Fisher Chemical Expands Production Services

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Fisher Chemical Expands Production Services Fisher Chemical offers production services on additional products for regulated and non-regulated markets. Trust Fisher Chemical to assure each ingredient in your bench to production work flow is manufactured under a detailed and robust quality management program. • GMP compliant controls • FDA registered facilities • Complete management of change notification controls (MOC) for non-regulated and regulated products • Qualified supply chain management • Full range of products including multicompendial, solvents, buffering salts, biological buffers and solutions. • Custom pack sizes and testing available • On demand Certificate of Analysis Choose Fisher Chemical. It Matters. GMP products available in USP, Reagent and ACS grades Ammonium Sulfate Potassium Hydroxide 45% solution Ascorbic Acid Potassium Hydroxide, Pellets Barium Chloride Potassium Iodide Calcium Carbonate Potassium Phosphate, Dibasic Calcium Chloride, Dihydrate Potassium Phosphate, Monobasic Citric Acid 50% Solution Propylene Glycol Citric Acid, Anhydrous Sodium Acetate, Anhydrous Citric Acid, Monohydrate Sodium Acetate, Trihydrate Dextrose, Anhydrous Sodium Bicarbonate EDTA Disodium, Dihydrate Sodium Carbonate, Anhydrous Formaldehyde 37% Sodium Carbonate, Monohydrate Glycerin Sodium Chloride Glycine Sodium Citrate, Dihydrate Hydrochloric Acid Sodium Hydroxide 50% solution Lactose, Monohydrate Sodium Hydroxide, Pellets Magnesium Chloride, 6-hydrate Sodium Hypochlorite Magnesium Sulfate, 7-hydrate Sodium Iodide Magnesium Sulfate, Anhydrous Sodium Phosphate, Dibasic, 7-hydrate Maltose Sodium Phosphate, Dibasic, Anhydrous Mannitol Sodium Phosphate, Monobasic, Monohydrate Phosphoric Acid Sodium Sulfate, Anhydrous Polysorbate 80 Sodium Sulfate, Anhydrous, 12-60 mesh Potassium Acetate Sucrose Potassium Bromide Sulfuric Acid Potassium Carbonate, Anhydrous Water Potassium Chloride For a complete list of GMP products, please contact your sales representative. Non-Regulated Products with Complete Traceability and Documentation Available in USP, HPLC, ACS and other grades 2 Propanol Hydrobromic Acid Sodium Acetate Acetic Anhydride Hydrogen Bromide Sodium Bicarbonate Acetone Hydrogen Peroxide Sodium Carbonate Acetonitrile Iodine Sodium Chloride Alchohol Iso Octane Sodium Chloride Ascorbic Acid Isopropanol Sodium Citrate Barium Sulfate L-Tartaric Acid Sodium Hydroxide Boric Acid Magnesium Oxide Sodium Lauryl Sulfate Calcium Carbonate Magnesium Sterate Sodium Phosphate Calcium Phosphate Magnesium Sulfate Sucrose Citric Acid Methanol Tetrahydrofuran Copper II Sulfate Methyl Isobutyl Ketone Toluene Cyclohexane Mineral Oil Triethylamine Dextrose Morpholine Tris Dibutylamine N-Butyl Acetate Urea Dicholoroethane N-Heptane Xylenes Diethyl ether N-Hexane Zinc Chloride D-Mannitol N-Pentane Zinc Oxide EDTA O-Xylene Ethanol Paraffin Oil Ethyl Acetate Petroleum Ether Ethyl Alcohol Potassium Citrate Formaldehyde Potassium Hydroxide Formic Acid Potassium Iodide Glycerol Propylene Glycol Glycine Pyridine Gylcerin Saccharin Sodium Heptane Salicylic Acid Hexane Silver Nitrate For a complete list of products, please contact your sales representative. BN0212147 .

