Cover image for Environmental deterioration and contamination : problems and their management
Title:
Environmental deterioration and contamination : problems and their management
Series:
Engineering tools for environmental risk management ; 1
Publication Information:
Boca Raton : CRC Press, Taylor & Francis Group, 2014
Physical Description:
xviii, 457 pages : illustrations (some color) ; 26 cm.
ISBN:
9781138001541
Abstract:
"Industrial, agricultural, residential land uses and the connected discharge of chemical substances cause environmental problems world-wide. This volume provides an overview on the behavior and function of the healthy environment, the capacity of the ecosystem to serve humanity and compensate for adverse changes. The prime contributors to these changes such as production and use of chemical substances, abandoned and contaminated land, chemical agriculture, mining and the complex waste problem are introduced. The focus of this book is environmental knowledge and its conscious and structured application in environmental management and decision making"--provided by publisher

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30000010337451 QH541.15.E267 E58 2014 Open Access Book Book
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Summary

Summary

This is the first volume of the five-volume book series "Engineering Tools for Environmental Risk Management", dealing with the following topics:
* types and management of environmental deterioration, particularly pollution;
* environmental toxicology as a versatile tool in monitoring and risk management;
* risk assessment of chemical substances and contaminated land;
* risk reduction measures, focusing on bio- and ecotechnologies;
* case studies demonstrating the interaction between regulation, management and engineering and the individual application of engineering tools.

The book series focuses on the state of knowledge concerning the environment and its conscious and structured application in environmental engineering, management, decision making and legislation. This first volume provides an overview of the behavior and function of the healthy environment and the capacity of the ecosystem to serve mankind and to compensate for adverse changes. The prime causes of these changes are production and use of chemical substances, abandoned and contaminated land, intensive agriculture, mining and the complex problem of waste.

The first volume establishes the foundation of the holistic approach used in a progressive environmental protection by:
* striking a balance between nature's needs and engineering capabilities;
* understanding the interaction between regulation, management and engineering;
* applying novel technologies and innovative scientifi c and engineering tools.

The aggregated information and knowledge disseminated in this volume provides a broad perspective for engineers to adjust their tools to the best management practices and for managers and decision makers to fi nd synergy between their goals and existing engineering solutions.
This book series focuses on the state of knowledge about the environment and its conscious and structured application in environmental engineering, management and decision making.


Author Notes

Katalin Gruiz graduated in chemical engineering at Budapest University of Technology and Economics in 1975, received her doctorate in bioengineering and her Ph.D. in environmental engineering. Her main fields of activities are: teaching, consulting, research and development of engineering tools for risk-based environmental management, development and use of innovative technologies such as special environmental toxicity assays, integrated monitoring methods, biological and ecological remediation technologies for soils and waters, both for regulatory and engineering purposes. Prof. Gruiz has published 35 papers, 25 book chapters, more than hundred conference papers, edited 6 books and a special journal edition. She has coordinated a number of Hungarian research projects and participated in European ones. Gruiz is a member of the REACH Risk Assessment Committee of the European Chemicals Agency. She is a full time associate professor at Budapest University of Technology and Economics and heads the research group of Environmental Microbiology and Biotechnology.

Tamás Meggyes is a research co-ordinator specialising in research and book projects in environmental engineering. His work focuses on fluid mechanics, hydraulic transport of solids, jet devices, landfill engineering, groundwater remediation, tailings facilities and riskbased environmental management. He contributed to and organised several international conferences and national and European integrated research projects in Hungary, Germany, United Kingdom and USA. Tamás Meggyes was Europe editor of the Land Contamination and Reclamation journal in the UK and a reviewer of several environmental journals. He was invited by the EU as an expert evaluator to assess research applications and by Samarco Mining Company, Brazil, as a tailings management expert. In 2007, he was named Visiting Professor of Built Environment Sustainability at the University of Wolverhampton, UK. He has published 130 papers including eleven books and holds a doctor's title in fluid mechanics and a Ph.D. degree in landfill engineering from Miskolc University, Hungary.

