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Peroxy Compounds Human Health and Ecological Draft Risk Assessment DP 455445, 455446
Peroxy Compounds Human Health and Ecological Draft Risk Assessment DP 455445, 455446 UNITED STATES ENVIRONMENTAL PROTECTION AGENCY WASHINGTON, D.C. 20460 OFFICE OF CHEMICAL SAFETY AND POLLUTION PREVENTION MEMORANDUM Date: March 11, 2020 SUBJECT: Registration Review Draft Risk Assessment for the Peroxy Compounds PC Code: 000595, 063201, 063604, 063607, DP Barcode: 455445, 455446 063209, 128860 Decision No: 558073, 558074 Docket No: EPA-HQ-OPP-2009-0546 Regulatory Action: Registration Review Case No: 6059, 4072, 5081 Risk Assessment Type: DRA CAS No: 7722-84-1, 79-21-0, 33734-57-5, 15630-89-4, 10058-23-8, 70693-62-8 TO: Kendall Ziner, Chemical Review Manager Rick Fehir, Ph.D., Team Lead Rose Kyprianou, Branch Chief Regulatory Management Branch (RMB) II Antimicrobials Division (7510P) Office of Pesticide Programs FROM: Andrew Byro, Ph.D., Chemist Kathryn Korthauer, Biologist Timothy Dole, Industrial Hygienist Deborah Burgin, Ph.D., DABT, Toxicologist Risk Assessment and Science Support Branch Antimicrobials Division (7510P) Office of Pesticide Programs THROUGH: Judy Facey, Ph.D., Human Health Risk Assessment Process Leader MP for JF Diana Hsieh, Ecological Risk Assessment Process Leader MP for DH Timothy Leighton, Senior Science Advisor MP for TL Laura Parsons, Associate Branch Chief Melissa Panger, Ph.D., Branch Chief Risk Assessment and Science Support Branch Antimicrobials Division (7510P) This document provides the draft human health and ecological risk assessment conducted in support of the antimicrobial use sites of the following peroxy compounds: hydrogen peroxide, peracetic acid, peroxyoctanoic acid, and sodium percarbonate. Page 1 of 74 Peroxy Compounds Human Health and Ecological Draft Risk Assessment DP 455445, 455446 Although the peroxymonosulfate compounds were included in the peroxy compounds Final Work Plan (FWP), they will not be included in this risk assessment. -
Capsicum Oleoresin and Homocapsaicin
Printed on: Wed Jan 06 2021, 02:44:36 AM Official Status: Currently Official on 06-Jan-2021 DocId: 1_GUID-1560FD9B-BE0F-495E-9994-C5718733DB4C_2_en-US (EST) Printed by: Jinjiang Yang Official Date: Official as of 01-May-2019 Document Type: USP @2021 USPC 1 nordihydrocapsaicin, nonivamide, decanylvanillinamide, Capsicum Oleoresin and homocapsaicin. DEFINITION ASSAY Capsicum Oleoresin is an alcoholic extract of the dried ripe · CONTENT OF TOTAL CAPSAICINOIDS fruits of Capsicum. It contains NLT 6.5% of total Mobile phase: A mixture of acetonitrile and diluted capsaicinoids, calculated as the sum of capsaicin, phosphoric acid (1 in 1000) (2:3) dihydrocapsaicin, nordihydrocapsaicin, nonivamide, Standard solution A: 0.2 mg/mL of USP Capsaicin RS in decanylvanillinamide, and homocapsaicin, all calculated on methanol the anhydrous basis. The nonivamide content is NMT 5% of Standard solution B: 0.1 mg/mL of USP the total capsaicinoids, calculated on the anhydrous basis. Dihydrocapsaicin RS in methanol [CAUTIONÐCapsicum Oleoresin is a powerful irritant, and Sample solution: 5 mg/mL of Capsicum Oleoresin in even in minute quantities produces an intense burning methanol. Pass a portion of this solution through a filter of sensation when it comes in contact with the eyes and 0.2-µm pore size, and use the filtrate as the Sample solution. tender parts of the skin. Care should be taken to protect Chromatographic system the eyes and to prevent contact of the skin with (See Chromatography á621ñ, System Suitability.) Capsicum Oleoresin.] Mode: LC IDENTIFICATION -
