Ammonia Emissions in Agriculture
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Global Nomads: Techno and New Age As Transnational Countercultures
1111 2 Global Nomads 3 4 5 6 7 8 9 1011 1 2 A uniquely ‘nomadic ethnography,’ Global Nomads is the first in-depth treat- 3111 ment of a counterculture flourishing in the global gulf stream of new electronic 4 and spiritual developments. D’Andrea’s is an insightful study of expressive indi- vidualism manifested in and through key cosmopolitan sites. This book is an 5 invaluable contribution to the anthropology/sociology of contemporary culture, 6 and presents required reading for students and scholars of new spiritualities, 7 techno-dance culture and globalization. 8 Graham St John, Research Fellow, 9 School of American Research, New Mexico 20111 1 D'Andrea breaks new ground in the scholarship on both globalization and the shaping of subjectivities. And he does so spectacularly, both through his focus 2 on neomadic cultures and a novel theorization. This is a deeply erudite book 3 and it is a lot of fun. 4 Saskia Sassen, Ralph Lewis Professor of Sociology 5 at the University of Chicago, and Centennial Visiting Professor 6 at the London School of Economics. 7 8 Global Nomads is a unique introduction to the globalization of countercultures, 9 a topic largely unknown in and outside academia. Anthony D’Andrea examines 30111 the social life of mobile expatriates who live within a global circuit of counter- 1 cultural practice in paradoxical paradises. 2 Based on nomadic fieldwork across Spain and India, the study analyzes how and why these post-metropolitan subjects reject the homeland to shape an alternative 3 lifestyle. They become artists, therapists, exotic traders and bohemian workers seek- 4 ing to integrate labor, mobility and spirituality within a cosmopolitan culture of 35 expressive individualism. -
Table of Contents
editorial note index amber 832, 1028 American Dream 753 American Institute of Architects “a major modification of the human organism, 21 Club 601, 697 (AIA) 106, 150, 695, 816, 858, 869, 1066, namely its ability to pay attention, occurred when 3D printing 114, 159, 1449 2159, 2277 a major cultural innovation, domestication, was 9/11 676, 685, 844, 918–919, 1382, 1387, American Restroom Association adopted. … the house … should be viewed as 1760–1761, 2130 641, 695, 1646 Aalto, Alvar 639, 762, 772–773, 859 American Society of Heating a technical and cognitive instrument, a tool for aboriginal 1058, 1430 Refrigeration and Air Conditioning thought as well as a technology of shelter.” Abraj Al-Bait tower, Mecca 703, 786 Engineers 814, 825, 858 absolutism 900–901 American Society of Mechanical — Peter J. Wilson, The Domestication of Abu Dhabi 125, 480, 537, 1047, 1430, Engineers 290, 380, 2041, 2117 1551, 2288 American Standard 785, 1601, 1624, the Human Species (Yale, 1988). Acconci, Vito 59, 63 1673, 1675, 1680, 2279, 2281, 2286 Ackerman, James 898, 2333 American Standards Association 183 When our species domesticated itself – started acoustics 150, 203, 223, 260–261, Americans with Disabilities Act, living in permanent dwellings rather than 264–265, 267–269, 272, 274, 279, 304, 1990 1648, 1721, 1764 temporary encampments – architecture remade 348, 352, 360, 380, 485, 825, 1150 Ammannati, Bartolomeo 1936, 1963 Acropolis 900 amphitheater 1094, 1166, 1247, 2136, our sensory world in a revolution never seen acrylic 813, 842, 949, 1016, 1394 -
Ammonia Pollution in Northern Ireland No.4
EJNI Briefing Paper Series Northern Ireland Assembly EJNI BRIEFING Ammonia Pollution No.4 November in Northern Ireland 2020 Legal and Policy Considerations Ciara Brennan, Laura Neal, James Orr and Ekaterina Gladkova Ammonia pollution is one of the most serious environmental challenges faced in Northern Ireland. There is a direct link between ammonia pollution and declining environmental quality, in particular the degradation of important habitats which have been designated as internationally significant. Ammonia pollution can also cause harm to human health. Responding to ammonia pollution is controversial in Northern Ireland because this form of pollution is predominantly derived from agricultural activities. This means that there is significant pressure on the farming community to reduce the amount of ammonia produced in order to achieve compliance with an extensive range of legal controls designed to limit emissions. However, rising ammonia levels amidst farming