Safety Data Sheet First Mark Premium All Temp Laundry Detergent
Total Page:16
File Type:pdf, Size:1020Kb

Load more
Recommended publications
-
Sodium Dodecyl Sulfate
Catalog Number: 102918, 190522, 194831, 198957, 811030, 811032, 811033, 811034, 811036 Sodium dodecyl sulfate Structure: Molecular Formula: C12H25NaSO4 Molecular Weight: 288.38 CAS #: 151-21-3 Synonyms: SDS; Lauryl sulfate sodium salt; Dodecyl sulfate sodium salt; Dodecyl sodium sulfate; Sodium lauryl sulfate; Sulfuric acid monododecyl ester sodium salt Physical Appearance: White granular powder Critical Micelle Concentration (CMC): 8.27 mM (Detergents with high CMC values are generally easy to remove by dilution; detergents with low CMC values are advantageous for separations on the basis of molecular weight. As a general rule, detergents should be used at their CMC and at a detergent-to-protein weight ratio of approximately ten. 13,14 Aggregation Number: 62 Solubility: Soluble in water (200 mg/ml - clear, faint yellow solution), and ethanol (0.1g/10 ml) Description: An anionic detergent3 typically used to solubilize8 and denature proteins for electrophoresis.4,5 SDS has also been used in large-scale phenol extraction of RNA to promote the dissociation of protein from nucleic acids when extracting from biological material.12 Most proteins bind SDS in a ratio of 1.4 grams SDS to 1 gram protein. The charges intrinsic to the protein become insignificant compared to the overall negative charge provided by the bound SDS. The charge to mass ratio is essentially the same for each protein and will migrate in the gel based only on protein size. Typical Working Concentration: > 10 mg SDS/mg protein Typical Buffer Compositions: SDS Electrophoresis -
MG HE Liquid Laundry Is Specially Formulated for Front Load High Efficiency Washing Machines
MGMG HEHE LiquidLiquid LaundryLaundry Highly-Effective Laundry Detergent MG HE Liquid Laundry is specially formulated for front load high efficiency washing machines. Standard detergents can cause over-sudsing when less water is used, and using less detergent sacrifices cleaning power. MG HE Liquid Laundry provides excellent cleaning with optimal level of sudsing. It is specifically formulated with powerful ingredients to suspend more significant levels of soil. This helps leave your clothes looking bright. • Controlled Foam • Effective in Hard Water • Effective in Cold or Hot Water • Removes Oils, Grease & Fat • Prevents Soil Re-deposition • Easy Rinsing Usage Directions: Sort laundry into similar color, type of fabric and soil condition. When laundering items for the first time, test for colorfastness in a solution of laundry detergent and cold water. Add 2 - 8 ounces of MG HE Liquid Laundry per 100-pound load as the washing machine is filling with water. Clothing and machine manufacturer’s instructions should always take precedence over these recommendations. If desired, MG ChlorSan bleach may be added approximately two minutes after wash cycle begins or MG 7% Fabric Softener may be added to the final rinse. Quantity of MG HE Liquid Laundry used will vary depending on local water conditions, water temperature selected and the amount and type of soils to be removed. Cold water rinsing is recommended for all wash loads. Safety & Hazards MG HE Liquid Laundry Dilution Guidelines Usage Dilution Whites Colorfast Fabrics & 2-8 Oz / 100 Lb Load (Hot Heavy Soils Water) Wear Protective Eye Glasses and Chemical-Resistant Gloves While Using MG HE Liquid Laundry Permanent Press & Special 2-8 Oz / 100 Lb Load (Warm Care Fabrics Water Consult SDS for Further Safety Precautions Colored or Sensitive Fabrics 2-8 Oz / 100 Lb Load (Cold DOT Shipping Name: Not Regulated. -
Revision of Ecolabel Criteria for Laundry Detergents 2008-2010
