: Robert Mason, Nicola Pirrone
: Nicola Pirrone, Robert Mason
: Mercury Fate and Transport in the Global Atmosphere Emissions, Measurements and Models
: Springer-Verlag
: 9780387939582
: 1
: CHF 133.00
:
: Natur und Gesellschaft: Allgemeines, Nachschlagewerke
: English
: 637
: Wasserzeichen/DRM
: PC/MAC/eReader/Tablet
: PDF

Mercury, primarily because of its existence and bioaccumulation as methylmercury in aquatic organisms, is a concern for the health of higher trophic level organisms, or to their consumers. This is the major factor driving current research in mercury globally and in environmental regulation, and is the driver for the current UNEP Global Partnership for Mercury Transport and Fate Research (UNEP F&T) initiative. The overall focus of the UNEP F&T report is to assess the relative importance of different processes/mechanisms affecting the transfer of mercury (Hg) from emission sources to aquatic and terrestrial receptors and provide possible source-receptor relationships. This transfer occurs through atmospheric transport, chemical transformations and subsequent deposition, and involves the intermittent recycling between reservoirs that occurs prior to ultimate removal of Hg from the atmosphere. Understanding the sources, the global Hg transport and fate, and the impact of human activity on the biosphere, requires improved knowledge of Hg movement and transformation in the atmosphere. An improved understanding of Hg emission sources, fate and transport is important if there is to be a focused and concerted effort to set priorities and goals for Hg emission management and reduction at the national, regional and global levels; and to develop and implement such policies and strategies. To achieve this, a series of coordinated scientific endeavors focused on the estimation of sources, measurement and validation of concentrations and processes, and modeling, coupled with interpretation of the results within a policy framework, is likely to be required.



Nicola Pirroneis Director of the Institute for Atmospheric Pollution of the Italian National Research Council (CNR-IIA) and Adjunct Professor at the Department of Environmental and Health Sciences of the University of Michigan. He is Chair of the UNEP Global Partnership for Mercury Air Transport and Fate Research, Chair of the WG on Global Atmospheric Mercury Models Intercomparison within the Task Force on Hemispheric Transport of Air Pollutants (TF HTAP) of the UN-ECE-LRTAP convention and Chair of the CEN-TC264 WG that is preparing the European Standard Methods for monitoring mercury concentrations in ambient air and precipitations. He has been Chair of the European WG that prepared the 'Air Quality Position Paper on Mercury' that is one of the scientific background documents of the Forth Air Quality Daughter Directive of the European Union. He has published over 100 peer-reviewed articles on different topics associated to atmospheric transport, chemistry and policy relevant issues related to major at-mospheric pollutants.

Robert Masonis a Professor at the University of Connecticut with a joint appointment in the Departments of Marine Sciences and Chemistry. His research focus is the cycling of mercury in the biosphere with emphasis on the atmosphere and on air-sea exchange and redox reactions in the atmospheric boundary layer and the surface ocean. In addition, his research has a focus on mercury methylation in coastal ecosystems and other environments. Mason has an active research group with currently 4 PhD students and a post-doc. He is the author/coauthor of about 100 papers on mercury and is actively involved in a number of national and international mercury initiatives. Mason obtained his undergraduate and Master's degree in South Africa and his PhD at the University of Connecticut in 1991. He was a professor at the University of Maryland before returning to the University of Connecticut in 2005.