intensification in Northern Ireland have created concerns about the extent to which reduction efforts are working. While restrictions on particularly polluting agricultural activity can be expensive and challenging for farmers to implement, failure to address the growing ammonia crisis will not only lead to further environmental decline and risks to human health, but also has implications for Northern Ireland and the UK’s compliance with a range of legal requirements. This paper will set out some of the central issues associated with ammonia pollution which should be considered as a matter of urgency by the Members of the Northern Ireland Assembly. Northern Ireland is in the midst of an ammonia pollution crisis 1. Ammonia (NH3) is an air pollutant which is known to have a damaging impact on biodiversity as well as human health. -
Lichen Surveys to Investigate Ammonia Impacts
Lichen surveys to investigate ammonia impacts Sam Bosanquet Natural Resources Wales Evidence Report No 298 Date About Natural Resources Wales Natural Resources Wales is the organisation responsible for the work carried out by the three former organisations, the Countryside Council for Wales, Environment Agency Wales and Forestry Commission Wales. It is also responsible for some functions previously undertaken by Welsh Government. Our purpose is to ensure that the natural resources of Wales are sustainably maintained, used and enhanced, now and in the future. We work for the communities of Wales to protect people and their homes as much as possible from environmental incidents like flooding and pollution. We provide opportunities for people to learn, use and benefit from Wales' natural resources. We work to support Wales' economy by enabling the sustainable use of natural resources to support jobs and enterprise. We help businesses and developers to understand and consider environmental limits when they make important decisions. We work to maintain and improve the quality of the environment for everyone and we work towards making the environment and our natural resources more resilient to climate change and other pressures. Evidence at Natural Resources Wales Natural Resources Wales is an evidence based organisation. We seek to ensure that our strategy, decisions, operations and advice to Welsh Government and others are underpinned by sound and quality-assured evidence. We recognise that it is critically important to have a good understanding of our changing environment. We will realise this vision by: • Maintaining and developing the technical specialist skills of our staff; • Securing our data and information; • Having a well resourced proactive programme of evidence work; • Continuing to review and add to our evidence to ensure it is fit for the challenges facing us; and • Communicating our evidence in an open and transparent way. -
Ammonia Oxidation Potential and Microbial Diversity in Sediments from Experimental
Ammonia Oxidation Potential and Microbial Diversity in Sediments from Experimental Bench-Scale Oxygen-Activated Nitrification Wetlands By JENNIFER ALLEN A dissertation/thesis submitted in partial fulfillment of the requirements for the degree of MASTERS OF SCIENCE IN CIVIL ENGINEERING WASHINGTON STATE UNIVERSITY Department of Civil and Environmental Engineering MAY 2009 0 To the Faculty of Washington State University: The members of the Committee appointed to examine the dissertation/thesis of JENNIFER ALLEN find it satisfactory and recommend that it be accepted. ___________________________________ Marc W. Beutel, Ph.D., Chair ___________________________________ Douglas R. Call, Ph.D. ___________________________________ David Yonge, Ph.D. ii ACKNOWLEDGEMENTS I would like to thank Allison Fischer and her colleges in the Department of Veternary Medicine for their continuous research contributions. I would also like to thank Huckleberry Palmer, Dr. Rick Watts, Dr. Shelley Pressley, and Dr. Jeremy Rentz in the Department of Civil and Environmental Engineering for additional research support. iii ABSTRACT by Jennifer Allen, M.S. Washington State University May 2009 Chair: Marc W. Beutel Ammonia pollution, commonly from sewage treatment plants and agricultural activities, can degrade surface waters by causing eutrophication and exhibiting toxicity to aquatic biota. Constructed treatment wetlands can be used to treat a wide array of waste waters, but low oxygen concentrations characteristic of these systems will limit ammonia removal because ammonia must be first oxidized to nitrate before being denitrified to nitrogen gas. My study evaluated the effects of dissolved oxygen enhancement on ammonia oxidation and microbial community diversity in bench-scale wetland mesocosms. Sediments were extracted from oxygenated and non-oxygenated (control) wetland microcosms. -
