Toxic and Chemical Waste
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Safe Use of Wastewater in Agriculture: Good Practice Examples
SAFE USE OF WASTEWATER IN AGRICULTURE: GOOD PRACTICE EXAMPLES Hiroshan Hettiarachchi Reza Ardakanian, Editors SAFE USE OF WASTEWATER IN AGRICULTURE: GOOD PRACTICE EXAMPLES Hiroshan Hettiarachchi Reza Ardakanian, Editors PREFACE Population growth, rapid urbanisation, more water intense consumption patterns and climate change are intensifying the pressure on freshwater resources. The increasing scarcity of water, combined with other factors such as energy and fertilizers, is driving millions of farmers and other entrepreneurs to make use of wastewater. Wastewater reuse is an excellent example that naturally explains the importance of integrated management of water, soil and waste, which we define as the Nexus While the information in this book are generally believed to be true and accurate at the approach. The process begins in the waste sector, but the selection of date of publication, the editors and the publisher cannot accept any legal responsibility for the correct management model can make it relevant and important to any errors or omissions that may be made. The publisher makes no warranty, expressed or the water and soil as well. Over 20 million hectares of land are currently implied, with respect to the material contained herein. known to be irrigated with wastewater. This is interesting, but the The opinions expressed in this book are those of the Case Authors. Their inclusion in this alarming fact is that a greater percentage of this practice is not based book does not imply endorsement by the United Nations University. on any scientific criterion that ensures the “safe use” of wastewater. In order to address the technical, institutional, and policy challenges of safe water reuse, developing countries and countries in transition need clear institutional arrangements and more skilled human resources, United Nations University Institute for Integrated with a sound understanding of the opportunities and potential risks of Management of Material Fluxes and of Resources wastewater use. -
Notobaccolitter.Com
NEWSLETTER ARTICLE Possible Headlines: Tobacco Litter is More Than Just an Eyesore Tobacco Litter is Toxic Waste Tobacco Toxins Get Into More Than Just Your Lungs Take a short walk down the street, through a park or a beach and you’re bound to see it… cigarette butts, cigar tips, even cellophane wrappers and packaging, also known as…tobacco litter. Environmental cleanups consistently report cigarette butts as the number one picked up item. More than 12,000 cigarette butts were collected along Maryland beaches during a recent International Coastal Cleanup. Many people don’t see cigarette butts as litter and don’t realize their toxicity – leading some people to believe disposing of their tobacco on the ground is harmless. The truth is cigarette toxins get into more than just our lungs. Cigarette filters contain cellulose acetate – a plastic material that makes butts slow to degrade, if they degrade at all. Tobacco litter is more than just an eyesore; it’s toxic waste leaching heavy metals and chemicals such as lead and cyanide into our environment, poisoning our water and our communities where we live, work, and play. Tobacco litter is an issue that deserves increased awareness to promote healthy and safe communities. Help raise awareness about the toxic tobacco litter problem and provide another good reason to quit smoking or not start at all—for the health of your lungs, your community, and the environment! For more information on the toxicity of tobacco litter and ways you can help, visit: www.NoTobaccoLitter.com. If you or a loved one are ready to quit tobacco use, call 1-800-QUIT-NOW or visit: www.SmokingStopsHere.com. -
Mining's Toxic Legacy
