis was limited to temperature programmed conditions. The data reported include the average and median values of retention index with standard deviations and confidence intervals. VC 2011 by the U.S. Secretary of Commerce on behalf of the United States. All rights reserved. [doi:10.1063/1.3653552] Key words: essential oils; gas chromatography; Kova´ts indices; linear indices; retention indices; identification; flavor; olfaction. CONTENTS 1. Introduction The practical applications of plant essential oils are very 1. Introduction................................ 1 diverse. They are used for the production of food, drugs, per- fumes, aromatherapy, and many other applications.1–4 The 2. Retention Indices ........................... 2 need for identification of essential oil components ranges 3. Retention Data Presentation and Discussion . 2 from product quality control to basic research. The identifi- 4. Summary.................................. 45 cation of unknown compounds remains a complex problem, in spite of great progress made in analytical techniques over 5. -
Borneol - Camphor - Isoborneol
EXP. 35 A & B OXIDATION-REDUCTION SCHEME: BORNEOL - CAMPHOR - ISOBORNEOL LEARNING OBJECTIVES: To illustrate the concepts of oxidation and reduction in organic chemistry, to illustrate the stereochemical effects of these reactions in certain systems, to use IR spectroscopy to characterize diastereomers and monitor reactions. QUIZ PREPARATION: Recitation notes and readings assigned in the syllabus. OXIDATION AND REDUCTION IN ORGANIC CHEMISTRY The concepts of oxidation and reduction in chemistry are fundamentally related to the loss and gain of electrons, respectively. For a specific atom, oxidation brings about an increase in the oxidation number, whereas reduction does the opposite. This is of course true in organic reactions as well, but it is frequently less clear where the gain or loss of electrons is taking place. For this reason, the concepts of oxidation and reduction are addressed from a different perspective in organic chemistry. Since carbon is the most important element in organic chemistry, we can define oxidation as a process whereby carbon gains bonds to more electronegative atoms. These can be any atoms more electronegative than carbon, such as chlorine or sulphur, but the most commonly seen in organic oxidations is oxygen. The more bonds to oxygen, the higher the oxidation state of the carbon involved. Examples of oxidation reactions are those that convert alkanes into alcohols, or alcohols into carbonyl compounds. The functional groups that contain the most highly oxidized form of carbon in organic compounds are the carboxylic acids and their derivatives. Reduction is the opposite of oxidation. We can define reduction as a process whereby carbon adds bonds to less electronegative atoms. -
Nutrition Facts
1 BURGER KING® USA Nutritionals: Core, Regional and Limited Time Offerings APRIL 2015 Nutrition Facts serving (g) serving size Calories Calories from fat Total fat (g) Saturated Fat (g) Trans Fat (g) Chol (mg) Sodium (mg) Total Carb (g) Dietary Fiber (g) Protein (g) Total Sugar (g) WHOPPER® Sandwiches WHOPPER® Sandwich 290 650 340 37 11 1.5 60 910 50 2 12 22 w/o Mayo 268 510 200 22 8 1.5 55 790 50 2 12 22 WHOPPER® Sandwich with Cheese 312 730 400 44 15 2 85 1260 51 2 13 26 w/o Mayo 291 600 260 29 13 1.5 75 1140 51 2 13 26 DOUBLE WHOPPER® Sandwich 375 900 510 56 19 3 115 980 50 2 12 35 w/o Mayo 353 770 370 41 17 2.5 105 860 50 2 12 35 DOUBLE WHOPPER® Sandwich with Cheese 397 990 570 63 23 3 135 1330 51 2 13 40 w/o Mayo 376 850 420 48 21 3 130 1220 51 2 13 39 TRIPLE WHOPPER® Sandwich 455 1160 670 75 27 4 170 1050 50 2 12 49 w/o Mayo 434 1020 540 60 25 4 160 930 49 2 12 48 Spicy BLT WHOPPER® 304 750 420 46 17 2 100 1480 48 3 8 29 WHOPPER JR.