BOOK
Metals and Related Substances in Drinking Water
Prosun Bhattacharya | Ingegerd Rosborg | Arifin Sandhi | Colin Hayes | Maria Joao Benoliel
(2011)
Additional Information
Book Details
Abstract
Part of Metals and Related Substances in Drinking Water Set - buy all five books together to save over 30%!
Metals and Related Substances in Drinking Water comprises the proceedings of COST Action 637 - METEAU, held in Kristianstad, Sweden, October 13-15, 2010.
This book collates the understanding of the various factors which control metals and related substances in drinking water with an aim to minimize environmental impacts. Metals and Related Substances in Drinking Water:
- Provides an overview of knowledge on metals and related substances in drinking water.
- Promotes good practice in controlling metals and related substances in drinking water.
- Helps to determining the environmental and socio-economic impacts of control measures through public participation
- Introduces the importance of mineral balance in drinking water especially when choosing treatment methods
- Shares practitioner experience.
Table of Contents
Section Title | Page | Action | Price |
---|---|---|---|
Cover page | 1 | ||
Title page | 2 | ||
List of Conference Sponsors | 3 | ||
Copyrights page\r | 4 | ||
Contents | 5 | ||
COST\r | 10 | ||
Organizers / Core Committee | 11 | ||
Summary of the 4th International COST Action 637 Conference, \rKristianstad, Sweden, October 13-15, 2010 | 13 | ||
Foreword from COST Action 637 Chair | 14 | ||
Section 1 | 15 | ||
How water safety plans can help to address risks from metals in drinkingwater | 16 | ||
Abstract | 16 | ||
1. Introduction | 16 | ||
2. The WSP approach | 16 | ||
3. Hazards from metals in drinking water | 18 | ||
4. A partnership approach | 19 | ||
5. Summary and conclusions | 19 | ||
References | 20 | ||
QC/QA scheme applied for monitoring of metals concentrations in waterintended for human consumption sampled from the area of Warsawperformed by ICP-MS and ICP-OES techniques | 21 | ||
Abstract | 21 | ||
1. Introduction | 21 | ||
2. Materials and Methods | 22 | ||
2.1 Spectroscopic techniques applied for elemental analysis of water. Validation of analytical methods | 22 | ||
3. Results and discussion | 23 | ||
3.1 Internal quality control scheme (IQC) | 23 | ||
3.1.1 Maintenance of optimal performance of ICP-OES and ICP-MS spectrometers | 23 | ||
3.1.2 Calibrations of ICP-OES and ICP-MS spectrometers | 24 | ||
3.1.3 Composition of sequence of analytical batch (run) for obligatory measurements | 25 | ||
3.1.3.1 Procedural (reagent) blank and “on-field” blank measurements | 25 | ||
3.1.3.2 Duplicate sample measurements | 27 | ||
3.1.3.3 Check standard measurements | 29 | ||
3.1.3.4 Determination of elements in certified reference materials - trueness control | 32 | ||
4. Conclusions | 33 | ||
5. Acknowledgments | 33 | ||
Drinking water quality in the city of Belgrade and health risks fromdomestic use of filters with reverse osmosis\r | 34 | ||
1. Background | 34 | ||
2. Method | 34 | ||
3. Results | 34 | ||
4. Conclusion | 34 | ||
Consumer concerns about drinking water in an area with high levels ofnaturally occurring arsenic in groundwater, and the implications formanaging health risks | 35 | ||
Abstract | 35 | ||
1. Introduction | 35 | ||
2. Methods | 36 | ||
3. Results | 37 | ||
a) Street Interviews | 37 | ||
b) Questionnaires | 38 | ||
c) Water Samples | 39 | ||
4. Discussion | 40 | ||
5. Conclusions | 40 | ||
Acknowledgments | 41 | ||
References | 41 | ||
Section 2 | 42 | ||
Discolouration in water supply, the role of metals | 43 | ||
Abstract | 43 | ||
1. Introduction | 43 | ||
2. Discolouration material | 44 | ||