Mining’s Toxic Legacy An Initiative to Address Mining Toxins in the Sierra Nevada Acknowledgements _____________________________ ______________________________________________________________________________________________________________ The Sierra Fund would like to thank Dr. Carrie Monohan, contributing author of this report, and Kyle Leach, lead technical advisor. Thanks as well to Dr. William M. Murphy, Dr. Dave Brown, and Professor Becky Damazo, RN, of California State University, Chico for their research into the human and environmental impacts of mining toxins, and to the graduate students who assisted them: Lowren C. McAmis and Melinda Montano, Gina Grayson, James Guichard, and Yvette Irons. Thanks to Malaika Bishop and Roberto Garcia for their hard work to engage community partners in this effort, and Terry Lowe and Anna Reynolds Trabucco for their editorial expertise. For production of this report we recognize Elizabeth “Izzy” Martin of The Sierra Fund for conceiving of and coordinating the overall Initiative and writing substantial portions of the document, Kerry Morse for editing, and Emily Rivenes for design and formatting. Many others were vital to the development of the report, especially the members of our Gold Ribbon Panel and our Government Science and Policy Advisors. We also thank the Rose Foundation for Communities and the Environment and The Abandoned Mine Alliance who provided funding to pay for a portion of the expenses in printing this report. Special thanks to Rebecca Solnit, whose article “Winged Mercury and -
The Complete Chemical Storage Guide for Wastewater Treatment
The Complete Chemical Storage Guide for Wastewater Treatment How to build effective storage solutions for chemicals commonly used in the wastewater treatment process Introduction In addition to physical treatment (such as screening and filtering processes) and biological treatment (which includes oxidation ponds and lagoons), chemicals are essential in wastewater treatment. Wastewater treatment requires even more aggressive usage and larger amounts of chemicals than municipal drinking water treatment. As a result, proper and safe storage of the chemicals used in the wastewater treatment process is always an important consideration. This guide was developed to address common chemical storage challenges found in wastewater treatment and to provide sensible storage solutions. In the first section, we outline the five steps of a wastewater treatment process, as well as the common chemicals involved in each step. In the second section, you’ll learn more about each chemical, along with its appropriate storage considerations. Contact Us at 877-591-4827 www.polyprocessing.com E-MAIL: [email protected] Table of CONTENTS The Roles of Chemicals in the Wastewater 3 Starting with the Chemical–Tailored Storage for Lifetime Cost Savings 4 Sodium Hypochlorite 5 Sulfuric Acid 6 Ferric Chloride, Aluminum Chloride, and Polymers 7 Sodium Hydroxide 8 Hydrochloric Acid 9 How to Build the Perfect Storage System for Your Wastewater Application 10 About Poly Processing 10 p. 2 The Roles of Chemicals in the Wastewater Treatment Process Removing Solid Particles To facilitate the removal of solid particles within wastewater, chemicals such as ferric chloride, polymers, and alums are used to produce positive charges. These are intended to neutralize negatively charged solid particles. -
Fighting Environmental Racism
FIGHTING ENVIRONMENTAL RACISM: A SELECTED ANNOTATED BIBLIOGRAPHY Irwin Weintraub <[email protected]> Library of Science and Medicine, Rutgers University, P O Box 1029, Piscataway, New Jersey 08855-1029 USA. TEL: 908-932-3526 Introduction Environmental racism can be defined as the intentional siting of hazardous waste sites, landfills, incinerators, and polluting industries in communities inhabited mainly by African-American, Hispanics, Native Americans, Asians, migrant farm workers, and the working poor. Minorities are particularly vulnerable because they are perceived as weak and passive citizens who will not fight back against the poisoning of their neighborhoods in fear that it may jeopardize jobs and economic survival. The landmark study, Toxic Wastes and Race in the United States (Commission for Racial Justice, United Church of Christ 1987), described the extent of environmental racism and the consequences for those who are victims of polluted environments. The study revealed that: Race was the most significant variable associated with the location of hazardous waste sites. The greatest number of commercial hazardous facilities were located in communities with the highest composition of racial and ethnic minorities. The average minority population in communities with one commercial hazardous waste facility was twice the average minority percentage in communities without such facilities. Although socioeconomic status was also an important variable in the location of these sites, race was the most significant even after controlling for urban and regional differences. The report indicated that three out of every five Black and Hispanic Americans lived in communities with one or more toxic waste sites. Over 15 million African-American, over 8 million Hispanics, and about 50 percent of Asian/Pacific Islanders and Native Americans are living in communities with one or more abandoned or uncontrolled toxic waste sites. -