® Sandwich 138 300 150 16 4.5 0.5 25 460 27 1 7 9 w/o Mayo 131 240 90 10 3.5 0.5 25 410 27 1 6 10 WHOPPER JR.® Sandwich with Cheese 153 350 190 21 7 1 40 640 28 1 7 12 w/o Mayo 132 280 120 13 6 0.5 40 580 27 1 7 12 FLAME BROILED BURGERS Big King™ 198 530 280 31 11 1.5 75 790 38 2 8 19 A.1.® Ultimate Bacon Cheeseburger 294 820 460 51 22 3 140 1370 37 1 8 39 Hamburger 100 230 80 9 3 0 25 460 26 1 6 9 Cheeseburger 111 270 110 12 5 0.5 35 630 27 1 7 11 Double Hamburger 128 320 140 15 6 1 45 450 26 1 6 14 Double Cheeseburger 142 360 170 19 8 1 60 670 27 1 7 16 Extra Long Cheeseburger 214 590 300 33 12 1.5 -
Aldehydes and Ketones
12 Aldehydes and Ketones Ethanol from alcoholic beverages is first metabolized to acetaldehyde before being broken down further in the body. The reactivity of the carbonyl group of acetaldehyde allows it to bind to proteins in the body, the products of which lead to tissue damage and organ disease. Inset: A model of acetaldehyde. (Novastock/ Stock Connection/Glow Images) KEY QUESTIONS 12.1 What Are Aldehydes and Ketones? 12.8 What Is Keto–Enol Tautomerism? 12.2 How Are Aldehydes and Ketones Named? 12.9 How Are Aldehydes and Ketones Oxidized? 12.3 What Are the Physical Properties of Aldehydes 12.10 How Are Aldehydes and Ketones Reduced? and Ketones? 12.4 What Is the Most Common Reaction Theme of HOW TO Aldehydes and Ketones? 12.1 How to Predict the Product of a Grignard Reaction 12.5 What Are Grignard Reagents, and How Do They 12.2 How to Determine the Reactants Used to React with Aldehydes and Ketones? Synthesize a Hemiacetal or Acetal 12.6 What Are Hemiacetals and Acetals? 12.7 How Do Aldehydes and Ketones React with CHEMICAL CONNECTIONS Ammonia and Amines? 12A A Green Synthesis of Adipic Acid IN THIS AND several of the following chapters, we study the physical and chemical properties of compounds containing the carbonyl group, C O. Because this group is the functional group of aldehydes, ketones, and carboxylic acids and their derivatives, it is one of the most important functional groups in organic chemistry and in the chemistry of biological systems. The chemical properties of the carbonyl group are straightforward, and an understanding of its characteristic reaction themes leads very quickly to an understanding of a wide variety of organic reactions. -
Aldrich Vapor
Aldrich Vapor Library Listing – 6,611 spectra This library is an ideal tool for investigator using FT-IR to analyze gas phase materials. It contains gas phase spectra collected by Aldrich using a GC-IR interface to ensure chromatographically pure samples. The Aldrich FT-IR Vapor Phase Library contains 6,611 gas phase FT-IR spectra collected by Aldrich Chemical Company using a GC interface. The library includes compound name, molecular formula, CAS (Chemical Abstract Service) registry number, Aldrich catalog number, and page number in the Aldrich Library of FT-IR Spectra, Edition 1, Volume 3, Vapor-Phase. Aldrich Vapor Index Compound Name Index Compound Name 6417 ((1- 3495 (1,2-Dibromoethyl)benzene; Styrene Ethoxycyclopropyl)oxy)trimethylsilane dibromide 2081 (+)-3-(Heptafluorobutyryl)camphor 3494 (1-Bromoethyl)benzene; 1-Phenylethyl 2080 (+)-3-(Trifluoroacetyl)camphor bromide 262 (+)-Camphene; 2,2-Dimethyl-3- 6410 (1-Hydroxyallyl)trimethylsilane methylenebicyclo[2.2.1]heptane 6605 (1-Methyl-2,4-cyclopentadien-1- 2828 (+)-Diisopropyl L-tartrate yl)manganese tricarbonyl 947 (+)-Isomenthol; [1S-(1a,2b,5b)]-2- 6250 (1-Propynyl)benzene; 1-Phenylpropyne Isopropyl-5-methylcyclohexano 2079 (1R)-(+)-3-Bromocamphor, endo- 1230 (+)-Limonene oxide, cis + trans; (+)-1,2- 2077 (1R)-(+)-Camphor; (1R)-(+)-1,7,7- Epoxy-4-isopropenyl-1- Trimethylbicyclo[2.2.1]heptan- 317 (+)-Longifolene; (1S)-8-Methylene- 976 (1R)-(+)-Fenchyl alcohol, endo- 3,3,7-trimethyltricyclo[5.4.0 2074 (1R)-(+)-Nopinone; (1R)-(+)-6,6- 949 (+)-Menthol; [1S-(1a,2b,5a)]-(+)-2- Dimethylbicyclo[3.1.1]heptan-2- -
