Water Health Series Bottled Water Basics
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Arsenic in Drinking Water: What You Need to Know
Arsenic in drinking water: what you need to know Why should I be concerned about arsenic in my drinking water? In Arizona, groundwater can contain arsenic that comes from natural sources, such as rocks and soils, and from human activities such as mining. Short-term exposure to very high doses of arsenic can cause poisoning. Long-term exposure to small doses has been linked to skin changes, cardiovascular effects, and cancer. Whether you are affected depends on how much arsenic you are exposed to and for how long, as well as your sensitivity to arsenic. What level of arsenic in my drinking water is considered safe? The United States Environmental Protection Agency has set the arsenic standard for drinking water at 10 parts per billion (ppb) to protect consumers served by public water systems from the effects of long-term, chronic exposure to arsenic. 10 ppb is roughly equal to 5 teaspoons of ink in an Olympic-sized swimming pool. Read below to learn more about testing and treating your water to reach 10 ppb arsenic or less. How can I learn what level of arsenic is in Arsenic is colorless and tasteless, my drinking water? so you cannot know it is there If you receive water from a municipal or privately-owned unless you test for it. water company, they are required to test your water for arsenic. You should receive an annual water quality report from your water supplier by July 1st of each year. If you drink bottled water, bottled water companies are not required to report results of any water quality testing. -
Sodium Dodecyl Sulfate-Coated Alumina and C18 Cartridge for The
J. Braz. Chem. Soc., Vol. 19, No. 8, 1523-1530, 2008. Printed in Brazil - ©2008 Sociedade Brasileira de Química 0103 - 5053 $6.00+0.00 Article Sodium Dodecyl Sulfate-Coated Alumina and C18 Cartridge for the Separation and Preconcentration of Cationic Surfactants Prior to their Quantitation by Spectrophotometric Method Mohammad Ali Karimi,*,a,b Reza Behjatmanesh-Ardakani,b Ali Aghaei Goudi b and Sara Zali b aDepartment of Chemistry, Faculty of Science, Payame Noor University (PNU), Sirjan, Iran bDepartment of Chemistry, Faculty of Science, Payame Noor University (PNU), Ardakan, Iran Um novo método de extração em fase sólida foi desenvolvido para separar e pré-concentrar traços de tensoativos catiônicos, tais como, brometo de dodeciltrimetilamônio (DTAB), brometo de cetiltrimetilamônio (CTAB) e cloreto de cetilpiridínio (CPC). Esse método é baseado na sorção do tensoativo aniônico (AS−), dodecilssulfato de sódio (SDS), sobre a superfície de γ-alumina, + enquanto um cartucho C18 é utilizado para a pré-concentração dos tensoativos catiônicos (CS ). O método espectrofotométrico, utilizado para a determinação dos tensoativos catiônicos, baseia-se na competição entre o corante catiônico, azul de metileno (MB+), e o CS+, para associação e formação do complexo SDS. O íon complexo formado (MB+) pode ser quantitativamente substituído pelo CS+, levando a um aumento da absorvância medida em 662 nm. Foram estabelecidas ótimas condições experimentais para a separação, pré-concentração e determinação dos tensoativos catiônicos. Sob essas condições otimizadas, realizou-se a pré-concentração (2×) e os resultados mostraram que a determinação do CPC, DTAB e CTAB poderia ser realizada nas faixas de concentração de 1×10-5-2×10-4, 4×10-5-5×10-4 and 5×10-5-5×10-4 mol L-1, respectivamente. -
(WHO) Report on Microplastics in Drinking Water