A Superfund Solution for an Economic Love Canal
Pace Law Review Volume 30 Issue 1 Fall 2009 Real Property, Mortgages, and the Economy: A Article 22 Call for Ethics and Reforms September 2009 A Superfund Solution for an Economic Love Canal Mehmet K. Konar-Steenberg William Mitchell College of Law Follow this and additional works at: https://digitalcommons.pace.edu/plr Part of the Banking and Finance Law Commons, and the Property Law and Real Estate Commons Recommended Citation Mehmet K. Konar-Steenberg, A Superfund Solution for an Economic Love Canal, 30 Pace L. Rev. 310 (2009) Available at: https://digitalcommons.pace.edu/plr/vol30/iss1/22 This Article is brought to you for free and open access by the School of Law at DigitalCommons@Pace. It has been accepted for inclusion in Pace Law Review by an authorized administrator of DigitalCommons@Pace. For more information, please contact [email protected]. A Superfund Solution for an Economic Love Canal Mehmet K. Konar-Steenberg* ´7KHUHLVVLPSO\QRJRRGUHDVRQIRUXVWRUHVSRQGWRRQHW\SHRI release of a poison, but not another. The test should not be whether poison was released into river water rather than into well water; or by toxic waste buried in the ground rather than toxic waste discharged to the ground. The test should be whether the poison was released. I assure you that the victim GRHV QRW FDUH WR PDNH WKRVH GLVWLQFWLRQV QRU VKRXOG ZHµ Senator Robert T. Stafford1 Introduction Consider this scenario: A profitable but hazardous LQGXVWU\·V ZRUVW-case risks come to pass. Neighborhoods are boarded-up and residents dislocated. Poor and minority communities are hit particularly hard because they offered the OHDVW UHVLVWDQFH WR WKH LQGXVWU\·V TXHVWLRQDEOH SUDFWLFHV³ practices virtually unregulated by the government and undeterred by the tort system. -
Health Effects of Residence Near Hazardous Waste Landfill Sites: a Review of Epidemiologic Literature
Health Effects of Residence Near Hazardous Waste Landfill Sites: A Review of Epidemiologic Literature Martine Vrijheid Environmental Epidemiology Unit, Department of Public Health and Policy, London School of Hygiene and Tropical Medicine, London, United Kingdom This review evaluates current epidemiologic literature on health effects in relation to residence solvents, polychlorinated biphenyls (PCBs), near landfill sites. Increases in risk of adverse health effects (low birth weight, birth defects, certain and heavy metals, have shown adverse effects types of cancers) have been reported near individual landfill sites and in some multisite studies, on human health or in animal experiments. and although biases and confounding factors cannot be excluded as explanations for these A discussion of findings from either epi findings, they may indicate real risks associated with residence near certain landfill sites. A general demiologic or toxicologic research on health weakness in the reviewed studies is the lack of direct exposure measurement. An increased effects related to specific chemicals is beyond prevalence of self-reported health symptoms such as fatigue, sleepiness, and headaches among the scope of this review. residents near waste sites has consistently been reported in more than 10 of the reviewed papers. It is difficult to conclude whether these symptoms are an effect of direct toxicologic action of Epidemiologic Studies on chemicals present in waste sites, an effect of stress and fears related to the waste site, or an Health Effects of Landfill Sites risks to effect of reporting bias. Although a substantial number of studies have been conducted, The majority of studies evaluating possible is insufficient exposure information and effects health from landfill sites are hard to quantify. -
III . Waste Management