Kfc-Ingredients.Pdf
INGREDIENT GUIDE Below is a list of menu offerings by category. The full ingredient statements for each item are listed alphabetically on the following pages. Variations may occur due to differences in suppliers, ingredient substitutions, recipe revisions, and/or product production at the restaurant. Some menu items may not be available at all restaurants. Limited time offers, test products, or regional items have not been included. WINGS HBBQ Hot Wings® Hot Wings®, HBBQ Wing Sauce Fiery Buffalo Hot Wings® Hot Wings®, Fiery Buffalo Wing Sauce SANDWICHES & WRAPS KFC Snacker® with Crispy Strip Colonel’s Crispy Strips, Snacker® Bun, Lettuce, Colonel’s Sauce KFC Snacker®, Buffalo with Crispy Strip Colonel’s Crispy Strips, Snacker® Bun, Lettuce, Buffalo Sauce KFC Snacker®, Ultimate Cheese with Crispy Strip Colonel’s Crispy Strips, Snacker® Bun, Lettuce, Ultimate Cheese Sauce KFC Snacker®, Honey BBQ Colonel’s Crispy Strip, Hawaiian Bun, Lettuce, Tomatoes, Colonel’s Sauce Crispy ® Twister with Crispy Strip ® ® Tender Roast Filet, Twister Tortilla Wrap, Lettuce, Tomatoes, Colonel’s Sauce Honey BBQ Sandwich Shredded Chicken, Hawaiian Bun, HBBQ Sandwich Sauce Double Down with OR Filet KFC® Original Recipe® Filet, Bacon, Pepper Jack Cheese, Monterey Jack Cheese, Colonel’s Sauce Doublicious with OR Filet ® Tender Roast Filet, Hawaiian Bun, Lettuce, Monterey Jack Cheese, Colonel’s Sauce BOWLS & VALUE BOXES KFC Famous Bowls®-Mashed Potato with Gravy Popcorn Chicken or Colonel’s Crispy Strips or Original Recipe® Bites, Gravy, Mashed Potatoes, Corn, -
A New Source of Natural D-Borneol and Its Characteristic
Journal of Medicinal Plants Research Vol. 5(15), pp. 3440-3447, 4 August, 2011 Available online at http://www.academicjournals.org/JMPR ISSN 1996-0875 ©2011 Academic Journals Full Length Research Paper A new source of natural D-borneol and its characteristic Lei Chen 1, Jianyu Su 1*, Lin Li 1, Bing Li 1 and Wang Li 2 1Department of Food Science and Technology, South China University of Technology, 510642 Guangzhou, Peoples Republic of China. 2Food Safety Key Laboratory of Guangdong Province, College of Food Science, South China Agricultural University, 510642 Guangzhou, Peoples Republic of China. Accepted 28 February, 2011 The essential oils from leaves of Mei Pian tree (a Cinnamomun burmannii physiological type), were obtained by hydro-distillation and analyzed by gas chromatography and mass spectrometry (GC/MS). Forty compounds representing 99.61% of the total oil containing D-borneol (78.6%) as the major component were obtained. D-borneol was purified by sublimation, and the characteristic of the refined D-borneol was compared with standard D-borneol and synthetic borneol by infrared spectra analysis and optical activity analysis. The chemical composition and the optical rotation of refined D-borneol from leaves of Mei Pian tree were extremely similar to the standard D-borneol and materially surpass synthetic borneol. Antioxidant activities of the refined D-borneol and standard D-borneol were determined by testing their DPPH and hydroxyl radicals scavenging activities and the reducing power. The refined D-borneol and standard D-borneol had the same antioxidant activity. They exhibited higher hydroxyl radicals scavenging activity, but weaker reducing power, compared with the synthetic borneol. -
Survey, Emission and Evaluation of Volatile Organic Chemic…