Changes in Honey Bee Head Proteome in Response to Dietary 24-Methylenecholesterol
insects Article Changes in Honey Bee Head Proteome in Response to Dietary 24-Methylenecholesterol Priyadarshini Chakrabarti * and Ramesh R. Sagili * Department of Horticulture, Oregon State University, Corvallis, OR 97331, USA * Correspondence: [email protected] (P.C.); [email protected] (R.R.S.); Tel.: +1-541-737-0628 (P.C.); Tel.: +1-541-737-5460 (R.R.S.) Received: 27 August 2020; Accepted: 27 October 2020; Published: 29 October 2020 Simple Summary: Phytosterols are important micronutrients that are essential for production of insect molting hormones and cellular membrane integrity. Past research has shown that the key phytosterol that honey bees need is 24-methylenecholesterol. This phytosterol improves honey bee longevity and sustains brood production. Hence, it is important to understand how 24-methylenecholesterol can shape honey bee physiology by altering protein profiles of vital honey bee tissues. Nurse bees secrete glandular secretions (brood food) using hypopharyngeal and mandibular glands in their head regions. Further, it has been shown that this sterol is selectively accumulated in nurse bee heads. Thus, it is imperative to examine the protein profiles of nurse bee heads, in response to dietary 24-methylenecholesterol manipulation. In this study, groups of newly emerged nurse bees were fed with varying concentrations of dietary 24-methylenecholesterol, while the control groups received no sterol. We found that dietary sterol manipulation altered the protein profiles in nurse bee heads, with important nutritional marker proteins being upregulated in high dietary sterol groups. The important proteins identified in this study may serve as vital markers of nutritional stress related to sterols in honey bees, paving the way for future research on bee nutrition. -
Product Nutritional Analysis
Product Nutritional Analysis CA Nutri Chemical Analysis Analysis Unit Price (ex VAT) SANAS Accredited? Lead Time Energy by Calculation kJ or kcal No charge if part of Full Nutri Carbohydrate by Calculation g/100g No charge if part of Full Nutri Moisture g/100g R 193 2 Ash g/100g R 193 3 Protein g/100g R 355 3 Glycaemic Carbohydrates g/100g R 1 649 5 Total Sugars g/100g R 1 088 5 (Glucose, Fructose, Sucrose, Lactose and Maltose) Total Fat by AOAC 996.06 g/100g R 950 7 Full Nutritional Fatty acid Composition by AOAC 996.06 g/100g R 1 087 Yes Label of which Saturated g/100g of which Monounsaturated g/100g of which Polyunsaturated g/100g Included as part of Fatty Acid 7 of which Trans Fatty Acids g/100g Composition Omega 3 mg/100g Omega 6 mg/100g Cholesterol mg/100g R 842 7 Total Dietary Fibre by AOAC 985.29 g/100g R 1 636 8 to 12 Sodium mg/100g R 529 5 Salt calculated from Sodium results g/100g No charge if Sodium requested Yes Salt Salt by chloride titration g/100g R 662 Yes 5 Acid Insoluble Ash g/100g R 390 5 to 7 Crude Fibre g/100g R 1 374 Yes 5 to 7 Water Activity - R 527 7 Other pH - R 150 2 Density g/ml R 133 Yes 3 Caffeine mg/100g R 705 Yes 5 Total Capsaicinoids mg/kg R 665 5 (Capsaicin, dihydrocapsaicin, nordihydrocapsaicin and Scoville Heat Value) Antimony (Sb) mg/kg R 813 Arsenic (As) mg/kg R 813 Subc to SGS 10 Calcium (Ca) mg/100g R 529 Chromium (Cr) mg/kg R 813 Copper (Cu) mg/kg R 529 Yes 5 to 7 Iron (Fe) mg/kg R 529 Yes 5 Inorganic Food Testing Potassium (K) mg/100g R 529 Yes 5 Phosphorus (P) mg/kg R 813 Subc 10 Selenium (Se) -
Bimetallic Catalyst Catalyzed Carbonylation of Methanol to Acetic Acid