Éva Fenyvesi is a senior scientist, a founding member of CycloLab Cyclodextrin Research and Development Ltd. She graduated as a chemist and received her PhD in chemical technology at Eötvös University of Natural Sciences, Budapest. She is experienced in the preparation and application of cyclodextrin polymers, in environmental application of cyclodextrins and in gas chromatography. She participated in several national and international research projects, in the development of various environmental technologies applying cyclodextrins. She is author or co-author of over 50 scientific papers, 3 chapters in monographs, over 50 conference presentations and 14 patents. She is an editor of the Cyclodextrin News, the monthly periodical on cyclodextrins.


Table of Contents

K. GrukK. GruizK. GruizA. Anton and G. Fekete and B. Darvas and A. SzékácsE. VazitaK. Gruiz and O. KleberczY. Spira and K. Gruiz and N. Uzinger and A. AntonK. GruizK. Gritz and B. Sára and E. VaszitaK. Gruiz and E. Vaszita and A. ClementK. GruizZ. Siki and K. Gruiz
Prefacep. xi
List of abbreviationsp. xii
About the editorsp. xvii
1 Environmental problems - An overviewp. 1
1 Introductionp. 1
2 Ecosystemp. 4
3 Ecosystem and man: Ecosystem servicesp. 16
4 Extension and time frame of environmental risks and their managementp. 22
5 Environmental compartments: Air, water, and soilp. 26
6 Deteriorated ecosystems in generalp. 28
6.1 Damage in the ecosystem's provisioning servicesp. 28
6.2 Damage in the ecosystem's regulating servicesp. 28
6.3 Damage in the ecosystem s habitat servicesp. 29
6.4 Nature and biodiversity protectionp. 30
6.5 Invasive speciesp. 33
6.6 Urban ecosystemsp. 34
2 Threat by chemical substances: Legislation, production, use and wastep. 41
1 Introductionp. 41
2 Production and use of chemical substances world-widep. 42
3 Risk of hazardous chemicals during their whole life cyclep. 44
4 Regulation of chemical substances in Europep. 46
4.1 GHS pictograms and hazard categoriesp. 47
4.2 European Regulatory Frameworkp. 47
5 Which are the most dangerous chemical substances?p. 49
5.1 Practical grouping of environment-contaminating chemicalsp. 50
5.2 Pesticidesp. 51
5.3 Biocidesp. 53
5.4 Cosmeticsp. 54
6 Carcinogensp. 54
7 Mutagensp. 57
8 Reprotoxic substancesp. 58
9 Pollutants of emerging concernp. 61
3 Abandoned and contaminated landp. 77
1 Deteriorated land and contaminated soil: An introductionp. 77
2 Contaminated landp. 78
3 Typical soil contaminantsp. 84
4 Soil deterioration other than contaminationp. 86
5 Some European factsp. 89
4 Environmental risk of chemical agriculturep. 93
1 Introduction to the risk of chemicals in agriculturep. 93
2 Regulation of pesticides in the European unionp. 94
3 Environmental impacts of fertilizers and pesticidesp. 96
3.1 Environmental impacts of fertilizersp. 97
3.2 Environmental impacts of pesticidesp. 98
4 Output intensity of agrochemicalsp. 100
5 Sustainable agriculturep. 108
5 Environmental risk of miningp. 113
1 Environmental problems caused by mining: An introductionp. 113
2 Nonrenewable resourcesp. 114
2.1 Oil and gas productionp. 114
2.2 Coal, ore and nonmetallic mineral mining and quarryingp. 115
2.2.1 Extractionp. 115
2.2.2 Mineral processingp. 116
3 Environmental impactsp. 116
4 Mining production datap. 118
5 Managing environmental risk of miningp. 120
6 Environmental problems caused by mine accidentsp. 122
6.1 The Stava tailings dam failurep. 123
6.2 The Los Frailes tailings dam failurep. 123
6.3 The Baia Mare cyanide spillp. 124
6.4 The red mud catastrophe at the Ajka bauxite processing plantp. 125
7 Towards more sustainable miningp. 126
6 Environmental risk of waste and its managementp. 135
1 The waste problem and its management: An introductionp. 135
2 European waste legislationp. 39