Survey of chemical compounds in consumer products Survey no. 36 – 2003 Survey, emission and evaluation of volatile organic chemicals in printed matter Ole Christian Hansen and Torben Eggert Danish Technological Institute 2 Contents PREFACE 5 SUMMARY AND CONCLUSIONS 7 ABBREVIATIONS 11 1 INTRODUCTION 13 2 PRINTED MATTER 15 2.1 CONSUMPTION 15 2.2 NUMBER OF ENTERPRISES 16 2.3 PRINTING 16 2.3.1 Printing techniques 16 2.4 PAPER 17 2.5 PRINTING INKS 17 2.5.1 Solvents 18 2.5.2 Binders 19 2.5.3 Wetting agent 19 2.5.4 UV-curing inks 19 2.6 EMISSIONS DURING PRINTING 20 2.7 PRINTED MATTER IN THE HOUSEHOLD 20 2.8 DISPOSAL 21 2.9 RECYCLING 22 3 EXPOSURE 23 3.1 EMISSION MEASURING METHODS 23 3.1.1 Sampling and analyses 23 3.1.2 Screening of volatiles 23 3.1.3 Quantitative measurements 24 3.1.4 Results 25 4 EXPOSURE AND HEALTH EVALUATION 33 4.1 EXPOSURE SCENARIOS 34 4.1.1 Method 34 4.1.2 Scenarios 34 4.2 ASSESSMENT METHOD 35 4.2.1 Assessment method 35 4.2.2 Procedure for assessments 37 5 EVALUATION OF INDIVIDUAL COMPOUNDS 39 5.1 ALDEHYDES 39 5.1.1 Propanal 39 5.1.2 Pentanal 41 5.1.3 Hexanal 42 5.1.4 Heptanal 43 5.2 ALCOHOLS 44 5.2.1 2-Ethyl-1-hexanol 45 5.3 KETONES 46 5.3.1 Heptanone 46 3 5.4 ESTERS 48 5.4.1 Propanoic acid, butylester 48 5.5 FURAN 49 5.5.1 2-Pentylfuran 49 5.6 AROMATIC HYDROCARBONS 50 5.6.1 Toluene 50 5.6.2 Xylenes 53 5.6.3 Ethylbenzene 56 5.7 TERPENES 58 5.7.1 alpha-Pinene 58 5.7.2 Camphene 60 5.7.3 Limonene 61 5.7.4 Tetramethyl methenoazulene 63 5.8 ALIPHATIC HYDROCARBONS 64 6 EVALUATION OF PRINTED MATTER 68 6.1 HEALTH ASSESSMENT OF SELECTED PRINTED MATTER 68 6.1.1 Printed matter no. -
Volume II Appendices FILE
Volume II Appendices FILE VI-. -. .; - -. , , ~711 =ii=:::i2iiii i , " i ' .:I IIgl~~ - Ij, , ! CENTRAL SELVA NATURAL RESOURCES MANAGEMENT PROJECT USAID PROJECT NO. 527-0240 VOLUME II - APPENDICES Lima, Peru October, 1981 Prepared by: JRB Associates 8400 Westpark Dr. McLean, VA 22102 APPENDICES APPENDIX A Bayley, Peter FISH RNSOURCES IN THE PALCAZU VALLEY: Effects of the Road and Colonization on Conservation and Protein Supply APPENDIX B Bolaftos/Wh-tson ROPORT ON THE EVALUATION OF LAND USE CAPACITY APPENDIX C Bolaflios/Wetson REPORT ON THE PALCAZU VALLEY ECOLOGICAL MALP APPBNDIX D Bt-aec, Antomd.-o ECOLOGICAL VALTgATION OF THE PALCAZU RIVER VALLEY ( Paseo, Peru.) AND GUIDELINES FOR AN BNVIRONMNTAL GONSBRYVMION PROGAM APPENDIX E Dourejean.i, Marc MNA&GNMENT OF FAUNA AND WLDLANDS IN THE PALCAZU VALLEY APPENDIX F Postec, Robin BRIE-F INVBNTORY OF PLANT COMMUNITIES AND PLANT RESOURCES OF THE PALCAZU VALLEY Department of Pasci. Peru APPENDIX G He.tsborn, Gary FORESTDRY POTENT.AL IN THE PA'WCAZU VALLEY, PERU APPENDIX H Marks, Ira BASELINE HEALTH ASSESSMENT OF THE PALCAZU VALLEY APPENDIX I MicCaff-rey, Dennis AIGZYSIS OF GOVERNMENTAL INSTITUTIONS INVOLVED IN DEVELOPMENT OF THE PALCAZU VALLEY APPENDIX J Morris, Gregory L. THE CLIMATE AND HYDROLOGY OrT THE PALCAZU WATERSHED AND IMPACTS OF AGRICULTURAL DEVELOPMENT APPENDI X K Pool, Douglas AGRICULTURAL POTENTIAL AND NATURAL RESOURCE MANAGEMENT OF THE PALCAZU VALLEY, PERU Appendix L Smith, Richard Chase LAND, NATURAL RESOURCES AND ECONOMIC DEVELOPMENT OF THE AMUESHA NATIVE COMMUNITIES IN THE PALCAZU VALLEY APPENDIX M Staver, Charles ANINWL PRODUCTION SYSTEMS IN THE PALCAZU VALLEY AND MRANS FOR THEIR EXPANSION AND INTENSIFICATION APPENDIX N Tesi, Joseph LAND USE CAPABILITY AND RECOMMENDED LAND USE FOR THE P&LCAZU VALLEY APPENDIX 0 Zadtaga, Frank SOME IMPORTANT WATER AND RELATED RESOURCE CONSIDERATIONS AFFECTING THE CAPABILITY AND SUITABILITY FOR DEVELOPMENT OF TEE PALCA.ZU VALLEY, PERU APPENDIX A FISH RESOURCES IN THE PALCAZU VALLEY: EFFECTS OF THE ROAD AND COLONIZATION ON CONSERVATION AND PROTEIN SUPPLY Peter B. -
Estimation of Hydrolysis Rate Constants of Carboxylic Acid Ester and Phosphate Ester Compounds in Aqueous Systems from Molecular Structure by SPARC