European Ecolabel ENV.G.2/SER2007/0073rl Commission Decision of 28 April 2011 Revision of Ecolabel Criteria for Laundry Detergents 2008-2010 Background report Prepared by Ecolabelling Denmark This document was last updated February 2011 INDEX 1. SUMMARY ....................................................................... 2 2. MARKET REVIEW ............................................................. 4 2.1. EUROPEAN MARKET FOR LAUNDRY DETERGENTS AND ADDITIVES .................................... 4 2.1.1. Laundry detergents .............................................................................................. 4 2.1.2. Fabric softeners ..................................................................................................... 5 2.1.3. Stain Removers ...................................................................................................... 6 2.2. WASHING HABITS IN EUROPE ............................................................................................. 6 2.3. ECOLABEL LICENSES AND PRODUCTS TODAY ..................................................................... 6 3. PRODUCT GROUP DEFINITION ........................................ 8 4. INTRODUCTION TO REVISED ECOLABEL CRITERIA ....... 10 5. REVISED ECOLABEL CRITERIA ...................................... 13 5.1. REVISED CRITERIA ............................................................................................................. 13 5.1.1. General remarks ................................................................................................. -
CHEMICALS Laundry Detergent/Bleach
Laundry Detergent/Bleach A A. INSTITUTIONAL HEAVY-DUTY DETERGENT CCP A concentrated blend of cleaning agents which will emulsify grease and dirt in either hard or soft water with excellent results. This synthetic detergent formula contains water softening, fabric brighteners, grease emulsifiers and soil suspending agents. 27600119 P550262 50 lb. 1/bx. B. ALL® POWDER LAUNDRY DETERGENT JOHNSON DIVERSEY ALL uses Stainlifters™ to safely lift dirt and stains. All Ultra® Powder Laundry Detergent 15200115 2979267 (100) 2 oz. Box 100/cs. B 15200176 2979304 150 Use 1/ea. All® Concentrated Powder Laundry Detergent 15200112 2979216 50 lb. Concentrated 1/ea. C C. SURF ULTRA® POWDER JOHNSON DIVERSEY LAUNDRY DETERGENT Surf® with Active Oxygen formula lifts dirt and odors while leaving laundry smelling fresh. 15200158 2979814 2 oz. 100/cs. D. TIDE® POWDER LAUNDRY DETERGENT PROCTER & GAMBLE Tide with bleach cleans so well…it’s the only detergent that kills 99.9% of bacteria, including Staphylococcus Aureus, Klebsiella Pneumoniae, E. coli and Salmonella Choleraesuis. Use D one full scoop as directed. Contains a unique activated bleaching system. Removes many tough stains and whitens whites. Helps keep colors bright. Non-phosphate. Harmless to septic tanks. EPA Registration No. 3573-56. 16902370 32370 33 oz. 15/cs. CHEMICALS w/Bleach Contains a unique active bleaching system. Removes many tough stains and whitens whites. Helps keep colors bright. No phosphate. Harmless to septic tanks. Kills 99.9% of bacteria (effective against Staphylococcus Aurius and Klebsiella Pneumoniae; use as directed). 16901801 02370 4 oz. 100/cs. 16900095 40026 8 oz. 14/cs. 16907330 84907330 33 oz. -
Tutorial on Working with Micelles and Other Model Membranes
Tutorial on Working with Micelles and Model Membranes Chuck Sanders Dept. of Biochemistry, Dept. of Medicine, and Center for Structural Biology Vanderbilt University School of Medicine. http://structbio.vanderbilt.edu/sanders/ March, 2017 There are two general classes of membrane proteins. This presentation is on working with integral MPs, which traditionally could be removed from the membrane only by dissolving the membrane with detergents or organic solvents. Multilamellar Vesicles: onion-like assemblies. Each layer is one bilayer. A thin layer of water separates each bilayer. MLVs are what form when lipid powders are dispersed in water. They form spontaneously. Cryo-EM Micrograph of a Multilamellar Vesicle (K. Mittendorf, C. Sanders, and M. Ohi) Unilamellar Multilamellar Vesicle Vesicle Advances in Anesthesia 32(1):133-147 · 2014 Energy from sonication, physical manipulation (such as extrusion by forcing MLV dispersions through filters with fixed pore sizes), or some other high energy mechanism is required to convert multilayered bilayer assemblies into unilamellar vesicles. If the MLVs contain a membrane protein then you should worry about whether the protein will survive these procedures in folded and functional form. Vesicles can also be prepared by dissolving lipids using detergents and then removing the detergent using BioBeads-SM dialysis, size exclusion chromatography or by diluting the solution to below the detergent’s critical micelle concentration. These are much gentler methods that a membrane protein may well survive with intact structure and function. From: Avanti Polar Lipids Catalog Bilayers can undergo phase transitions at a critical temperature, Tm. Native bilayers are usually in the fluid (liquid crystalline) phase. -