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Magnesium Sulfate
MAGNESIUM SULFATE Prepared at the 68th JECFA (2007), published in FAO JECFA Monographs 4 (2007), superseding the specifications prepared at the 63rd JECFA (2004) and published the Combined Compendium of Food Additive Specifications, FAO JECFA Monographs 1 (2005). An ADI “not specified” was established at the 68th JECFA (2007). SYNONYMS Epsom salt (heptahydrate); INS No.518 DEFINITION Magnesium sulfate occurs naturally in sea water, mineral springs and in minerals such as kieserite and epsomite. It is recovered from them or by reacting sulfuric acid and magnesium oxide. It is produced with one or seven molecules of water of hydration or in a dried form containing the equivalent of between 2 and 3 waters of hydration. Chemical names Magnesium sulfate C.A.S. number Monohydrate: 14168-73-1 Heptahydrate: 10034-99-8 Dried: 15244-36-7 Chemical formula Monohydrate: MgSO4.H2O Heptahydrate: MgSO4.7H2O Dried: MgSO4.xH2O, where x is the average hydration value (between 2 and 3) Formula weight Monohydrate: 138.38 Heptahydrate: 246.47 Assay Not less than 99.0 % and not more than 100.5% on the ignited basis DESCRIPTION Colourless crystals, granular crystalline powder or white powder. Crystals effloresce in warm, dry air. FUNCTIONAL USES Nutrient; flavour enhancer; firming agent; and processing aid (fermentation aid in the production of beer and malt beverages) CHARACTERISTICS IDENTIFICATION Solubility (Vol. 4) Freely soluble in water, very soluble in boiling water, and sparingly soluble in ethanol. Test for magnesium (Vol. 4) Passes test Test for sulfate (Vol. 4) Passes test PURITY Loss on ignition (Vol. 4) Monohydrate: between 13.0 and 16.0 %, Heptahydrate: between 40.0 and 52.0 %, Dried: between 22.0 and 32.0 % (105°, 2h, then 400° to constant weight) pH (Vol.
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Mechanosynthesis of Magnesium and Calcium Salt?Urea Ionic Cocrystal
Letter pubs.acs.org/journal/ascecg Mechanosynthesis of Magnesium and Calcium Salt−Urea Ionic Cocrystal Fertilizer Materials for Improved Nitrogen Management Kenneth Honer, Eren Kalfaoglu, Carlos Pico, Jane McCann, and Jonas Baltrusaitis* Department of Chemical and Biomolecular Engineering, Lehigh University, B336 Iacocca Hall, 111 Research Drive, Bethlehem, Pennsylvania 18015, United States *S Supporting Information ABSTRACT: Only 47% of the total fertilizer nitrogen applied to the environment is taken up by the plants whereas approximately 40% of the total fertilizer nitrogen lost to the environment reverts back into unreactive atmospheric dinitrogen that greatly aﬀects the global nitrogen cycle including increased energy consumption for NH3 synthesis, as well as accumulation of nitrates in drinking water. In this letter, we provide a mechanochemical method of inorganic magnesium and calcium salt−urea ionic cocrystal synthesis to obtain enhanced stability nitrogen fertilizers. The solvent-free mechanochemical synthesis presented can result in a greater manufacturing process sustainability by reducing or eliminating the need for solution handling and evaporation. NH3 emission testing suggests that urea ionic cocrystals are capable of decreasing NH3 emissions to the environment when compared to pure urea, thus providing implications for a sustainable global solution to the management of the nitrogen cycle. KEYWORDS: Fertilizers, Nitrogen, urea, Mechanochemistry, Cocrystal, pXRD, NH3 Emissions, Stability ■ INTRODUCTION ammonia as opposed to up to 61.1% of soil treated with urea 7,8 ﬁ only, which suggests that major improvements to the global Atmospheric dinitrogen, N2, xation to synthesize ammonia, 9,10 ’ 1 nitrogen cycle are achievable. Additionally, urea molecular NH3, consumes more than 1% of the world s primary energy.