3. Metal composition of discoloured water | 44 | ||
4. Accumulation of discolouration material / asset deterioration | 47 | ||
5. Summary | 49 | ||
Acknowledgments | 50 | ||
References | 50 | ||
Metals and related substances in drinking water - from source to the tap.Krakow tap survey 2010 | 52 | ||
Abstract | 52 | ||
1. Introduction | 57 | ||
2. Materials and Methods | 58 | ||
3. Results and Discussion | 58 | ||
4. Conclusions | 60 | ||
References | 60 | ||
Blood pressure and drinking water’s magnesium level in some Serbian Municipalities | 61 | ||
Abstract | 61 | ||
1. Introduction | 61 | ||
2. Materials and Methods | 62 | ||
2.1 Study design | 62 | ||
2.2 Subjects | 62 | ||
2.3 Blood pressure | 62 | ||
2.4 Blood samples. | 62 | ||
2.5 Laboratory tests | 62 | ||
2.6 Statistical analysis | 63 | ||
3. Results | 63 | ||
4. Discussion | 65 | ||
Acknowledgments | 66 | ||
References | 66 | ||
Tap water quality regarding metal concentrations in Timisoara city, \rRomania | 68 | ||
Abstract | 68 | ||
1. Introduction | 68 | ||
2. Experimental Data | 69 | ||
3. Results and Discussions | 71 | ||
4. Conclusions | 75 | ||
References | 75 | ||
The need for an integrated approach to control metal and metalloid contamination of drinking Water | 77 | ||
Abstract | 77 | ||
1. Introduction | 77 | ||
2. Control problems | 78 | ||
3. Problems with metals at the tap | 78 | ||
4. Risk assessment for lead in drinking water | 79 | ||
5. The case for a more integrated approach to control | 80 | ||
6. Conclusions | 81 | ||
References | 82 | ||
Uranium in drinking water | 84 | ||
References | 84 | ||
Arsenic in drinking water and non-insulin-dependent diabetes in Zrenjanin Municipality, Serbia | 85 | ||
Abstract | 85 | ||
1. Introduction | 85 | ||
2. Materials and Methods | 86 | ||
3. Results | 86 | ||
4. Discussion | 87 | ||
5. Conclusion | 88 | ||
References | 88 | ||
Does water softening improve eczema in children? Results of a clinical trial– the softened water eczema trial (swet) | 89 | ||
Abstract | 89 | ||
1. Introduction | 89 | ||
2. Materials and methods | 90 | ||
2.1 Study design.\r | 90 | ||
2.2 Recruitment. | 90 | ||
2.3 Interventions. | 90 | ||
3. Results and discussion | 90 | ||
3.1 Main Outcomes | 91 | ||
3.2 Academic/industry partnership | 91 | ||
Acknowledgments | 91 | ||
References | 91 | ||
Preliminary assessment of metal concentrations in drinking water in the cityof Szczecin (Poland): human health aspects | 92 | ||
Abstract | 92 | ||
1. Introduction | 92 | ||
2. Materials and Methods | 93 | ||
2.1 Study area | 93 | ||
2.2 Waterworks for the city of Szczecin | 93 | ||
2.3 Distribution network | 94 | ||
2.4 Sample collection | 94 | ||
2.5 Chemical analysis | 95 | ||
3. Results and Discussion | 97 | ||
4. Conclusions | 99 | ||
Acknowledgments | 100 | ||
References | 100 | ||
Section 3 | 101 | ||
Influence of mineral composition of drinking water on acid-base balance of human body | 102 | ||
Abstract | 102 | ||
1. Introduction | 102 | ||
2. Materials and Methods | 103 | ||
3. Results and Discussion | 103 | ||
4. Conclusions | 106 | ||
Acknowledgments | 106 | ||
References | 106 | ||
Magnesium and calcium in drinking water and mortality due to cardiovascular disease in the Netherlands | 107 | ||
Abstract | 107 | ||
1. Introduction | 107 | ||
2. Materials and Methods | 107 | ||
3. Results | 107 | ||
4. Conclusion and Discussion | 108 | ||
Acknowledgments | 108 | ||
References | 109 | ||
Mineral balance and quality standards for desalinated water:the Israeli experience | 110 | ||
Abstract | 110 | ||
1. Introduction | 110 | ||
2. Water balance in Israel | 110 | ||
3. Desalination | 112 | ||
4. Mineral balance and quality standards for desalinated water | 112 | ||