Dry Cleaning Calculator Guide
Guide to calculations for ChemTRAC reporting: Dry cleaning facilities Version 1.1 February 2013 Contents How do I use this guide? Part 1 of this guide will help you understand the ChemTRAC program, collect information about your facility, use the ChemTRAC calculator for dry cleaning facilities, and report to ChemTRAC, if needed. Part 2 of this guide will help you reduce your facility’s environmental impact. The Appendices provide additional information about emissions calculations. Part 1: Gathering data, using the calculator, and reporting to ChemTRAC Introduction to the ChemTRAC program ............................................................ 1 The Dry Cleaning Sector ................................................................................... 2 Identifying ChemTRAC substances in dry cleaning facilities .............................. 3 Calculating emissions ........................................................................................ 6 Worksheets for collecting information ................................................................ 7 Interpreting results........................................................................................... 22 Reporting to ChemTRAC ................................................................................. 24 Part 2: Reducing your facility’s environmental impact Pollution prevention strategies ......................................................................... 31 Control technologies for reducing emissions................................................... -
Pediatric Exposure to Laundry Detergent Pods Abstract
ARTICLE Pediatric Exposure to Laundry Detergent Pods AUTHORS: Amanda L. Valdez, BS,a,b Marcel J. Casavant, WHAT’S KNOWN ON THIS SUBJECT: Case studies, abstracts, and MD,c,d Henry A. Spiller, MS, D.ABAT,c,d Thiphalak small-sample research studies have shown that laundry Chounthirath, MS,a Huiyun Xiang, MD, MPH, PhD,a,d and detergent pods pose important poisoning risks to young children. Gary A. Smith, MD, DrPHa,d,e aCenter for Injury Research and Policy at Nationwide Children’s WHAT THIS STUDY ADDS: From 2012 through 2013, 17 230 Hospital, Columbus, Ohio; bUniversity of Washington School of children exposed to laundry detergent pods were reported to US c Medicine, Seattle, Washington; Central Ohio Poison Center, poison control centers. Among children exposed, 4.4% were Columbus, Ohio; dThe Ohio State University College of Medicine, Columbus, Ohio; and eChild Injury Prevention Alliance, Columbus, hospitalized and 7.5% experienced a moderate or major medical Ohio outcome, including 1 confirmed death. KEY WORDS detergent pod, ingestion, NPDS, poisoning, poison control center ABBREVIATIONS AAPCC—American Association of Poison Control Centers NPDS—National Poison Data System abstract PCC—Poison Control Center OBJECTIVE: Mrs Valdez conducted the data analysis, and drafted and revised Laundry detergent pods are a new product in the US mar- the manuscript; Dr Casavant contributed to conceptualization of ketplace. This study investigates the epidemiologic characteristics and the study, assisted in data access and analysis, and critically outcomes of laundry detergent pod exposures among young children in reviewed the manuscript; Drs Spiller and Xiang contributed to the United States. -
Tackling Your Laundry: Let’S Talk Products! Welcome to the Ever Changing World of Laundry Detergents, Stain Removal Products, Fabric Softeners and Dryer Sheets