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The Importance of Minerals in the Long Term Health of Humans Philip H
The Importance of Minerals in the Long Term Health of Humans Philip H. Merrell, PhD Technical Market Manager, Jost Chemical Co. Calcium 20 Ca 40.078 Copper 29 Cu 63.546 Iron Magnesium 26 12 Fe Mg 55.845 24.305 Manganese Zinc 25 30 Mn Zn 55.938 65.380 Table of Contents Introduction, Discussion and General Information ..................................1 Calcium ......................................................................................................3 Copper .......................................................................................................7 Iron ...........................................................................................................10 Magnesium ..............................................................................................13 Manganese ..............................................................................................16 Zinc ..........................................................................................................19 Introduction Daily intakes of several minerals are necessary for the continued basic functioning of the human body. The minerals, Calcium (Ca), Iron (Fe), Copper (Cu), Magnesium (Mg), Manganese (Mn), and Zinc (Zn) are known to be necessary for proper function and growth of the many systems in the human body and thus contribute to the overall health of the individual. There are several other trace minerals requirements. Minimum (and in some cases maximum) daily amounts for each of these minerals have been established by the Institute of
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Sulfate Resistance Study of Carbonated Low-Calcium Silicate Systems
Sixth International Conference on Durability of Concrete Structures Paper Number PSE12 18 - 20 July 2018 University of Leeds, Leeds, West Yorkshire, LS2 9JT, United Kingdom Sulfate Resistance Study of Carbonated Low-Calcium Silicate Systems R. Tokpatayeva and J. Olek Lyles School of Civil Engineering, Purdue University, West Lafayette, IN, USA J. Jain, A. Seth and N. DeCristofaro Solidia Technologies Inc., Piscataway, NJ, USA ABSTRACT This paper summarizes the results of sulfate resistance study of carbonated mortar specimens made with Solidia Cement (SC) and tested for expansion according to ASTM C1012 specification while exposed to three types of soak solutions: sodium sulfate, magnesium sulfate and deionized water. A control set of ordinary portland cement (OPC) mortars was also evaluated. Besides the length change measurements, visual observations of changes in the appearance of specimens were conducted after various lengths of exposure. In addition, microstructural characterization of the specimens was conducted using scanning electron microscopy (SEM), X-ray diffraction (XRD) and thermo-gravimetric analysis (TGA) techniques. Finally, changes in the concentration of the chemical species present in the soak solutions in contact with the SC specimens were evaluated using both, the ion chromatography (IC) and the inductively coupled plasma optical emission spectrometry (ICP-OES). As expected, the OPC mortar specimens started deteriorating early and reached the critical (i.e.0.1%) level of expansion in about 4 months in case of sodium sulfate solution and in about 6 months in case of magnesium sulfate solution. With respect to the SC mortar specimens, those exposed to magnesium sulfate solution showed higher expansion than those exposed to sodium sulfate solution.