Estimation of Hydrolysis Rate Constants of Carboxylic Acid Ester and Phosphate Ester Compounds in Aqueous Systems from Molecular Structure by SPARC R E S E A R C H A N D D E V E L O P M E N T EPA/600/R-06/105 September 2006 Estimation of Hydrolysis Rate Constants of Carboxylic Acid Ester and Phosphate Ester Compounds in Aqueous Systems from Molecular Structure by SPARC By S. H. Hilal Ecosystems Research Division National Exposure Research Laboratory Athens, Georgia U.S. Environmental Protection Agency Office of Research and Development Washington, DC 20460 NOTICE The information in this document has been funded by the United States Environmental Protection Agency. It has been subjected to the Agency's peer and administrative review, and has been approved for publication. Mention of trade names of commercial products does not constitute endorsement or recommendation for use. ii ABSTRACT SPARC (SPARC Performs Automated Reasoning in Chemistry) chemical reactivity models were extended to calculate hydrolysis rate constants for carboxylic acid ester and phosphate ester compounds in aqueous non- aqueous and systems strictly from molecular structure. The energy differences between the initial state and the transition state for a molecule of interest are factored into internal and external mechanistic perturbation components. The internal perturbations quantify the interactions of the appended perturber (P) with the reaction center (C). These internal perturbations are factored into SPARC’s mechanistic components of electrostatic and resonance effects. External perturbations quantify the solute-solvent interactions (solvation energy) and are factored into H-bonding, field stabilization and steric effects. These models have been tested using 1471 reliable measured base, acid and general base-catalyzed carboxylic acid ester hydrolysis rate constants in water and in mixed solvent systems at different temperatures. -
International Journal of Modern Pharmaceutical
IJMPR 2021, 5(4), 39-46 ISSN: 2319-5878 IJMPR Amandeep et al. International Journal International of Journal Modern of Modern Pharmaceutical Research 39 Review Article Pharmaceutical Research SJIF Impact Factor: 5.273 www.ijmpronline.com REVIEW ARTICLE ON MANILKARA HEXANDRA (KHIRNI) Amandeep Kaur* and Dr. Naresh Singh Gill Department of Pharmaceutical Chemistry, Rayat Institute of Pharmacy, Railmajra. Received on: 25/05/2021 ABSTRACT Revised on: 15/06/2021 Manilkara hexandra commonly known as Rayan and Khirni is an evergreen tree Accepted on: 05/07/2021 species with a long history of traditional medicinal uses in South Asia chiefly in western and central India, belongs to family Sapotaceae. The genus Manilkara includes *Corresponding Author 135 plants that are distributed Worldwide. Sapotaceae family consists of 58 genus and Amandeep Kaur just about 1250 species with morphological variation, ranging from shrubs to medium and giant trees. Brazil comprises of 11 genera, and 231 species, covering 1 endemic Department of genus, and 104 endemic species. The plant has been famous for its curative properties Pharmaceutical Chemistry, and has been put to use for treatment of various ailments suchlike ulcer, bronchitis, Rayat Institute of Pharmacy, jaundice, fever, hyper dyspepsia, arthritis and alimentary disorders. A record of the Railmajra. literature show extracts and metabolites from this plant having pharmacological properties such as anti–inflammatory, antiulcer, aphrodisiac, alexipharmic, anthelmintic, antibacterial, and free radical scavenging activity. Apart from medicinal uses, plant has high scale value because of its edible and nutritive fruit, useful wood, latex and bark and contributes substantial livelihood support to local inhabitants. KEYWORDS: Khirni, Manilkara hexandra, Sapotaceae, Rayan, Pharmacological properties.