3 Waste classification and consequent dutiesp. 141
4 Waste management hierarchyp. 143
5 Waste statistics for Europep. 146
6 Waste evaluation: Environmental risks and benefitsp. 149
7 Life cycle thinking should be integrated with environmental risk assessment of chemicalsp. 151
7 Management of abandoned and contaminated landp. 167
1 European action programs in aid of the management of contaminated landp. 167
2 Thematic strategy and the upcoming soil framework directive in Europep. 171
3 Research and development on soil at EU levelp. 173
4 Basic theory of contaminated land managementp. 176
5 Risk-based management of degraded and contaminated land in Europep. 180
5.1 Problem definition and conceptual risk model of contaminated sitesp. 181
5.2 Risk assessment of contaminated landp. 184
5.3 Risk reduction and remediation of contaminated landp. 185
5.4 Management is more than assessing and reducing riskp. 189
8 Environmental risks and impactsp. 195
1 Introductionp. 195
2 Environmental management at company levelp. 198
3 Managing the environment in generalp. 199
4 Managing the risk of projects, plans and programsp. 204
5 Life cycle approach for environmental managementp. 207
6 Integrated and risk based management of the environmentp. 209
7 Environmental efficiency, eco-efficiency and sustainabilityp. 210
8 How to manage the environment efficiently?p. 213
9 Environmental management of chemical substances and polluted landp. 215
9.1 Environmental legislation in the context of chemical pollutionp. 216
9.2 Environmental monitoringp. 216
9.3 Risk assessmentp. 218
9.4 Risk reduction measuresp. 219
10 Increasing efficiency of environmental managementp. 220
11 Decision making and decision-support toolsp. 221
9 Risk management of chemicals and contaminated land - from planning to verificationp. 227
1 Introduction, definitionsp. 227
1.1 Risk management and RMOsp. 229
2 Phases of environmental risk management and decision makingp. 235
2.1 Assessment phase of ERMp. 237
2.1.1 Types of problems and their assessmentp. 237
2.2 Assessment of the problem before implementing a risk management measurep. 237
2.2.1 Chemical substances, products, wastesp. 238
2.2.2 Contaminated land and waste disposal sitesp. 240
2.3 Selection and planning of the RMOp. 242
2.4 Implementation and maintenance phasep. 243
2.5 Retrospective evaluation of the applied RMOp. 246
2.5.1 Verification of the environmental technology and the risk management measurep. 247
2.5.2 Technology verification as a regulatory toolp. 249
3 Necessary information for ERA, SEA and LCAp. 249
4 Environmental risk assessment of chemicals and contaminated landp. 259
4.1 Environmental risk assessmentp. 260
4.1.1 Qualitative RAp. 260
4.1.2 Quantitative RAp. 261
4.2 Generic and site-specific quantitative ERAp. 265
4.3 ERA of contaminated landp. 269
4.4 Special risk management measures for ecological areasp. 271
4.5 Environmental risk assessment toolsp. 272
4.6 Uncertainties in environmental risk assessmentp. 273
4.7 Risk communicationp. 276
5 Life cycle assessmentp. 278
5.1 Concept of LCAp. 278
5.2 Methods and toolsp. 278
5.3 Application trendsp. 279
5.4 Application of LCA for contaminated land managementp. 280
5.5 Integration of LCA and ERAp. 280
6 Socio-economic assessment for environmental management and decision makingp. 281
6.1 Traditional forms of socio-economic assessmentp. 283
6.1.1 Cost effectiveness analysis (CEA)p. 283
6.1.2 Cost-benefit analysis (CBA)p. 284
6.2 Multi-criteria analysis (MCA)p. 287
6.3 Social impact assessmentp. 289
7 Environmental technology verification (ETV)p. 293
7.1 ETV in the worldp. 293
7.1.1 ETV in the USp. 293
7.1.2 ETV in Canadap. 294
7.2 EU policy: ETAPp. 294
7.2.1 About ETAPp. 294
7.2.2 Necessity, principle and role of an EU ETVp. 295