Microplastics in drinking-water Microplastics in drinking-water ISBN 978-92-4-151619-8 © World Health Organization 2019 Some rights reserved. This work is available under the Creative Commons Attribution-NonCommercial-ShareAlike 3.0 IGO licence (CC BY-NC-SA 3.0 IGO; https://creativecommons.org/licenses/by-nc-sa/3.0/igo). Under the terms of this licence, you may copy, redistribute and adapt the work for non-commercial purposes, provided the work is appropriately cited, as indicated below. In any use of this work, there should be no suggestion that WHO endorses any specific organization, products or services. The use of the WHO logo is not permitted. If you adapt the work, then you must license your work under the same or equivalent Creative Commons licence. If you create a translation of this work, you should add the following disclaimer along with the suggested citation: “This translation was not created by the World Health Organization (WHO). WHO is not responsible for the content or accuracy of this translation. The original English edition shall be the binding and authentic edition”. Any mediation relating to disputes arising under the licence shall be conducted in accordance with the mediation rules of the World Intellectual Property Organization. Suggested citation. Microplastics in drinking-water. Geneva: World Health Organization; 2019. Licence: CC BY-NC-SA 3.0 IGO. Cataloguing-in-Publication (CIP) data. CIP data are available at http://apps.who.int/iris. Sales, rights and licensing. To purchase WHO publications, see http://apps.who.int/bookorders. To submit requests for commercial use and queries on rights and licensing, see http://www.who.int/about/licensing. -
Guide to Good Hygienic Practices for Packaged Water in Europe
Guide to Good Hygienic Practices for Packaged Water In Europe Guide to Good Hygienic Practices for Packaged Water In Europe GUIDE TO GOOD HYGIENIC PRACTICES FOR PACKAGED WATER IN EUROPE TABLE OF CONTENTS INTRODUCTION 6 ACKNOWLEDGMENTS 6 SCOPE OF THE GUIDE 7 STRUCTURE OF THE GUIDE 7 SECTION 1. GENERAL ASPECTS OF QUALITY & FOOD SAFETY MANAGEMENT 8 1.1. Quality and food safety management systems . 9 1.1.1. Basic principles 9 1.1.2. Documentation 9 1.2. Management responsibility . 10 1.2.1. Management commitment and objectives 10 1.2.2. Quality and food safety policy 10 1.2.3. Quality and food safety management systems planning 10 1.2.4. Responsibility, authority and internal and external communication 10 1.2.5. Management review 11 1.3. Resource management . 12 1.3.1. Provision of resources 12 1.3.2. Human resources 12 1.3.3. Infrastructure and work environment 12 1.4. Control of product quality and safety . 13 1.5. Measurements, analysis and improvement . 14 1.5.1. Monitoring and measurement 14 1.5.2. Analysis of data 14 1.5.3. Continual improvement 14 1.6. Product information and consumer awareness . 15 SECTION 2. PREREQUISITE PROGRAMMES - PRPS 16 2.1. Water resources / Water treatments . 17 2.1.1. Resource development 17 2.1.1.1. General requirements 2.1.1.2. Risk assessment 2.1.2. Resource protection 18 2.1.3. Exploitation of the resource 19 2.1.3.1. Technical requirements 2.1.3.2. Point of abstraction 2.1.3.3. Transfer/piping to the filling operation 2.1.3.4. -
Sensitive Determination of Iron in Drinking Water, Mineral Water, Groundwater, and Spring Water Using Rapid Photometric Tests
ENVIRONMENTAL Sensitive Determination of Iron in Drinking Water, Mineral Water, Groundwater, and Spring Water Using Rapid Photometric Tests Katrin Schwind, Application Scientist, Analytical Point-of-Use R&D, [email protected] Gunter Decker, Senior Global Product Manager, Analytical Point-of-Use Analytics | Photometry, [email protected] The quality of drinking water is regulated by a variety The determination of iron using the 1,10-phenanthroline of guidelines, such as the EU Council Directive 98/831,2 method according to APHA 3500-Fe B and DIN 38406-1 and WHO guideline.3 The key principles used to define enables photometric measurement down to a level of these limits consider both health hazards and sensory 0.01 mg/L, which is entirely sufficient for many samples.9 and technical reasons. Iron, for example, does not exhibit a risk for health in concentrations usually found If lower LOQs are required, the triazine method can in drinking water.2,3 However, increased concentrations be chosen. In this method, all iron ions are reduced to of iron result in the formation of iron hydroxide iron (II) ions. These react in a thioglycolate-buffered products, which can form deposits in water pipe medium containing a triazine derivative to form a systems and a brown discoloration of the water.4 red-violet complex, which is subsequently determined photometrically.10 Using a 100 mm cell and the Prove To ensure the supply of clear and colorless water, 600 UV-VIS spectrometer, LOQs for iron as low as country-specific limits have been set for drinking 0.0025 mg/L can be achieved. -