Preface5
Acknowledgments7
Contents8
About the Editors11
Contributing Authors12
External reviewers15
Sources of Mercury Released to the Global Atmosphere16
Global Mercury Emissions to the Atmosphere from Natural and Anthropogenic Sources17
1.1 Introduction17
1.2 Mercury Emissions from Natural Sources19
1.3 Mercury Emissions from Anthropogenic Sources24
1.4 Global Assessment51
1.5 Further Research53
References56
Mercury Emissions from Coal Combustion in China64
2.1 Introduction64
2.2 Results and Discussion65
2.3 Mercury Released to the Atmosphere68
2.4 Emission Trends in China70
2.5 Future Mercury Emissions from Coal Combustion74
2.6 Future Research and Policy Implications76
References77
Mercury Emissions from Industrial Sources in China79
3.1 Introduction79
3.2 Emission Factors from Different Industrial Sources in China81
3.3 Speciation of Mercury Compounds from Different Industrial Sources in China83
3.4 Emissions from Different Industrial Sources in China in 199983
3.5 Mercury Emission Trends from 1995 to 200385
3.6 Uncertainties88
3.7 Future Research and Policy Implications89
References89
Mercury Emissions from Industrial Sources in India and its Effects in the Environment92
4.1 Introduction93
4.2 Results97
4.3 Iron and Steel industry102
4.4 Chlor-alkali Industry in India104
4.5 Cement Industry107
4.6 Wastes Disposal108
4.7 Biomass Burning111
4.8 Miscellaneous112
4.9 Mercury in the Indian Environment and the Cycling in the Bio- geosphere114
4.10 Discussion116
4.11 Future Directions118
References121
Mercury Emissions from Point Sources in South Africa124
5.1 Introduction124
5.2 Current Understanding of Mercury Emissions and Levels in South Africa125
5.3 Monitoring Hg Emissions in South Africa137
5.4 Gaps in Our Current Understanding138
5.5 Research Needs138
References139
World Emissions of Mercury from Artisanal and Small Scale Gold Mining142
6.1 Introduction142
6.2 Why Mercury is Used143
6.3 Where ASGM is Occurring149
6.4 Amount of mercury used in ASGM149
Appendix 1154
6.5 Reported Trade in Mercury and Gold162
6.6 Knowledge Gaps about Mercury in ASGM169
6.7 Reducing Mercury use in ASGM174
6.8 Conclusions177
References178
Mercury Emissions from Natural Processes and their Importance in the Global Mercury Cycle184
7.1 Introduction184
7.2 Estimates of Oceanic Evasion189
7.2 Estimates of Net Terrestrial Evasion192
References198
Mercury Emissions from Global Biomass Burning: Spatial and Temporal Distribution203
8.1 Introduction203
8.2 Results and Discussion214
8.3 Future Work225
8.4 Policy Implications226
References226
Spatial Coverage and Temporal Trends of Mercury Measurements231
Spatial Coverage and Temporal Trends of Land- based Atmospheric Mercury Measurements in the Northern and Southern Hemispheres232
9.1 Introduction232
9.2 Measurements of Air Concentrations in North America235
9.3 Measurements of Air Concentrations in South America270
9.4 Measurements of Air Concentrations in Europe273
9.5 Measurements of Air Concentrations in Asia287
9.6 Measurements of Air Concentrations in Africa290
9.7 Summary and Conclusion291
References293
Spatial Coverage and Temporal Trends of Atmospheric Mercury Measurements in Polar Regions301
10.1 Introduction301
10.2 Results and Discussion304
10.3 Gaps of Knowledge, Future Research and Policy Implications322
References324
Spatial Coverage and Temporal Trends of Over- Water, Air- Surface Exchange, Surface and Deep Sea Water Mercury Measurements330
11.1 Introduction330
11.2 Over-Water Mercury Measurements333
11.3 Air-Water Mercury Exchange346
11.4 Surface and Deep Sea Water Mercury Measurements368
References380
Monitoring and Modeling the Fate of Mercury Species in Japan388
12.1 Introduction388
12.2 Monitoring Project for Ambient Atmospheric Mercury and Other Heavy Metals in a Remote Background Location389
12.3 Fate Analysis of Mercury Species for the Monitoring Data Using a Multimedia Environmental Fate Model394
12.4 Future Directions397
References397
The Need for a Coordinated Global Mercury Monitoring Network for Global and Regional Models Validations398
13.1 Introduction398
13.2 Existing Global Monitoring Programs401
13.3 Measurements and Model Development404
13.4 Establishment of the Coordinated Global Mercury Monitoring Network ( CGMMN)413
13.5 Coordinated Monitoring and Modelling416
References426
Understanding Atmospheric Mercury on Hemispheric and Global Scales432