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Managing Ferret Toxicoses J
CLINICIAN’S NOTEBOOK Managing Ferret Toxicoses J. RICHARDSON AND R. BALABUSZKO Jill A. Richardson, DVM, Dipl ACFE ASPCA National Animal Poison Control Center 1717 South Philo Road Suite 36 Urbana, Illinois 61802 [email protected] FERRETS ARE EXTREMELY CURIOUS and adept at accessing areas where PRACTICE TIP baits, cleaners, chemicals and medica- Rachel A. Balabuszko, CVT tions are stored. Ferrets can even pry ASPCA National Animal Poison caps from child-resistant bottles or Control Center chew through heavy plastic contain- ers. Products such as antifreeze, Dr. Jill A. Richardson received her DVM flavored medications or pest control degree from Tuskegee University in baits have an appealing taste. Because 1994. In 1996, following experience in the average weight of the adult ferret small animal practices in Tennessee and is less than 2 kg, even small amounts in West Virginia, Dr. Richardson joined of toxins can be dangerous when the ASPCA National Animal Poison ingested. Therefore, prompt treatment Control Center as a Veterinary Poison of toxicoses is essential. Information Specialist. Rachel Balabuszko, CVT, joined the In cases of oral exposure, ferrets have ASPCA National Animal Poison Control the ability to vomit. However, the Center as a Certified Veterinary length of time since ingestion of the Ferrets can be restrained by scruffing Technician in 1998, after receiving her toxicant, the ferret’s age, its previous the loose skin on the back of the neck. associate degree in veterinary technol- medical history, and the type of ogy from Parkland College. poison ingested all affect the decision to induce emesis. Tom Schaefges Photography Sidney, Illinois [email protected] EXOTIC DVM VOLUME 2.4 2000 23 CLINICIAN’S NOTEBOOK STEPS IN MANAGING FERRET TOXICOSES START ASSESS THE SITUATION STABILIZE THE FERRET ✖ Is the ferret seizuring? ✖ Administer oxygen if necessary ✖ Is the ferret breathing? ✖ Control seizures ✖ What is the heart rate? ✖ Correct any cardiovascular ✖ What color are the mucous abnormality membranes? Table 1.
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Magnesium Sulfate for Neuroprotection Practice Guideline
[Type text] [Type text] Updated June 2013 Magnesium Sulfate for Neuroprotection Practice Guideline I. Background: Magnesium sulfate has been suggested to have neuro-protective effect in retrospective studies from 1987 and 1996. Since that time three randomized control trials have been performed to assess magnesium therapy for fetal neuroprotection. These studies have failed to demonstrate statistically significant decrease in combined outcome of cerebral palsy and death or improved overall neonatal survival. However, these results did demonstrate a significant decrease in cerebral palsy of any severity by 30%, particularly moderate-severe cerebral palsy (40-45%). The number needed to treat at less than 32 weeks gestation is 56. The presumptive mechanism of action for magnesium sulfate focuses on the N-methyl-D-aspartate receptor. Additional magnesium effects include calcium channel blockade resulting in cerebrovascular relaxation and magnesium mediated decreases in free radical production and reductions in the production of inflammatory cytokines. Magnesium sulfate should not be used as a tocolytic simply because of the potential for neuro-protective effects. In a recent committee opinion, ACOG states “the available evidence suggests that magnesium sulfate given before anticipated early preterm birth reduces the risk of cerebral palsy in surviving infants” but specific guidelines should be established. “The U.S. FDA has recently changed the classification of magnesium sulfate injection from Category A to Category D. However, this change was based on a small number of neonatal outcomes in cases in which the average duration of exposure was 9.6 weeks. The ACOG Committee on Obstetric Practice and the Society for Maternal-Fetal Medicine continue to support the use of magnesium sulfate in obstetric care for appropriate conditions and for appropriate, short term (usually less than 48 hours) durations of treatment.” II.