Arsenic in Your Well Water What to Do If Your Well Has Too Much Arsenic
Arsenic in Your Well Water What to do if your well has too much arsenic. Switch to bottled water. Finding out your well water has too much arsenic in it may cause you to worry. There are things you can do to protect your family from arsenic. The first thing to do is switch to bottled water for drinking and for making drinks such as coffee, tea, juice, and infant formula. You can use this tipsheet to help you decide what to do next. Call the Maine CDC at 866-292-3474, tollfree in Maine, or 207-287-4311 to speak to an expert about arsenic in your well water. Is there too much arsenic in your water? Arsenic and Health Your test results will have a number then the In most cases, you can protect yourself if you stop letters "ug/L" or "mg/L." These letters are units of drinking water with too much arsenic in it. People measurement, like pounds and ounces. who drink water with too much arsenic for many years are more likely to get cancer. Arsenic can cause skin, Your water has too much arsenic if your test result bladder, and lung cancer. is above 10 ug/L or 0.01 mg/L. It may cause low birthweight and affect brain If your result is higher than these numbers, follow the development in babies if pregnant women drink water advice below. with too much arsenic in it. Arsenic can also affect If your result is between 10 and 50 ug/L or 0.01 and brain development in young children. -
Minerals in Your Home Activity Book Minerals in Your Home Activity Book
Minerals In Your Home Activity Book Minerals in Your Home Activity Book Written by Ann-Thérèse Brace, Sheila Stenzel, and Andreea Suceveanu Illustrated by Heather Brown Minerals in Your Home is produced by MineralsEd. © 2017 MineralsEd (Mineral Resources Education Program of BC) 900-808 West Hastings St., Vancouver, BC V6C 2X4 Canada Tel. (604) 682-5477 | Fax (604) 681-5305 | Website: www.MineralsEd.ca Introduction As you look around your home, it is important to think of the many things that you have and what are they made from. It’s simple - everything is made from Earth’s natural resources: rocks, soil, plants, animals, and water. They can be used in their natural state, or processed, refined and manufactured by people into other useable things. The resources that grow and can be replaced when they die or are harvested, like plants and animals, are called renewable resources. Those that cannot be regrown and replaced, like rocks, soil and water, are called non-renewable resources. All natural resources are valuable and we must use them conservatively. Mineral resources are natural Earth materials that must be mined from the ground. We use them every day, and they are non- renewable. Some are changed very little before they are used, like the rock granite for example, that is commonly used to make kitchen countertops or tombstones. Other mineral resources, like those that contain useful metals, must be processed to extract the metal ingredient. The metal is then manufactured into different parts of a product, like a toaster or a smartphone. Whether you are practicing violin in your room, eating a meal in the kitchen, watching TV in the living room or brushing your teeth in the bathroom, your daily activities use things that come from mineral resources. -
Guideline on the Quality of Water for Pharmaceutical Use