FRM-AP.017 Tackling Your Laundry: Let’s talk products! Welcome to the ever changing world of laundry detergents, stain removal products, fabric softeners and dryer sheets. Some of today’s choices can become overwhelming. Whatever the product choice, the information in this There are publication should help you keep your laundry room safe. three types of energy Choosing the right laundry detergent Laundry detergents come in many forms, each having its own benefits. needed for Select the form that meets your specific need. good cleaning General purpose detergents Full-strength detergents can be used with many types of fabrics/textiles. results: These products include: Chemical — • High Efficiency (HE) detergents provided by • Ultra detergents detergents • Single-use detergents (pods) and laundry • Fragrance or dye-free detergents • Bar soap aids; • Combination detergents Thermal — provided by Light duty detergents These detergents can be used when washing fabrics by hand or in your the water washing machine. They are used primarily for delicate fabrics, such as those temperature; requiring special care, or lightly-soiled items; ideal for hand washing baby Mechanical clothes. These products include: — provided • Liquid Detergents by the • Powdered Detergents machine agitation. All three need to be considered for best results! Liquid, powders and enzyme detergents Liquid detergents work at all temperatures and are easy to use for pretreating stains. Liquid detergents have an ingredient that helps soften hard water minerals. Ground in dirt and clay are best lifted from soiled laundry with powder detergents using warm to hot water. Protein and oil-based stains are best removed using enzyme detergents. -
Cleaning and Sanitizing I. Cleaning 2 Types Of
Cleaning and Sanitizing CLEANING AND SANITIZING I. CLEANING 2 TYPES OF CLEANING COMPOUNDS 2 PROPERTIES OF A CLEANER 2 FACTORS THAT AFFECT CLEANING EFFICIENCY 2 CLEANING OPERATION 3 II. SANITIZING 4 HEAT 4 CHEMICAL SANITIZERS 5 FACTORS AFFECTING SANITIZING 7 III. DISHWASHING MACHINES 8 HOT WATER SANITIZING 8 CHEMICAL SANITIZING 9 REQUIREMENTS FOR A SUCCESSFUL DISHWASHING OPERATION 10 CHECKING A DISHMACHINE 10 COMMON PROBLEMS 12 IV. DEFINITIONS: 14 V. QUIZ 16 VI. ANSWER KEY TO QUIZ 18 VII. REFERENCES: 18 1 Cleaning and Sanitizing This section is presented primarily for information. The only information the BETC participant will be responsible for is to know the sanitization standards for chemical and hot water sanitizing as found in the Rules for Food Establishment Sanitation. CLEANING AND SANITIZING I. CLEANING Cleaning is a process which will remove soil and prevent accumulation of food residues which may decompose or support the growth of disease causing organisms or the production of toxins. Listed below are the five basic types of cleaning compounds and their major functions: 1. Basic Alkalis - Soften the water (by precipitation of the hardness ions), and saponify fats (the chemical reaction between an alkali and a fat in which soap is produced). 2. Complex Phosphates - Emulsify fats and oils, disperse and suspend oils, peptize proteins, soften water by sequestering, and provide rinsability characteristics without being corrosive. 3 Surfactant - (Wetting Agents) Emulsify fats, disperse fats, provide wetting properties, form suds, and provide rinsability characteristics without being corrosive. 4. Chelating - (Organic compounds) Soften the water by sequestering, prevent mineral deposits, and peptize proteins without being corrosive. -
Linear Alkylbenzene Sulphonate (CAS No
Environmental Risk Assessment LAS Linear Alkylbenzene Sulphonate (CAS No. 68411-30-3) Revised ENVIRONMENTAL Aspect of the HERA Report = February 2013 = 1 1. Contents 2. Executive summary 3. Substance characterisation 3.1 CAS No. and grouping information 3.2 Chemical structure and composition 3.3 Manufacturing route and production/volume statistics 3.4 Consumption scenario in Europe 3.5 Use application summary 4. Environmental safety assessment 4.1 Environmental exposure assessment 4.1.1 Biotic and abiotic degradability 4.1.2 Removal 4.1.3 Monitoring studies 4.1.4 Exposure assessment: scenario description 4.1.5 Substance data used for the exposure calculation 4.1.6 PEC calculations 4.1.7 Bioconcentration 4.2 Environmental effects assessment 4.2.1 Ecotoxicity 4.2.1.1 Aquatic ecotoxicity 4.2.1.2 Terrestrial ecotoxicity 4.2.1.3 Sediment ecotoxicity 4.2.1.4 Ecotoxicity to sewage microorganisms 4.2.1.5 Reassurance on absence of estrogenic effects 4.2.2 PNEC calculations 4.2.2.1 Aquatic PNEC 4.2.2.2 Terrestrial PNEC 4.2.2.3 Sludge PNEC 4.2.2.4 Sediment PNEC 4.2.2.5 STP PNEC 4.3 Environment risk assessment 5. 