materials Article Study on Rh(I)/Ru(III) Bimetallic Catalyst Catalyzed Carbonylation of Methanol to Acetic Acid Shasha Zhang 1, Wenxin Ji 1,2,*, Ning Feng 2, Liping Lan 1, Yuanyuan Li 1,2 and Yulong Ma 1,2 1 College of Chemistry and Chemical Engineering, Ningxia University, Yinchuan 750021, China; [email protected] (S.Z.); [email protected] (L.L.); [email protected] (Y.L.); [email protected] (Y.M.) 2 State Key Laboratory of High-efficiency Utilization of Coal and Green Chemical Engineering, Ningxia University, Yinchuan 750021, China; [email protected] * Correspondence: [email protected]; Tel.: +86-135-1957-9989; Fax: +86-951-206-2323 Received: 13 July 2020; Accepted: 3 September 2020; Published: 11 September 2020 Abstract: In this study, a Rh(I)/Ru(III) catalyst with a bimetallic space structure was designed and synthesized. The interaction between the metals of the bimetallic catalyst and the structure of the bridged dimer can effectively reduce the steric hindrance effect and help speed up the reaction rate while ensuring the stability of the catalyst. X-ray photoelectron spectroscopy (XPS) results show that rhodium accepts electrons from chlorine, thereby increasing the electron-rich nature of rhodium and improving the catalytic activity. This promotes the nucleophilic reaction of the catalyst with methyl iodide and reduces the reaction energy barrier. The methanol carbonylation performance of the Rh/Ru catalyst was evaluated, and the results show that the conversion rate of methyl acetate and the yield of acetic acid are 96.0% under certain conditions. Furthermore, during the catalysis, no precipitate is formed and the amount of water is greatly reduced. -
TRP Channel Transient Receptor Potential Channels
TRP Channel Transient receptor potential channels TRP Channel (Transient receptor potential channel) is a group of ion channels located mostly on the plasma membrane of numerous human and animal cell types. There are about 28 TRP channels that share some structural similarity to each other. These are grouped into two broad groups: Group 1 includes TRPC ("C" for canonical), TRPV ("V" for vanilloid), TRPM ("M" for melastatin), TRPN, and TRPA. In group 2, there are TRPP ("P" for polycystic) and TRPML ("ML" for mucolipin). Many of these channels mediate a variety of sensations like the sensations of pain, hotness, warmth or coldness, different kinds of tastes, pressure, and vision. TRP channels are relatively non-selectively permeable to cations, including sodium, calcium and magnesium. TRP channels are initially discovered in trp-mutant strain of the fruit fly Drosophila. Later, TRP channels are found in vertebrates where they are ubiquitously expressed in many cell types and tissues. TRP channels are important for human health as mutations in at least four TRP channels underlie disease. www.MedChemExpress.com 1 TRP Channel Inhibitors, Antagonists, Agonists, Activators & Modulators (-)-Menthol (E)-Cardamonin Cat. No.: HY-75161 ((E)-Cardamomin; (E)-Alpinetin chalcone) Cat. No.: HY-N1378 (-)-Menthol is a key component of peppermint oil (E)-Cardamonin ((E)-Cardamomin) is a novel that binds and activates transient receptor antagonist of hTRPA1 cation channel with an IC50 potential melastatin 8 (TRPM8), a of 454 nM. Ca2+-permeable nonselective cation channel, to 2+ increase [Ca ]i. Antitumor activity. Purity: >98.0% Purity: 99.81% Clinical Data: Launched Clinical Data: No Development Reported Size: 10 mM × 1 mL, 500 mg, 1 g Size: 10 mM × 1 mL, 5 mg, 10 mg, 25 mg, 50 mg, 100 mg (Z)-Capsaicin 1,4-Cineole (Zucapsaicin; Civamide; cis-Capsaicin) Cat. -
Saponins, Phytosterols