20 July 2020 EMA/CHMP/CVMP/QWP/496873/2018 Committee for Medicinal Products for Human Use (CHMP) Committee for Medicinal Products for Veterinary Use (CVMP) Guideline on the quality of water for pharmaceutical use Draft agreed by Quality Working Party 7 June 2018 Adopted by CHMP for release for consultation 28 June 2018 Adopted by CVMP for release for consultation 19 July 2018 Start of public consultation 15 November 2018 End of consultation (deadline for comments) 15 May 2019 Agreed by GMDP IWG 5 March 2020 Agreed by BWP 18 March 2020 Agreed by QWP 6 May 2020 Adopted by CHMP for publication 28 May 2020 Adopted by CVMP for publication 18 June 2020 Date for coming into effect 1 February 2021 This guideline replaces the Note for guidance on quality of water for pharmaceutical use (CPMP/QWP/158/01 EMEA/CVMP/115/01) and CPMP Position Statement on the Quality of Water used in the production of Vaccines for parenteral use (EMEA/CPMP/BWP/1571/02 Rev.1). Keywords Guideline, water for injections, purified water, Ph. Eur. Official address Domenico Scarlattilaan 6 ● 1083 HS Amsterdam ● The Netherlands Address for visits and deliveries Refer to www.ema.europa.eu/how-to-find-us An agency of the European Union Send us a question Go to www.ema.europa.eu/contact Telephone +31 (0)88 781 6000 © European Medicines Agency, 2020. Reproduction is authorised provided the source is acknowledged. Guideline on the quality of water for pharmaceutical use Table of contents Executive summary ..................................................................................... 3 1. Introduction (background) ...................................................................... 3 2. Scope....................................................................................................... 4 3. -
Find Your Brand
Find your brand - Ratings for 173 bottled waters The Environmental Working Group rated 173 bottled waters for transparency - what each company is willing to share with you about where their water comes from, how or if it's treated, and how pure it is. More than half of all bottled waters flunked. Bottom line? Drink plenty of water, but avoid bottled water when you can. It pollutes the environment and is often nothing more than tap water. When you must, choose brands with high scores (clear labeling) and advanced treatment. PRODUCT GRADE (Stop & Shop) Acadia Natural F Spring Water (Stop & Shop) Electrolyte Enhanced Water D ! ! (Walgreens) Drinking Water F ! ! (Walgreens) Pure Drinking Water ✓ C ! ! (Walgreens) Spring Water D ! ! 365 Everyday Value Spring Water D ! ! 7 Select Spring Water D ! ! Acqua Panna Natural Spring Water C ! ! Alhambra Crystal-Fresh Purified Water ✓ C ! ! Alhambra Jr. Sport Crystal-Fresh Purified Water ✓ D ! ! American Falls Purified Drinking Water ✓ D ! ! Angel Fire Water Drinking Water F ! ! Aquafina Purified Drinking Water ✓ D ! ! Aquarius Spring! Natural Spring Water C ! ! Archer Farms Natural Spring Water F ! ! Arrowhead Mountain Spring Water C ! ! Athena Purified Water with Minerals Added ✓ F ! ! Atlanta Bread Natural Spring Water D ! ! Belmont Springs Purified Water ✓ C ! ! Big Y Natural Spring Water F ! ! Bristol Farms Drinking Water F ! ! Calistoga Sparkling Mineral Water C ! ! Chukchansi Gold Resort and Casino Purified F ! ! PRODUCT GRADE Drinking Water Ciao Acqua Naturale Natural Spring Water F ! ! Cool -
“Mining” Water Ice on Mars an Assessment of ISRU Options in Support of Future Human Missions
National Aeronautics and Space Administration “Mining” Water Ice on Mars An Assessment of ISRU Options in Support of Future Human Missions Stephen Hoffman, Alida Andrews, Kevin Watts July 2016 Agenda • Introduction • What kind of water ice are we talking about • Options for accessing the water ice • Drilling Options • “Mining” Options • EMC scenario and requirements • Recommendations and future work Acknowledgement • The authors of this report learned much during the process of researching the technologies and operations associated with drilling into icy deposits and extract water from those deposits. We would like to acknowledge the support and advice provided by the following individuals and their organizations: – Brian Glass, PhD, NASA Ames Research Center – Robert Haehnel, PhD, U.S. Army Corps of Engineers/Cold Regions Research and Engineering Laboratory – Patrick Haggerty, National Science Foundation/Geosciences/Polar