Air Pollution: Reducing Ammonia Emissions by Adapting Livestock Management Approaches
Air pollution: Reducing ammonia emissions by adapting livestock management approaches Dr William Stiles: IBERS, Aberystwyth University. Take home messages: • Ammonia is a key contributor to air pollution levels, as it can become particulate matter after combination with other pollutant materials from a range of sources. • Reducing ammonia emission limits both the potential for air pollution and the wider environmental impact associated with nitrogen pollution. • Losses of ammonia represent losses of valuable farm-production material. This can have an adverse effect on farm business efficiency. Air pollution is a major environmental health risk, which affects human populations in developed and developing nations alike. Agricultural activities contribute to air pollution through the emission of ammonia, which can combine with other pollutant materials that originate from a range of sources to become fine particulate matter. Particulate matter is a material of key health concern as it can penetrate deeply into the lungs and cause a range of conditions including respiratory and cardiovascular illness and mortality. In Wales, 93% of ammonia emissions are the result of agricultural activities. Reducing the amount of ammonia emitted from agricultural sources is therefore a necessary action to reduce levels of air pollution nationally. In addition, ammonia pollution can have significant environmental impact, and can lead to reductions in biodiversity, eutrophication, and acidification of soil and aquatic ecosystems. The loss of ammonia also represents the loss of valuable material from within a farm business. Any nitrogen (N) which is emitted to the environment is N which is not utilised by plants or animals. As such, modifying farm business management to reduce ammonia losses has the potential to benefit human health and wellbeing, to reduce environmental impact, and to increase farm business efficiency. -
Air Pollution: Reducing Ammonia Emissions from Agriculture by Adapting Fertiliser Storage and Land Application Techniques
Air pollution: Reducing ammonia emissions from agriculture by adapting fertiliser storage and land application techniques Dr William Stiles: IBERS, Aberystwyth University. Take home messages: • Reducing ammonia emission from agriculture is a necessary objective to reduce national levels of air pollution • Ammonia is a key contributor to air pollution as it can become particulate matter after combination in the atmosphere with other pollutant materials from a range of sources. • Improving approaches for manure storage and fertiliser management can have a significant effect on overall ammonia emission rates. Air pollution from human activities presents a major challenge for most nations on earth. It can originate from multiple sources, including transport and industry, and is most commonly associated with the by-products of fuel combustion. Agricultural activities contribute to air pollution indirectly through the emission of ammonia, which combines in the atmosphere with other pollutant materials from a range of sources to become fine particulate matter. Particulate matter is an air pollutant material of particular concern as it can cause significant impact to human health and wellbeing. Nitrogen (N) emissions in the form of ammonia (NH3) originate primarily from agricultural activities (93% of emissions in Wales), particularly from livestock systems and fertiliser management. Reducing ammonia emission is an essential objective for the agricultural industry, both due to the influence this has on air pollution and population health, and also due to the environmental impact caused by ammonia pollution. Additionally, N is a valuable production material and enhancing N use efficiencies and reducing environmental losses is a core future farming strategy. Improving resource utilisation and precision in terms of nutrient management acts to improve farm business efficiency and is necessary to increase future sustainability within the agricultural sector. -