Herbal Pharmacology Saponins, Phytosterols Class Abstract Saponins Mills&Bone p.44-47, p.67, Ginseng monograph (p.635) Rajput, Zahid Iqbal, et al. "Adjuvant effects of saponins on animal immune responses." Journal of Zhejiang University Science B 8.3 (2007): 153-161. Rao, A. V., and M. K. Sung. "Saponins as anticarcinogens." The Journal of nutrition 125.3 Suppl (1995): 717S-724S. Francis, George, et al. "The biological action of saponins in animal systems: a review." British journal of nutrition 88.06 (2002): 587-605. glycyrrhizin dioscin KEY POINTS: Glycosides, steroidal or triterpenoid. Soap-like with sugar moiety being hydrophilic. Act both whole and as aglycones. Interact with hormone (corticosteroid / sex) systems. Increase hepatic cholesterol synthesis and excretion. Interact with immune system. Often toxic by injection Extraction: Water is often excellent. Forms foam. Areas of action: Gut, lymphoid tissue, liver, pituitary, kidney/adrenals. Pharmacokinetics: Micelle formation, various degrees of de-glycosylation in small intestine, though some absorbed whole. Rapid plasma entry (90 min), clearances often longer (8-12h half-lives), perhaps due to enterohepatic recycling. Excreted in bile, some kidney. Representative species: Glycyrrhiza, Panax, Actaea, Saponaria Phytosterols: Mills&Bone Saw Palmetto monograph, pp. 805-810 Demonty, Isabelle, et al. "Continuous dose-response relationship of the LDL-cholesterol– lowering effect of phytosterol intake." The Journal of nutrition 139.2 (2009): 271-284. Phillips, Katherine M., David M. Ruggio, and Mehdi Ashraf-Khorassani. "Phytosterol composition of nuts and seeds commonly consumed in the United States." Journal of agricultural and food chemistry 53.24 (2005): 9436-9445. Ostlund, Richard E., Susan B. Racette, and William F. -
Modulation of Lipid Metabolism by Phytosterol Stearates and Black Raspberry Seed Oils
University of Nebraska - Lincoln DigitalCommons@University of Nebraska - Lincoln Nutrition & Health Sciences Dissertations & Theses Nutrition and Health Sciences, Department of 5-2010 Modulation of Lipid Metabolism by Phytosterol Stearates and Black Raspberry Seed Oils Mark McKinley Ash University of Nebraska at Lincoln, [email protected] Follow this and additional works at: https://digitalcommons.unl.edu/nutritiondiss Part of the Dietetics and Clinical Nutrition Commons, and the Molecular, Genetic, and Biochemical Nutrition Commons Ash, Mark McKinley, "Modulation of Lipid Metabolism by Phytosterol Stearates and Black Raspberry Seed Oils" (2010). Nutrition & Health Sciences Dissertations & Theses. 17. https://digitalcommons.unl.edu/nutritiondiss/17 This Article is brought to you for free and open access by the Nutrition and Health Sciences, Department of at DigitalCommons@University of Nebraska - Lincoln. It has been accepted for inclusion in Nutrition & Health Sciences Dissertations & Theses by an authorized administrator of DigitalCommons@University of Nebraska - Lincoln. Modulation of Lipid Metabolism by Phytosterol Stearates and Black Raspberry Seed Oils by Mark McKinley Ash A THESIS Presented to the Faculty of The Graduate College at the University of Nebraska In Partial Fulfillment of Requirements For the Degree of Master of Science Major: Nutrition Under the Supervision of Professor Timothy P. Carr Lincoln, Nebraska May, 2010 Modulation of Lipid Metabolism by Phytosterol Stearates and Black Raspberry Seed Oils Mark McKinley Ash, M.S. University of Nebraska, 2010 Adviser: Timothy P. Carr Naturally occurring compounds and lifestyle modifications as combination and mono- therapy are increasingly used for dyslipidemia. Specficially, phytosterols and fatty acids have demonstrated an ability to modulate cholesterol and triglyceride metabolism in different fashions. -