5. Conclusions | 115 | ||
References | 116 | ||
Mineral balance in water: before and after treatment | 117 | ||
Abstract | 117 | ||
Introduction\r | 117 | ||
Common treatment processes | 119 | ||
Aims | 120 | ||
RO filter | 123 | ||
Conclusions | 125 | ||
Suggested future research | 125 | ||
References | 125 | ||
Evaluation of the monitoring activity performed for two Romanian companies which produce and supply drinking water | 127 | ||
References | 127 | ||
Drinking water quality monitoring systems in Poland | 128 | ||
Section 4 | 129 | ||
Arsenic removal by traditional and innovative membrane technologies | 130 | ||
Abstract | 130 | ||
1. Introduction | 130 | ||
2. Species of Arsenic Present in Water | 131 | ||
3. Membrane Technology | 131 | ||
3.1 Traditional Membrane Technology | 131 | ||
3.2 Innovative Membrane Technology | 132 | ||
4. Conclusions | 134 | ||
References | 134 | ||
Treatment of arsenic containing drinking waters by electrochemicaloxidation and reverse osmosis | 136 | ||
Abstract | 136 | ||
1. Introduction | 136 | ||
2. Materials and Methods | 136 | ||
2.1 Chemicals and Solutions | 136 | ||
2.2 Sampling and Analytical methods | 137 | ||
2.3 Experimental set-up | 137 | ||
3. Results and Discussion | 138 | ||
3.1 Electrochemical oxidation | 138 | ||
3.2 Reverse osmosis | 140 | ||
4. Conclusions | 143 | ||
References | 144 | ||
The effect of fluidised bed softening on metal content in drinking water:11years of experience from vombverket, sydvatten ab | 145 | ||
Abstract | 145 | ||
1. Introduction | 145 | ||
2. Water Quality Effects | 147 | ||
References | 150 | ||
Arsenic removal with chemical precipitation in drinking water treatmentplants in Italy | 151 | ||
Abstract | 151 | ||
1. Introduction | 151 | ||
2. Investigation | 152 | ||
3. Results | 153 | ||
3.1 Process schemes | 154 | ||
3.2. Reagent for arsenic chemical precipitation | 155 | ||
3.3 Residues management | 155 | ||
3.4. Costs | 158 | ||
4. Conclusion | 158 | ||
Acknowledgments | 159 | ||
References | 159 | ||
Assessment of trace metal concentrations in the different processes atwater treatment plants of EPAL | 160 | ||
Abstract | 160 | ||
1. Introduction | 160 | ||
2. Materials and Methods | 161 | ||
3. Results and Discussion | 162 | ||
3.1 Metals in Asseiceira Water Treatment Plant | 162 | ||
3.2 Metals In Vale Da Pedra Water Treatment Plant | 164 | ||
4. Conclusions | 165 | ||
6. REFERENCES | 165 | ||
Arsenic removal by energy-efficient small-scale reverse osmosis units | 166 | ||
References | 166 | ||
Arsenic oxidation treatment by H2O2 and UV radiation | 167 | ||
Abstract | 167 | ||
1. Introduction | 167 | ||
2. Materials and Methods | 168 | ||
3. Results and Discussion | 169 | ||
4. Conclusions | 171 | ||
Acknowledgments | 171 | ||
References | 171 | ||
Brown lakes - causes, effects and remedial measures | 172 | ||
Applied technologies and possibilities of modernisation of groundwater treatment plants in Poland | 173 | ||
Abstract | 173 | ||
1. Introduction | 173 | ||
2. Groundwater quality | 173 | ||
3. Technology of groundwater treatment | 174 | ||
4. Quality of treated groundwater | 176 | ||
5. Possibilities of modernization | 176 | ||
6. References | 177 | ||
Heavy metals (Pb, Cr) removal from aqueous solution by modifiedclinoptilolite | 178 | ||
Abstract | 178 | ||
1. Introduction | 178 | ||
2. Materials and methods | 179 | ||
2.1. Modification of clinoptilolite | 179 | ||
2.2. Adsorption studies | 179 | ||
3. Results and discussion | 180 | ||
4. Conclusion | 183 | ||
Acknowledgments | 183 | ||
References | 183 | ||
Water cleaning from toxic elements using phytofiltration with Elodeacanadensis. | 184 | ||
Abstract | 184 | ||
1. Introduction | 184 | ||