Nitrogen Pollution and the European Environment Implications for Air Quality Policy
Science for Environment Policy IN-DEPTH REPORT Nitrogen Pollution and the European Environment Implications for Air Quality Policy September 2013 Environment Science for Environment Policy This In-depth Report is written and edited by the Science Nitrogen Pollution and the European Environment Communication Unit, University of the West of England Implications for Air Quality Policy (UWE), Bristol Email: [email protected] Acknowledgements Contents We wish to thank Prof Mark Sutton of the Centre for Ecology and Hydrology for his input to this report. Final responsibility Executive summary 3 for the content and accuracy of the report, however, lies solely with the author. Introduction 5 1. The economic cost of the ecological Images impacts of nitrogen pollution 9 Page 3: ©istockphoto.com/chukov 2. The relative importance of reduced Page 6, Figure 1: Rockström et al., 2009a Page 6, Figure 2: INI, 2010 and oxidised nitrogen pollutants 12 Page 7, Figure 3: Erisman et al., 2011 3. Nitrogen and climate change 15 Page 8, Figure 4: Sutton and Billen, 2010 4. Potential co-benefits from improved Page 9, Figure 5: Brink et al. 2011 Page 14, Figure 6: Stevens et al., 2011 nitrogen efficiency in agriculture 18 Page 9, Table 1: Brink et al. 2011 5. The potential for new air quality Page 9, Table 2: Brink et al. 2011 limits on ammonia to help achieve objectives of the Habitats Directive 24 In conclusion 26 About Science for Environment Policy Science for Environment Policy is a free news and information service published by the European Commission’s Directorate-General Environment, which provides the latest environmental policy- relevant research findings. -
Code of Good Agricultural Practice (COGAP) for Reducing Ammonia Emissions
Code of Good Agricultural Practice (COGAP) for Reducing Ammonia Emissions © Crown copyright 2018 You may re-use this information (excluding logos) free of charge in any format or medium, under the terms of the Open Government Licence v.3. To view this licence visit www.nationalarchives.gov.uk/doc/open-government-licence/version/3/ or email [email protected] This publication is available at www.gov.uk/government/publications Any enquiries regarding this publication should be sent to us at: Air Quality and Industrial Emissions Team Department for Environment, Food and Rural Affairs 2 Marsham Street Westminster London SW1P 4DF PB14506 [email protected] Cover photo: Trailing shoe on grassland. Image credit: Steve Marston, Natural England, Flickr. Executive Summary This Code of Good Agricultural Practice (COGAP) for reducing ammonia emissions is a guidance document produced by Defra in collaboration with the farming industry. It explains the practical steps farmers, growers, land managers, advisors and contractors in England can take to minimise ammonia emissions from the storage and application of organic manures, the application of manufactured fertiliser, and through modifications to livestock diet and housing. Ammonia (NH3) is a key air pollutant that can have significant effects on both human health and the environment. The government has agreed to reduce ammonia emissions by 8% in 2020 and 16% in 2030, compared to 2005 levels. Around 88% of ammonia emissions in the UK come from agriculture. These targets can be achieved through widespread adoption of the measures in this Code. Nitrogen, in the form of ammonia, is lost from organic manures (such as slurry, solid manure and litter, digestate, sludge and compost) when they come into contact with air, particularly on warm or windy days. -
Toilets and Night Soil (Types, Treatment & a Bit of History)
Toilets and Night Soil (Types, Treatment & A Bit of History) May 2006 Japan Association of Drainage and Environment Night Soil and Sewerage Research Group Preface Night Soil and Sewerage Research Group is a substructure of Japan Association of Drain- age and Environment. This Group conducts research mainly on culture and history of toi- lets/night soil, and has been planning lecture meetings or field visits for seven years now. In 2003, in an effort to encapsulate our activities, we wrote a book called What do you think Toilets and Night Soil? published by Gihoudou Publishing Co. We have also written arti- cles for specialized field magazines to supply information on this field. Night Soil had been used as fertilizer for farms until quite recently. A result of this practice was the affliction