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Disposal of Solid Chemicals in the Normal Trash
Disposal of Solid Chemicals in the Normal Trash Many solid chemicals can be safety discarded into the normal trash, provided they are in containers that are not broken or cracked and have tightly fitting caps. These chemicals are considered acceptable for ordinary disposal because they display none of the properties of hazardous waste, are of low acute toxicity, and have not been identified as having any chronic toxic effects as summarized in the National Institute of Occupational Safety and Health (NIOSH) “Registry of Toxic Effects of Chemical Substances”. Examples of chemicals acceptable for disposal as regular trash are listed below. To dispose of these chemicals, place the containers in a box lined with a plastic bag, tape the top of the box shut, write “Normal Trash” on the box and then place the box next to the lab trash container. Only solid forms of these chemicals can be disposed in this manner. Any questions about these chemicals or other chemicals that may be disposed of in the normal trash should be directed to the Hazardous Materials Technician (610) 330-5225. Chemicals Generally Acceptable for Disposal as Regular Trash Acacia powder, gum Detergent (most) Methyl salicylate Sodium carbonate arabic Cation exchange resins Methylene blue Sodium chloride Acid, Ascorbic Chromatographic Methyl stearate Sodium citrate Acid, Benzoic absorbents Nutrient agar Sodium dodecyl sulfate Acid, Boric Crystal violet Octacosane (SDS) Acid, Casamind Dextrin Parafin Sodium formate Acid, Citric Dextrose Pepsin Sodium iodide Acid, Lactic Diatomaceous
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Magnesium Sulfate
MODULE III MAGNESIUM SULFATE Manual for Procurement & Supply of Quality-Assured MNCH Commodities MAGNESIUM SULFATE INJECTION, 500 MG/ML IN 2-ML AND 10-ML AMPOULE GENERAL PRODUCT INFORMATION Pre-eclampsia and eclampsia is the second-leading cause of maternal death in low- and middle-income countries. It is most often detected through the elevation of blood pressure during pregnancy, which can be followed by seizures, kidney and liver damage, and maternal and fetal death, if untreated. Magnesium sulfate is recognized by WHO as the safest, most effective, and lowest-cost medicine for treating pre-eclampsia and eclampsia. It is also considered an essential medicine by the UN Commission on Life-Saving Commodities for Women and Children. Other anticonvulsant medicines, such as diazepam and phenytoin, are less effective and riskier. Magnesium sulfate should be the sole first-line treatment of pre-eclampsia and eclampsia that should be procured over other anticonvulsants and made available in all health facilities to help lower maternal death rates and improve overall maternal health. MSꟷ1 | Manual for Procurement & Supply of Quality-Assured MNCH Commodities Magnesium Sulfate KEY CONSIDERATIONS IN PROCUREMENT Procurement should be made from trusted sources. This includes manufacturers prequalified by WHO or approved by a SRA for magnesium sulfate injection and 1. those with a proven record of quality products. Procurers need to focus on product quality to ensure that it is sterile and safe for patient use as magnesium sulfate is an injectable medicine. 2. KEY QUALITY CONSIDERATIONS Product specification Products that are procured must comply with pharmacopoeial specifications, such as those of the International Pharmacopoeia, US Pharmacopoeia, and British Pharmacopoeia, as detailed in the “Supply” section 4 below.
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Plant Health Solutions
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Calcium Carbonate Dissolution and Precipitation in Water: Factors Affecting the Carbonate Saturometer Method
Utah State University DigitalCommons@USU All Graduate Theses and Dissertations Graduate Studies 5-1971 Calcium Carbonate Dissolution and Precipitation in Water: Factors Affecting the Carbonate Saturometer Method Lyle M. Dabb Utah State University Follow this and additional works at: https://digitalcommons.usu.edu/etd Part of the Chemistry Commons, and the Soil Science Commons Recommended Citation Dabb, Lyle M., "Calcium Carbonate Dissolution and Precipitation in Water: Factors Affecting the Carbonate Saturometer Method" (1971). All Graduate Theses and Dissertations. 2991. https://digitalcommons.usu.edu/etd/2991 This Thesis is brought to you for free and open access by the Graduate Studies at DigitalCommons@USU. It has been accepted for inclusion in All Graduate Theses and Dissertations by an authorized administrator of DigitalCommons@USU. For more information, please contact [email protected]. ACKNOWLEDGMENTS I would like to thank Dr. Jerome J . Jurinak for his patience and guidance during my classwork and lab experiments. I would also like t o thank Dr . R. L . Smith and Dr. H. B. Petersen for serving as committee members. I thank Robert A. Griffin and Dr. Sung-Ho Lai for their friendship, help, and encouragement. I thank Dr. John J. Hassett for his help when I started this research. Pa rtial support of this study by the Federal Water Quality Admin- istration is gr atefully acknowledged. I thank my wife, Sandy, for keeping our horne affairs running so smoothly and for her understanding and patience. ¥ m fJJt- Lyle M. Dabb TABLE OF CONTENTS Page INTRODUCTION 1 REVIEW OF LITERATURE 3 METHODS AND MATERIALS RESULTS AND DISCUSSION 10 EIGHT NATURAL WATERS FROM VERNAL, UTAH 31 SUMMARY AND CONCLUSIONS .