2. Material and Methods | 185 | ||
3. Results and Discussion | 186 | ||
4. Conclusion | 187 | ||
Acknowledgments | 187 | ||
References | 187 | ||
Selectively facilitated transport of Zn(II) through a novel polymer inclusionmembrane containing Cyanex 272 as a carrier reagent | 189 | ||
Peculiarities of Fe(III) sorption from drinking water onto chitosanOna Gylienė | 190 | ||
Abstract: | 190 | ||
1. Introduction | 190 | ||
2. Experimental | 190 | ||
3. Results and Discussion | 191 | ||
4. Conclusions | 192 | ||
References | 192 | ||
Iron based nano-materials for reductive remediation of pollutants | 193 | ||
Abstract | 193 | ||
1 Introduction | 193 | ||
2. Materials and Methods | 193 | ||
3. Results and Discussion | 194 | ||
3.1 Synthesis of Carbon Microspheres | 194 | ||
3.2 Synthesis of Carbon/Iron Composites | 196 | ||
4. Conclusions | 197 | ||
Acknowlegdments | 197 | ||
References | 197 | ||
Removal of lead and chromium (III) by zeolites synthesized from fly ash | 198 | ||
Abstract | 198 | ||
1. Introduction | 198 | ||
2. Materials and Methods | 199 | ||
2.1 Synthesis of zeolite | 199 | ||
2.2 Adsorption studies | 200 | ||
3. Results and Discussion | 200 | ||
3.1 XRD analysis | 200 | ||
3.2 Adsorption studies | 202 | ||
4. Conclusion | 203 | ||
Acknowledgments | 204 | ||
References | 204 | ||
Sorption of manganese in the presence of phtalic acid on selected activatedCarbons | 205 | ||
Section 5 | 206 | ||
Harmonization of national requirements for metallic materials in contactwith drinking water – 4MS approach | 207 | ||
Short period survey of heavy metals concentration in tap water beforeand after rehabilitation and modernization of water and sewerage services | 208 | ||
Differences in metal concentrations in water intended for humanconsumption in the pipe network of the city of Poznań (Poland) in the lightof two sampling methods | 209 | ||
Galvanic impacts of partial lead service line replacement on lead leachinginto drinking water | 210 | ||
Abstract | 210 | ||
1. Introduction | 210 | ||
2. Materials and methods | 211 | ||
3. Results and discussion | 213 | ||
4. Conclusions | 214 | ||
Acknowledgments | 215 | ||
References | 215 | ||
Metal and organic release from construction products in contact withdrinking water disinfected with Sodium Hypochlorite | 216 | ||
Dezincification of brass fittings – effects of metal solvency controlmeasures | 217 | ||
Concentration of heavy metals on surface of filter materials and inbackwash water | 218 | ||
Abstract | 218 | ||
1. Introduction | 218 | ||
2. Materials and Methods | 218 | ||
3. Results and Discussion | 219 | ||
4. Conclusions | 222 | ||
Acknowledgments | 222 | ||
References | 222 | ||
The influence of dissolved natural organic matter on the stability ofArsenic species in groundwater | 224 | ||
Quality control of arsenic determination in drinking water with ICP-MS:Krakow Tap Survey 2010 | 225 | ||
Abstract | 225 | ||
1. Materials and Methods | 225 | ||
2. Results | 225 | ||
2.1 Nitric acid | 225 | ||
2.2 Bottles | 226 | ||
4. Conclusions | 228 | ||
Acknowledgments | 228 | ||
References | 228 | ||
High fluoride concentrations in surface water – example from a catchmentin SE Sweden | 229 | ||
References | 229 | ||
Leaching of nickel and the other elements from kettle by domestic using | 230 | ||
Monitoring of metals concentrations in water intended for humanconsumption sampled from the area of Warsaw performed by ICP-MS andICP-OES techniques | 231 | ||
Short period survey of metals and related substances in Racibórz town tapwater, Poland | 232 | ||
Section 6 | 233 | ||
Geogenic arsenic in groundwaters and soils – re-evaluating exposureroutes and risk assessment | 234 | ||
Abstract | 234 | ||