5. References 6. Contributors to the report 6.1 Substance team 6.2 HERA environmental task force 6.3 HERA human health task force 6.4 Industry coalition for the OECD/ICCA SIDS assessment of LAS 2 2. Executive Summary Linear alkylbenzene sulphonate (LAS) is an anionic surfactant. It was introduced in 1964 as the readily biodegradable replacement for highly branched alkylbenzene sulphonates (ABS). -
Quaternary Ammonium Compositions and Their Uses
Europaisches Patentamt (19) European Patent Office Office europeen des brevets (11) EP 0 726 246 A1 (12) EUROPEAN PATENT APPLICATION (43) Date of publication: (51) |nt. CI.6: C07C 21 1/63, C01 B 33/44, 14.08.1996 Bulletin 1996/33 C1 p 1/62j Q21 C 5/02, (21) Application number: 96101900.7 A61 K 7/50 //C09D7/12 (22) Date of filing: 09.02.1996 (84) Designated Contracting States: • Campbell, Barbara DE DK ES FR GB IT NL Bristol, PA 1 9007 (US) • Chiavoni, Araxi (30) Priority: 10.02.1995 US 385295 Trenton, N J 0861 0 (US) • Magauran, Edward (71 ) Applicant: RHEOX INTERNATIONAL, INC. Westhampton, NJ 08060 (US) Hightstown, New Jersey 08520 (US) (74) Representative: Strehl Schubel-Hopf Groening & (72) Inventors: Partner • Cody, Charles, Dr. Maximilianstrasse 54 Robbinsville, NJ 08691 (US) 80533 Munchen (DE) (54) Quaternary ammonium compositions and their uses (57) Quaternary ammonium compositions are described which are made using diluents including soya bean oil, caster oil, mineral oils, isoparaffin/naphthenic and coconut oil. Such diluents remain as diluents in the final product and generally have a vapor pressure of 1mm of Hg or less at 25°C, and are liquid at ambient temperature. The quaternary/ammonium diluent com- positions have low volatile organic compound emission rates and high flash points, and can be tailored to partic- ular applications. Such applications include use a fabric softeners, cosmetics ingredients, deinking additives, surfactants, and reaction materials in the manufacture of organoclays. < CO CM CO CM o Q_ LU Printed by Rank Xerox (UK) Business Services 2.13.0/3.4 EP 0 726 246 A1 Description BACKGROUND OF THE INVENTION 5 1 . -
Soaps and Detergent Book
,â\ soAPS hù \-.-.1' ¿'>/'--'u\ r *gg, Ç DETERGENTS ,' '.-"- iI ' \' /'l'- ''t "*-**'*o'*q-å- þr,-'- COIUTEIUTS , Cleaning products play an essential role in our daily lives. By safely and effectively removing soils, germs HISTORY .........4 and other contaminants, they help us to stay healthy, I care for our homes and possessions, and make our ì surroundings more pleasant. The Soap and Detergent Association (SDA) recognizes that public understanding of the safety and benefits of cleaning products is critical to their proper use. So we've revised Soaþs and Detergents to feature the most current information in an easy-to-read format. This second edition summarizes key developments in the history of cleaning products; the science of how they work; the procedures used to evaluate their safety for people and the environment; the functions of various products and their ingredients; and the most common manufacturing processes. SDA hopes that consumers, educators, students, media, government officials, businesses and others ñnd Soaps and Detergents avaluable resource of information about cleaning products. o ' \o.-. t ¡: 2nd Edition li¡: orpq¿ The Soap ancl Detergent Association I :. I The Soap an4\Detergent Associatidn ^T',-¡ (\ "i' ) t'l T/ j *.'Ò. t., ,,./-t"'\\\,1 ,,! -\. r'í-\ HISTORY r The earlv Greeks bathed for Ð aesthetié reasons and apparently did not use soap. Instead, they I The origins of personal cleanliness cleaned their bodies with blocks of I date back to prehistoric times. Since clay, sand, pumice and ashes, then water is essential for life, the eadiest anointed themselves with oil, and people lived near water and knew scraped off the oil and dirt with a something about its cleansing 11 Records show that ancient metal instrument known as a strigil.