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Solid Chemicals for the Normal Trash
SOLID CHEMICALS FOR THE NORMAL TRASH Solid chemicals acceptable for disposal as regular trash are listed below: Acacia powder, gum arabic Calcium silicate Manganese sulfate Acid, Ascorbic Calcium sulfate Methyl red Acid, Benzoic Detergent (most) Methyl salicylate Acid, Boric Cation exchange resins Methylene blue Acid, Casamind Crystal violet Methyl stearate Acid, Citric Dextrin Nutrient agar Acid, Lactic Dextrose Octacosane Acid, Oleic Diatomaceous earth Parafin Acid, Phthalic Docosanoic acid Pepsin Acid, Salicycle Drierite (calcium sulfate, anhydrous) Peptone Acid, Silicic Ferric oxide Petroleum jelly Acid, Stearic Ferric phosphate Polyethylene, solid Acid, Succinic Ferric pyrophosphate Polystryene Acid, Tartaric Ferric sulfate Potassium acetate Acrylamide gels Ferrous ammonium sulfate Potassium bicarbonate Agar(s) Galactose Potassium bromide Albumen Geletin Potassium carbonate Alumina Gum arabic Potassium chloride Aluminum oxide Gum guaiac Potassium citrate Amino acids, naturally occurring Hexadecanol, 1- Potassium ferricyanide Ammonium bicarbonate Kaolin Potassium iodide Ammonium phosphate Lactose Potassium phosphate Ammonium sulfate Lanolin Potassium sodium tartrate Ammonium sulfamate Lauric acid Potassium sulfate Base, blood agar Lauryl sulfate Potassium sulfite Beef extract Lithium carbonate Potassium sulfocyanate Behenic acid Lithium chloride Pumice Bentonite Lithium sulfate Salts, naturally occurring Brain heart infusion Litmus Sand Bromphenol blue Magnesium carbonate Silica Broth, nutrient Magnesium chloride Silica gel, unused
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Magnesium Sulfate in 5% Dextrose Injection, Usp
MAGNESIUM SULFATE IN 5% DEXTROSE INJECTION, USP Flexible Plastic Container For Intravenous Use Only Rx only DESCRIPTION Magnesium Sulfate in 5% Dextrose Injection, USP is a sterile, nonpyrogenic solution of magnesium sulfate heptahydrate and dextrose in water for injection. Each 100 mL contains 1 or 2 g magnesium sulfate heptahydrate and dextrose, hydrous 5 g in water for injection. May contain sulfuric acid and/or sodium hydroxide for pH adjustment. The pH is 4.5 (3.5 to 6.5). It is available in 1% and 2% concentrations. See HOW SUPPLIED section for the content and characteristics of available dosage forms and sizes. Magnesium Sulfate, USP heptahydrate is chemically designated MgSO4 • 7H2O, colorless crystals or white powder freely soluble in water. Dextrose, USP is chemically designated D-glucose, monohydrate (C6H12O6 • H2O), a hexose sugar freely soluble in water. It has the following structural formula: Molecular weight 198.17. Water for Injection, USP is chemically designated H2O. The flexible plastic container is fabricated from a specially formulated polyvinylchloride. Water can permeate from inside the container into the overwrap but not in amounts sufficient to affect the solution significantly. Solutions in contact with the plastic container may leach out certain chemical components from the plastic in very small amounts; however, biological testing was supportive of the safety of the plastic container materials. Exposure to temperatures above 25°C/77°F during transport and storage will lead to minor losses in moisture content. Higher temperatures lead to greater losses. It is unlikely that these minor losses will lead to clinically significant changes within the expiration period.
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