of a large number of people with parasites. Flush Toilets using sewerage system, which is the most popular type, community treatment plants, Johkasou (private treatment facility), had been effective in the eradication of parasite disease in a short period of time. This booklet is intended to inform people of other countries about toilet history in Japan. At first glance, you might ask: Why should I bother reading about toilets (and other delicate matters) at all? Well, the convenient water-flushed toilets were not always available, you know. Then, your next question might be: Hmmm…what did they use in those days? There are seven chapters in this booklet. I’m sure you will find a selection that interests you. To make the presentation more appealing and easily understood, we have carefully chosen the photos to include here. -
Module 4: Air Quality Monitoring
Foundation Course on Air Quality Management in Asia Monitoring Edited by Gary Haq and Dieter Schwela 4 Editors Dr Gary Haq, Stockholm Environment Institute, University of York Dr Dieter Schwela, Stockholm Environment Institute, University of York Module Contributors Professor Bingheng Chen, School of Public Health, Fudan University, Shanghai Dr Dilip Biwas, Former Chairman, Central Pollution Control Board, New Delhi Dr David L. Calkins, Sierra Nevada Air Quality Group, LLC, San Francisco Bay Area, CA Dr Axel Friedrich, Department of Transport and Noise at the Federal Environment Agency (UBA), Berlin Mr Karsten Fuglsang, FORCE Technology, Copenhagen Dr Gary Haq, Stockholm Environment Institute, University of York, York Professor Lidia Morawska, School of Physical and Chemical Sciences, Queensland University of Technology, Brisbane Professor Frank Murray, School of Environmental Science, Murdoch University, Perth Dr Kim Oanh Nguyen Thi, Environmental Technology and Management, Asian Institute of Technology, Bangkok Dr Dieter Schwela, Stockholm Environment Institute, University of York, York Mr Bjarne Sivertsen, Norwegian Institute for Air Research, Olso Dr Vanisa Surapipith, Pollution Control Department, Bangkok Dr Patcharawadee Suwanathada, Pollution Control Department, Bangkok Mr Harry Vallack, Stockholm Environment Institute, University of York Production Team Howard Cambridge, Web Manager, Stockholm Environment Institute, University of York, York Richard Clay, Design/layout, Stockholm Environment Institute, University of York, York Erik Willis, Publications Manager, Stockholm Environment Institute, University of York, York Funding The modules were produced by the Stockholm Environment Institute (SEI) and the University of York (UoY) as part of the Clean Air for Asia Training Programme. The programme was led by the SEI and UoY in collaboration with the Pollution Control Department (Thailand), Vietnam Environment Protection Agency (VEPA), and Clean Air Initiative for Asian Cities (CAI-Asia). -
Air Dispersion Modelling
Dust Gas Odours Air dispersion modelling IMMI Manua A Polluti 3 IMMI Manual Air Pollution 2 Published by: Meßsysteme · Software GmbH + Co. KG Max-Planck-Strasse 15 D-97204 Höchberg bei Würzburg Phone: +49 931 497 08 - 500 Fax: +49 931 497 08 - 590 Email: [email protected] Internet: www.woelfel.de Hotline: Dipl-Ing. (FH) Denise Reiche Phone: +49 931 497 08 - 555 Fax: +49 931 497 08 - 590 Email: [email protected] / [email protected] Author: Denise Reiche IMMI Manual Air Pollution Table of content 3 Table of Content 1 Introducti 7 2 Calculati M 8 3 Modeli i IMMI 9 3.1 IMMI Setup ....................................................................................9 3.2 Implementation of Gau / TA Luft 1986 .......................................9 3.2.1 Parameters of the element library Pollutants following Gau / TA Luft 1986 ............................................................................... 10 3.2.2 IMMI Source types for air pollution calculation following Gau / TA Luft 1986 ............................................................................... 13 3.2.2.1 General parameters for the element types point-, line- and area source ......................................................................................... 15 3.2.2.2 Source type gas ......................................................................... 16 3.2.2.3 Source type dust ........................................................................ 17 3.2.2.4 Source type odor ........................................................................ 18 3.2.2.5