Utilizing LC/UV and LC/MS for the Characterization, Isolation, And
Utilizing LC/UV and LC/MS for the Characterization, Isolation, and Quantitation of Capsaicinoids in Chili Peppers and Hot Sauces J Preston, Seyed Sadjadi, Zeshan Aqeel, and Sky Countryman Phenomenex, Inc., 411 Madrid Ave., Torrance, CA 90501 USA PO19040114_W_2 PO14400613_W_2 Abstract Hot and spicy food has dramatically increased in popu- al different chili peppers and commercially available hot larity over the past 10-20 years. Capsaicin is the most sauces. Prep HPLC is then used to isolate individual cap- abundant compound found in chili peppers giving them saicinoids from the pepper extracts. Finally, a triple qua- their fiery flavor. Capsaicin is formed when vanillylamine druple MS system is employed to identify and quantitate is coupled to a 10 carbon fatty acid through an amide link- the observed capsaicinoids. age. However, there are other related compounds often called capsaicinoids. These compounds have the same Capsaicin was found to be the most prevalent capsaicinoid vanillylamine group but differ by the associated fatty acid species in all of the studied matrices. Significant amounts chain and are responsible for the perception of different of Nordihydrocapsaicin were found in a cayenne hot sauce heat profiles for different chili peppers. Some peppers are and in Thai chili pepper extract. Dihydrocapsaicin and Ho- described as having a high initial flash of heat while other modihydrocapsaicin were also identified in many of the in- peppers are described by a long and late burning profile. vestigated chili extracts and hot sauces but at lower levels. The typical concentration of these compounds were found The work presented here, initially uses HPLC with UV to be in the µg/g range but varied widely among the differ- detection to profile capsaicinoids extracted from sever- ent chili peppers and hot sauces. -
Note: the Letters 'F' and 'T' Following the Locators Refers to Figures and Tables
Index Note: The letters ‘f’ and ‘t’ following the locators refers to figures and tables cited in the text. A Acyl-lipid desaturas, 455 AA, see Arachidonic acid (AA) Adenophostin A, 71, 72t aa, see Amino acid (aa) Adenosine 5-diphosphoribose, 65, 789 AACOCF3, see Arachidonyl trifluoromethyl Adlea, 651 ketone (AACOCF3) ADP, 4t, 10, 155, 597, 598f, 599, 602, 669, α1A-adrenoceptor antagonist prazosin, 711t, 814–815, 890 553 ADPKD, see Autosomal dominant polycystic aa 723–928 fragment, 19 kidney disease (ADPKD) aa 839–873 fragment, 17, 19 ADPKD-causing mutations Aβ, see Amyloid β-peptide (Aβ) PKD1 ABC protein, see ATP-binding cassette protein L4224P, 17 (ABC transporter) R4227X, 17 Abeele, F. V., 715 TRPP2 Abbott Laboratories, 645 E837X, 17 ACA, see N-(p-amylcinnamoyl)anthranilic R742X, 17 acid (ACA) R807X, 17 Acetaldehyde, 68t, 69 R872X, 17 Acetic acid-induced nociceptive response, ADPR, see ADP-ribose (ADPR) 50 ADP-ribose (ADPR), 99, 112–113, 113f, Acetylcholine-secreting sympathetic neuron, 380–382, 464, 534–536, 535f, 179 537f, 538, 711t, 712–713, Acetylsalicylic acid, 49t, 55 717, 770, 784, 789, 816–820, Acrolein, 67t, 69, 867, 971–972 885 Acrosome reaction, 125, 130, 301, 325, β-Adrenergic agonists, 740 578, 881–882, 885, 888–889, α2 Adrenoreceptor, 49t, 55, 188 891–895 Adult polycystic kidney disease (ADPKD), Actinopterigy, 223 1023 Activation gate, 485–486 Aframomum daniellii (aframodial), 46t, 52 Leu681, amino acid residue, 485–486 Aframomum melegueta (Melegueta pepper), Tyr671, ion pathway, 486 45t, 51, 70 Acute myeloid leukaemia and myelodysplastic Agelenopsis aperta (American funnel web syndrome (AML/MDS), 949 spider), 48t, 54 Acylated phloroglucinol hyperforin, 71 Agonist-dependent vasorelaxation, 378 Acylation, 96 Ahern, G. -