7.2.3 The ETV pilot programp. 295
10 Site-specific risk assessment and management of point and diffuse sourcesp. 313
1 Introductionp. 313
2 Characteristics and differences between point and diffuse sourcesp. 314
2.1 Pollution sourcesp. 315
2.1.1 Definitionsp. 315
2.1.2 Typical pollution sourcesp. 316
2.2 Origin of point and diffuse pollutionp. 317
2.2.1 Point sources and point-source pollutionp. 317
2.2.2 Diffuse pollution from point and diffuse sourcesp. 319
2.3 Characterization of point and diffuse pollutionp. 324
2.3.1 Characteristics of point sourcesp. 324
2.3.2 Characteristics of diffuse pollution sourcesp. 325
3 Different risk management approaches for point and diffuse pollutionp. 326
3.1 Management of point source pollutionp. 326
3.2 Management of diffuse pollutionp. 328
4 Transport modeling for point and diffuse sourcesp. 331
4.1 Transport and fate modeling of point source pollutionp. 334
4.2 GIS-based watershed-scale transport and risk modeling of diffuse pollutionp. 342
4.2.1 Emitted amount from diffuse sources and the risk management conceptp. 342
4.2.2 Model calibration using the RRR rate of the watershedp. 343
4.2.3 GIS transport model typesp. 344
4.2.4 Combined approach for watershed-scale transport and fate modeling of diffuse pollutionp. 346
4.3 Site-specific target value for point and diffuse sourcesp. 352
4.3.1 Setting the target value and its application to point sourcesp. 352
4.3.2 Setting the target emission from diffuse sources and planning risk reduction at watershed scalep. 357
5 Assessment and management of diffuse sources from agriculturep. 362
5.1 General characterization of agricultural diffuse pollutionp. 362
5.2 Measures to reduce diffuse pollution from agriculturep. 363
6 Assessment and management of diffuse sources from miningp. 364
6.1 General characterization of diffuse pollution from miningp. 364
6.2 Risk management approach of diffuse pollution from miningp. 367
6.3 Conceptual risk model of diffuse pollution from base metal ore miningp. 368
6.4 Modeling of the fate and transport of diffuse pollution from miningp. 369
6.5 Measures to reduce diffuse pollution from miningp. 369
7 Conclusions about the sire specific risk assessment and management for point and diffuse sourcesp. 372
11 Scientific and engineering improvement of environmental risk managementp. 381
1 Introductionp. 381
2 Technological efficiency of environmental risk managementp. 382
3 Innovation is the driving force for the improvement of environmental risk managementp. 384
4 Technology demonstration is the key element of the market entry of innovationsp. 388
5 Innovative concepts in environmental risk managementp. 390
5.1 More than risk-based environmental managementp. 390
5.2 Eco-efficiency and sustainability in environmental risk management and decision makingp. 391
5.3 Innovative environmental data acquisition, evaluation and interpretationp. 394
6 Efficient characterization of contaminated landp. 395
7 Trends in environmental risk and impact assessment - life cycle thinkingp. 397
8 Innovative risk reduction technologiesp. 403
9 Data, information and knowledge in environmental decision makingp. 404
10 Uncertainty and variability in ERMp. 411
11 What is necessary to further develop risk management and increase its efficiency?p. 421
12 Managing environmental knowledge and the necessary IT toolsp. 431
1 Introductionp. 431
2 The example of the environmental information (ENEO) knowledge basep. 432
2.1 The objective of the ENFO knowledge basep. 433
2.2 The structure and content of the ENEO knowledge basep. 434
3 The informatics background of the ENFO knowledge basep. 438
3.1 IT tools used for creating the ENEO knowledge basep. 438
3.2 The developed applicationsp. 439
Subject indexp. 447