III. WASTE MANAGEMENT Economic growth, urbanisation and industrialisation result in increasing volumes and varieties of both solid and hazardous wastes. Globalisation can aggravate waste problems through grow ing international waste trade, with developing countries often at the receiving end. Besides negative impacts on health as well as increased pollution of air, land and water, ineffective and inefficient waste management results in greenhouse gas and toxic emissions, and the loss of precious materials and resources. Pollution is nothing but An integrated waste management approach is a crucial part of interna- the resources we are not harvesting. tional and national sustainable development strategies. In a life-cycle per- We allow them to disperse spective, waste prevention and minimization generally have priority. The because we’ve been remaining solid and hazardous wastes need to be managed with effective and efficient measures, including improved reuse, recycling and recovery ignorant of their value. of useful materials and energy. — R. Buckminster Fuller The 3R concept (Reduce, Reuse, Recycle) encapsulates well this life-cycle Scientist (1895–1983) approach to waste. WASTE MANAGEMENT << 26 >> Hazardous waste A growing share of municipal waste contains hazardous electronic or electric products. In Europe ewaste is increasing by 3–5 per Hazardous waste, owing to its toxic, infectious, radioactive or flammable cent per year. properties, poses an actual or potential hazard to the health of humans, other living organisms, or the environment. According to UNEP, some 20 to 50 million metric tonnes of e-waste are generated worldwide every year. Other estimates expect computers, No data on hazardous waste generation are available for most African, mobile telephones and television to contribute 5.5 million tonnes to Middle Eastern and Latin American countries. -
Dyes and Pigments Manufacturing Industrial Waste Water Treatment Methodology
International Research Journal of Engineering and Technology (IRJET) e-ISSN: 2395-0056 Volume: 04 Issue: 12 | Dec-2017 www.irjet.net p-ISSN: 2395-0072 DYES AND PIGMENTS MANUFACTURING INDUSTRIAL WASTE WATER TREATMENT METHODOLOGY ROOP SINGH LODHI1, NAVNEETA LAL2 1DEPARTMENT OF CHEMICAL ENGINEERING, UJJAIN ENGINEERING COLLEGE UJJAIN, (M.P.), INDIA 2ASSOCIATE PROFESSOR CHEMICAL ENGINEERING DEPARTMENT UJJAIN ENGINEERING COLLEGE UJJAIN, (M.P.), INDIA ---------------------------------------------------------------------***--------------------------------------------------------------------- ABSTRACT - Chemical coagulation- flocculation was used not defined by this definition of dyes and pigments are called to remove the compounds present in wastewater from dye dyestuffs. Synthetic organic dyestuffs and pigments exhibit manufacturing industry. The character of wastewater was an extremely wide variety of physical, chemical and determined as its contained high ammonia (5712mg/L), COD biological properties, making review of the Eco toxicological (38000mg/L) and Total dissolved solids (56550mg/L) behaviour of the several thousand commercially available concentration. Most compounds found in the wastewater are products difficult, production process are difficult to control ammonia, phenol derivatives, aniline derivatives, organic acid the release of manufacturing material during dye and benzene derivatives output from dyes and pigment manufacturing [1-13]. Industrial waste water is one of the manufacturing industries. Coagulants ferrous sulphate, ferric important pollution sources in the pollution of water, soil chloride, Polly-aluminium chloride, and hydrogen peroxide and environment. It not only affects the ecosystem but also catalysed by ferrous sulphate and flocculants lime and NaOH affects the human life .so it is necessary to treat the waste were investigated. Results showed the combined Fe (III) water before discharging it into the ecosystem by chloride and Polly aluminium chloride with NaOH for considering the financial aspects in mind. -
Chapter 9 Agricultural Waste Management Systems
Part 651 Agricultural Waste Management Field Handbook Chapter 9 Agricultural Waste Management Systems (210–VI–AWMFH, Amend. 47, December 2011) Chapter 9 Agricultural Waste Management Systems Part 651 Agricultural Waste Management Field Handbook Issued December 2011 The U.S. Department of Agriculture (USDA) prohibits discrimination in all its programs and activities on the basis of race, color, national origin, age, disability, and where applicable, sex, marital status, familial status, parental status, religion, sexual orientation, genetic information, political beliefs, reprisal, or because all or a part of an individual’s income is derived from any public assistance program. (Not all prohibited bases apply to all pro- grams.) Persons with disabilities who require alternative means for commu- nication of program information (Braille, large print, audiotape, etc.) should contact USDA’s TARGET Center at (202) 720-2600 (voice and TDD). To file a complaint of discrimination, write to USDA, Director, Office of Civil Rights, 1400 Independence Avenue, SW., Washington, DC 20250–9410, or call (800) 795-3272 (voice) or (202) 720-6382 (TDD). USDA is an equal opportunity provider and employer. (210–VI–AWMFH, Amend. 