1. Introduction | 234 | ||
2. Risks arising from WHO provisional guide value of 10 ug/L | 235 | ||
2.1 Arsenic-attributable health risks | 235 | ||
2.2 Lung cancer risks attributable to arsenic in drinking water | 235 | ||
2.3 Uncertainties | 235 | ||
3. Rice is a major route of arsenic exposure | 236 | ||
3.1 Case study – Indian Sub-continent | 236 | ||
3.2 Europe | 236 | ||
4. Externally asymptomatic citizens may also be at risk | 236 | ||
5. Discussion and Conclusions | 237 | ||
Acknowledgments | 238 | ||
References | 238 | ||
Arsenic distribution in surface and groundwater in the central bolivianhighland | 240 | ||
Abstract | 240 | ||
1. Introduction | 240 | ||
2. Materials and methods | 240 | ||
3. Results | 241 | ||
4. Discussion and conclusions | 242 | ||
Acknowledgments | 242 | ||
References | 242 | ||
Genesis of arsenic enriched groundwater and relationship with bedrockgeology in northern Sweden | 243 | ||
Abstract | 243 | ||
1. Introduction | 243 | ||
2. Site, Materials and Methods | 243 | ||
2.1 Sampling sites | 243 | ||
2.2 Sampling and analytical methods | 244 | ||
3. Results and Discussion | 244 | ||
4. Conclusions | 247 | ||
Acknowledgments | 247 | ||
References | 247 | ||
Nickel in groundwater – a case study from northern Sweden | 248 | ||
Abstract | 248 | ||
1. Introduction | 248 | ||
2. Site, Materials and methods | 248 | ||
2.1 Sampling site | 248 | ||
2.2 Sampling and analytical methods | 248 | ||
3. Results and discussion | 249 | ||
4. Conclusions | 250 | ||
Acknowledgments | 250 | ||
References | 250 | ||
Arsenic in the different environmental compartments of Switzerland: anupdated inventory | 251 | ||
Abstract | 251 | ||
1. Introduction | 251 | ||
2. Regional variation | 252 | ||
3. Rocks and minerals | 254 | ||
4. Waste materials | 254 | ||
5. Soils | 254 | ||
6. Waters | 254 | ||
7. Plants | 255 | ||
8. Wetlands | 255 | ||
9. Air | 256 | ||
10. Health risks | 256 | ||
11. Conclusions | 256 | ||
Acknowledgments | 256 | ||
References | 257 | ||
Heavy metal pollution of surface water sources of Konya Basin | 260 | ||
Abstract | 260 | ||
1. Introduction | 260 | ||
2. Materials and Methods | 262 | ||
2.1 Study sites | 262 | ||
2.2 Analytical methods | 264 | ||
3. Results and Discussion | 264 | ||
4. Conclusions | 267 | ||
Acknowledgments | 268 | ||
References | 268 | ||
Geochemical evidences in the release processes of Arsenic into thegroundwater in a part of Brahmaputra Floodplains | 269 | ||
Abstract | 269 | ||
1. Introduction | 269 | ||
2. Materials and Methods | 270 | ||
2.1 Sampling sites | 270 | ||
2.2 Selective sequential extraction methods | 270 | ||
3. Results and Discussion | 271 | ||
4. Conclusions | 272 | ||
References | 272 | ||
Sustainable Arsenic Mitigation (SASMIT): An approach for developing a colorbased tool for targeting arsenic-safe aquifers fordrinking water supply | 273 | ||
Abstract | 273 | ||
1. Introduction | 273 | ||
2. Materials and Methods | 274 | ||
3. Results | 274 | ||
4. Conclusions | 276 | ||
5. Acknowledgments | 277 | ||
6. References | 277 | ||
Section 7 | 278 | ||
The Elemental Composition and Taste of Bottled Water | 279 | ||
Abstract | 279 | ||
1. Introduction | 279 | ||
2. Review of the chemical composition of bottled water | 279 | ||
3. Taste of drinking water | 280 | ||
3.1 Inorganic parameters | 280 | ||
3.2 Iron | 280 | ||
3.3 Copper and Zinc | 281 | ||
4. Conclusions | 281 | ||
References | 281 | ||
Elucidating the Parameters Involved with Antimony and PhthalatesCo-leaching in Bottled Water | 282 | ||
Element Composition of Mineral Waters and Different Beverages | 283 | ||
Mineral balance in bottled waters | 284 | ||
Author Index | 285 | ||
Kristianstad, Sweden | 290 |