Effect of Phytosterol Structure on Thermal Polymerization of Heated Soybean Oil
1068 Eur. J. Lipid Sci. Technol. 2008, 110, 1068–1077 Research Paper Effect of phytosterol structure on thermal polymerization of heated soybean oil Jill Kristine Winkler and Kathleen Warner U.S. Department of Agriculture, Agricultural Research Service, National Center for Agricultural Utilization Research, Peoria, USA* This study determined the effect of phytosterol structure, including the degree of unsaturation and the presence of an ethylidene group in the side chain, on the thermal polymerization of heated soybean oil. Indigenous tocopherols and phytosterols were removed from soybean oil by molecular distillation. Pure phytosterols were added back to the stripped soybean oil at concentrations of 0.5, 1.0, and 5 mg/g oil (0.05, 0.1, and 0.5 wt-%). These oils were heated at 180 7C over a period of 8 h, and triacylglycerol dimers and polymers, fatty acid composition, and residual phytosterol content were determined. None of the phytosterols prevented triacylglycerol dimer and polymer formation when used at 0.5 mg/g; however, phytosterols with two or more double bonds, regardless of the presence of an ethylidene group in the side chain, provided slight protection when added at 1 mg/g. Ergosterol addition at 5 mg/g reduced polymer formation by 16–20% compared to the control oil, but at this level none of the other phytosterols provided protection of any practical significance. Thus, under the conditions used for this heating study, the degree of phytosterol unsaturation was more important for its anti-polymerization activity than the presence of an ethylidene group. Keywords: Ethylidene side chain / Fucosterol / Phytosterols / Thermal polymerization / Vegetable oils Received: April 7, 2008; accepted: June 9, 2008 DOI 10.1002/ejlt.200800089 1 Introduction monly used to reduce the PUFA in these oils, thereby increasing the oil stability for frying. -
Chemistry Inventory; Fall
CHEMISTRY FALL 2005 MSDS Mfg.'s Name Chemical Name Quantity Stored Storage Conditions (on file = 9) Aluminum 9 1.5 kg Aluminum chloride, anhydrous, 98.5% 9 0.2 kg Aluminum chloride · 6H2O 9 0.5 kg Aluminum hydroxide 9 0.5 kg Aluminum nitrate 9 0.5 kg Aluminum sulfate 9 0.5 kg Ammonia, concentrated 9 4.0 L Ammonium acetate 9 0.2 kg Ammonium chloride 9 Ammonium dihydrogen phosphate (monobasic) 9 0.4 kg J.T. Baker Ammonium hydrogen phosphate (dibasic) No 0.5 kg Ammonium nitrate 9 2.5 kg Ammonium oxalate 9 0.7 kg Ammonium peroxydisulfate 9 0.5 kg Ammonium sulfate 9 0.2 kg Antimony 9 0.4 kg Barium chloride, anhydrous 9 2.5 kg Barium chloride · 2H2O 9 2.5 kg Barium nitrate 9 0.8 kg Bismuth 9 2.0 kg Boric Acid 9 0.4 kg Brass 9 Bromine 9 2.5 kg Cadmium 9 0.1 kg Cadmium nitrate 9 0.3 kg Calcium acetate · xH2O 9 0.5 kg Calcium carbide 9 1.0 kg Calcium carbonate 9 2.2 kg Calcium chloride 9 1.0 kg Calcium hydroxide 9 0.3 kg Calcium nitrate · 4H2O 9 1.0 kg Calcium oxide 9 0.3 kg Calcium sulfate · 2H2O 9 1.0 kg Carbon 9 0.1 kg Ceric ammonium nitrate 9 0.5 kg Cesium chloride 9 0.01 kg Chromium 9 0.01 kg Chromium chloride 9 0.5 kg Chromium nitrate 9 0.5 kg Cobalt 9 0.025 kg Cobalt chloride 9 0.7 kg Cobalt nitrate 9 0.6 kg Copper (assorted) 9 4.0 kg Copper acetate 9 0.05 kg Copper chloride 9 0.1 kg Copper nitrate 9 3.5 kg Copper oxide 9 0.4 kg Cupric sulfate, anhydrous 9 0.5 kg Cupric sulfate · 5H2O 9 2.75 kg EDTA 9 0.6 kg Iodine 9 2.0 kg Iron (assorted) 9 5.0 kg MSDS Mfg.'s Name Chemical Name Quantity Stored Storage Conditions (on file = 9) Ferric ammonium