47, December 2011) Acknowledgments Chapter 9 was originally prepared and printed in 1992 under the direction of James N. Krider (retired), national environmental engineer, Soil Conser- vation Service (SCS), now Natural Resources Conservation Service (NRCS). James D. Rickman (retired), environmental engineer, NRCS, Fort Worth, Texas, provided day-to-day coordination in the development of the hand- book. Authors for chapter 9 included L.M. “Mac” Safley, North Carolina State University, Raleigh, NC; William H. Boyd, environmental engineer, Lincoln, Nebraska; A. -
Chemical Waste Disposal
Unknown Chemical Waste Disposal An unknown is defined as a chemical in an unlabeled container for which the identity is unknown. Federal, state and local regulations specifically prohibit the transportation, storage, or disposal of wastes of unknown identity. In addition, hazardous waste disposal companies will not accept unknowns without proper analysis. Unknown or unlabeled chemicals require analysis prior to disposal Unknown chemicals present serious legal and safety problems for the university. The process for identifying an unknown chemical can be tedious and costly. However, some activities can be done to prevent the generation of an unknown as well as identifying an. Unknown chemicals must be properly identified according to hazard class before proper disposal. The hazards that should be noted include: corrosive, ignitable, oxidizer, reactive, toxic and radioactive. Every effort should be made by laboratory personnel to identify unknown chemicals. Here are a few steps that can be taken to help this effort: 1. Consult with the Principal Investigator (PI) or Supervisor/Manager about the type of work that was being conducted. 2. Ask other laboratory personnel if they are responsible for, or can help identify the unknown chemical. Someone may remember its contents 3. The type of research currently being conducted in the laboratory can provide useful information for making this determination. Eliminating certain chemicals as a possibility helps narrow the problem as well. This is especially important for Mercury, PCB, or dioxin compounds because they must be managed separately from other hazardous waste. 4. Contact groups that previously used the area and see if they can recall the waste’s identity. -
Sewage Sludge and Wastewater for Use in Agriculture
IAEA-TECDOC-971 Sewage sludge and wastewater for use in agriculture Proceedings of consultants meetings organized by the Joint FAO/IAEA Division of Nuclear Techniques in Food and Agriculture and the IAEA Division Physicalof Chemicaland Sciences, and held Vienna,in December5-9 1994 <> INTERNATIONAL ATOMIC ENERGY AGENCY The IAEA does not normally maintain stocks of reports in this series. However, microfiche copies of these reports can be obtained from IN IS Clearinghouse International Atomic Energy Agency Wagramerstrasse 5 P.O. Box 100 A-1400 Vienna, Austria Orders shoul accompaniee db prepaymeny db f Austriao t n Schillings 100, in the form of a cheque or in the form of IAEA microfiche service coupons which may be ordered separately from the INIS Clearinghouse. The originating Sections of this publication in the IAEA were Soil Fertility, Irrigatio Crod nan p Production Section Joint FAO/IAEA Division and Industrial Application Chemistrd san y Section International Atomic Energy Agency Wagramerstrasse5 PO Box 100 A-1400 Vienna, Austria SEWAGE SLUDG WASTEWATED AGRICULTUREN AN I E US R RFO E IAEA, VIENNA, 1997 IAEA-TECDOC-971 ISSN 1011-4289 ©IAEA, 1997 Printed by the IAEA in Austria October 1997 FOREWORD Wastes have been produced by mankind since ancient nomadic tribes settled into villages and started utilizing cultivatinfird ean g land. Archaeological evidence trace practice sth wastf eo e disposal back to antiquity. However, the concept of community-wide systematic collection, treatment, and disposa solif o l d waste wastewated san t evolvno d erdi unti late th le 19th century. The disposal of sewage sludge is a serious problem in many countries due to rapid urbanization Agriculture offers one solution: land application of municipal sewage sludge is practised throughout the world, with beneficial effects on crop yields, soil organic matter, cation exchange capacity, water holding capacit soid yan l fertilit generalym .