Programs – Jennifer Mercer, PhD, National Science Foundation/Geosciences/Polar Programs – Frank Rack, PhD, University of Nebraska-Lincoln – Jason Weale, U.S. Army Corps of Engineers/Cold Regions Research and Engineering Laboratory Mining Water Ice on Mars INTRODUCTION Background • Addendum to M-WIP study, addressing one of the areas not fully covered in this report: accessing and mining water ice if it is present in certain glacier-like forms – The M-WIP report is available at http://mepag.nasa.gov/reports.cfm • The First Landing Site/Exploration Zone Workshop for Human Missions to Mars (October 2015) set the target -
40 Common Minerals and Their Uses
40 Common Minerals and Their Uses Aluminum Beryllium The most abundant metal element in Earth’s Used in the nuclear industry and to crust. Aluminum originates as an oxide called make light, very strong alloys used in the alumina. Bauxite ore is the main source aircraft industry. Beryllium salts are used of aluminum and must be imported from in fluorescent lamps, in X-ray tubes and as Jamaica, Guinea, Brazil, Guyana, etc. Used a deoxidizer in bronze metallurgy. Beryl is in transportation (automobiles), packaging, the gem stones emerald and aquamarine. It building/construction, electrical, machinery is used in computers, telecommunication and other uses. The U.S. was 100 percent products, aerospace and defense import reliant for its aluminum in 2012. applications, appliances and automotive and consumer electronics. Also used in medical Antimony equipment. The U.S. was 10 percent import A native element; antimony metal is reliant in 2012. extracted from stibnite ore and other minerals. Used as a hardening alloy for Chromite lead, especially storage batteries and cable The U.S. consumes about 6 percent of world sheaths; also used in bearing metal, type chromite ore production in various forms metal, solder, collapsible tubes and foil, sheet of imported materials, such as chromite ore, and pipes and semiconductor technology. chromite chemicals, chromium ferroalloys, Antimony is used as a flame retardant, in chromium metal and stainless steel. Used fireworks, and in antimony salts are used in as an alloy and in stainless and heat resisting the rubber, chemical and textile industries, steel products. Used in chemical and as well as medicine and glassmaking. -
Usgs Water Data
USGS WATER RESOURCES ONLINE PLACES TO START USGS Water home page http://water.usgs.gov/ USGS Water data page http://water.usgs.gov/data/ USGS Publications Warehouse http://pubs.er.usgs.gov/ USGS National Real-Time Water Quality http://nrtwq.usgs.gov/ USGS Water Science Centers http://xx.water.usgs.gov/ (where “xx” is two-letter State code) USGS WATER DATA NWIS-Web http://waterdata.usgs.gov/ NWIS-Web is the general online interface to the USGS National Water Information System (NWIS). Discrete water-sample and time-series data from 1.5 million sites in all 50 States. Results from 5 million water samples with 90 million water-quality results are available from a wide variety of retrieval methods including standard and customized map interfaces. Time-series retrievals include instantaneous measurements back to October 2007, soon to include the longer historical record. BioData http://aquatic.biodata.usgs.gov/ Access to results from more than 15,000 macroinvertebrate, algae, and fish community samples from more than 2,000 sites nationwide. StreamStats http://streamstats.usgs.gov/ssonline.html A map-based tool that allows users to easily obtain streamflow statistics, drainage-basin characteristics, and other information for user-selected sites on streams. Water Quality Portal http://www.waterqualitydata.us/ A cooperative service sponsored by USGS, EPA, and NWQMC that integrates publicly available water-quality data from the USGS NWIS database and the EPA STORET data warehouse. NAWQA Data Warehouse http://water.usgs.gov/nawqa/data.html A collection of chemical, biological, and physical water quality data used in the National Water Quality Assessment (NAWQA) program, drawn partly from NWIS and BioData.