The Taiwan Crisis: a showcase of the global arsenic problem (Hardback) book cover

The Taiwan Crisis: a showcase of the global arsenic problem

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Hardback: 9780415585101
pub: 2010-05-28
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pub: 2010-05-28
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In the 1950s, the residents of the southwestern coastal areas of Taiwan suffered greatly from Blackfoot disease (BFD) due to the consumption of arsenic-contaminated groundwater. Groundwater with high levels of arsenic in southwestern and northeastern Taiwan received much attention. After arsenic-safe tap water was utilized for drinking instead of groundwater in the 1970s, BFD cases decreased greatly. After 1990, no new BFD cases were reported, and as a consequence, BFD problems disregarded. However, arsenic is still present in the groundwater.

This book will improve the knowledge and understanding of the occurrence and genesis of arsenic-rich groundwaters in Taiwan. It deals with constraints on the mobility of arsenic in groundwater, its uptake from soil and water by plants, arsenic-propagation through the food chain, human health impacts, and arsenic-removal technologies. Taiwan case experiences are described in this book and can be applied worldwide.

This book is a state-of-the-art overview of research on arsenic in Taiwan and is designed to:

  • create interest in regions within Taiwan that are affected by the presence of arseniferous aquifers;
  • draw attention from the international scientific community;
  • increase awareness among researchers, administrators, policy makers, and company executives;
  • improve the international cooperation on arsenic problems worldwide.

Table of Contents

Foreword by Dr. King-Ho Wang

Authors preface

About the authors


1. Taiwan and the global arsenic problem

1.1 General introduction to the arsenic problem

1.2 Arsenic: From history to Taiwan

1.3 Arsenic: From Taiwan To the end of the 20th century

1.4 Arsenic in the 21st century— Recognizing groundwater arsenic as a global problem

1.5 Regulations of arsenic contents in drinking water and its impact on the exposed population

1.6 Why was the "Taiwan signal" not immediately recognized worldwide?

1.7 Why does arsenic continue to affect people worldwide?

2. Geological controls of arsenic concentrations in ground- and surface waters—An overview of our worldwide state-of-the-art knowledge

2.1 Arsenic in the earth´s environments and introduction into ground- and surface-water resources

2.2 Geogenic arsenic: Occurence and sources

2.3 Mechanisms of arsenic mobilization into aqueous environments: an overview

2.4 Sulfide oxidation

2.5 Arsenic input due to leaching in geothermal reservoirs; the role of geothermal fluids

2.6 The role of Fe, Mn, and Al oxides and oxyhydroxides as sources and sinks for dissolved arsenic

2.7 Adsorption processes and capacity of clay minerals

2.8 Precipitation/dissolution and sorption processes of calcite

2.9 Interactions between arsenic and humic substances

3. History of blackfoot disease

3.1 Prologue: A mysterious disease

3.2 Clinical characteristics of blackfoot disease

3.3 Pathological findings of blackfoot disease

3.4 Epidemiological characteristics of blackfoot disease

4. Cause of blackfoot disease: Arsenic in artesian well water

4.1 Types of wells in blackfoot disease endemic area

4.2 Characteristics pf well water in blackfoot disease endemic area

4.3 Arsenic levels in well water in Lanyang plain

4.4 Association between blackfoot disease and the artesian well water

4.5 Arsenic in drinking water: The cause of blackfoot disease

4.6 Co-morbidity of unique arsenic-induced skin lesions and blackfoot disease

4.7 Host and environmental co-factors for blackfoot disease

4.8 Arsenic in drinking water and circulatory disease other than blackfoot disease

4.9 Arsenic in drinking water and prevalence of diabetis and hypertension

4.10 Reduction in mortality of arsenic-induced diseases after implementation of of public water supply system in the endemic area of blackfoot disease

5. Non-vascular health effects of arsenic in drinking water in Taiwan

5.1 Introduction

5.2 Skin cancer

5.3 Internal cancers

5.4 Eye diseases

5.5 Other health outcomes

5.6 Summary and conclusions

6. Arsenic sources, occurrences and mobility in surface water, groundwater and sediments

6.1 Introduction

6.2 Hydrogeology and sedimentology of aquifers

6.3 Potential arsenic sources

6.4 Arsenic distributions and controls

6.5 Arsenic in mud volcanoes and hot springs

6.6 Concluding remarks

7. Arsenic in soils and plants: accumulation and bioavailability

7.1 Accumulation and behavior of arsenic in soil

7.2 Bioaccumulation of arsenic in plants and crops

8. Potential threat of the use of arsenic contaminated water in aquaculture

8.1 Introduction

8.2 Arsenic in aquacultural organisms

8.3 Arsenic methylation capability

8.4 Health risk assessment

9. Current solutions to arsenic contaminated water

9.1 Introduction

9.2 Change of water source

9.3 Water treatment processes for centralized systems

9.4 Point of use and entry devices

9.5 Case study in southwestern Taiwan

9.6 Recommendations

10. Future areas of study and tasks for the Taiwan arsenic problem

10.1 Sources of arsenic and mobilization in groundwater

10.2 Human impact through the food chain

10.3 Health effects of arsenic in drinking water, treatment, risk assessment and prevention

10.4 Future treatment demands, including nano technology


Subject index

Locality index

About the Authors

Jiin-Shuh Jean (1952, Taiwan) finished his PhD degree in Hydrogeology, specializing in groundwater modeling, from Purdue University, West Lafayette, Indiana, USA. He is a full professor of Hydrogeology at the Department of Earth Sciences, National Cheng Kung University (NCKU), Tainan City, Taiwan. His current research interest is in arsenic mobilization and removal.

He is now an associate editor of the Journal of Hydrology, Elsevier and a local chief organizer of the 3rd International Congress on Arsenic in the Environment, which will be held on 17-21 May 2010 at NCKU, Taiwan.

Jochen Bundschuh (1960, Germany) has been working in international academic and technical co-operation programs in different fields of water and renewable energy resources for more than 17 years for the German government. He was a long-term professor for the DAAD (German Academic Exchange Service) in Argentina and an expert of the German Agency of Technical Cooperation (GTZ) (1993-1998). From 2001 to 2008 he worked within the Integrated Expert Program of CIM (GTZ/BA) as an advisor to Costa Rica at the Instituto Costarricense de Electricidad (ICE).

Since June 2009 he has been teaching as a professor in the field of renewable energies, in particular geothermics, at the University of Applied Sciences in Karlsruhe (Germany) and is also a researcher at the Institute of Applied Research at the same university, where he works in geothermics and the groundwater arsenic issue.

Chien-Jen CHEN (1951, Taiwan) graduated from Johns Hopkins University with a Sc.D. in epidemiology and became a professor at the National Taiwan University. He has been appointed as the Director of the Graduate Institute of Epidemiology, and Dean of College of Public Health in the National Taiwan University.

He has published 505 original, review and editorial articles in refereed journals, which have been cited more than 13,000 times. He has received many accolades and awards for his research achievements, including the Presidential Science Prize, the most prestigious science award in Taiwan.

HOW-RAN Guo (1961, Taiwan) obtained his medical degree in 1988 at the Taipei Medical College (currently the Taipei Medical University), Taipei, Taiwan. He continued his study at the Harvard School of Public Health, Boston, Massachusetts, U.S.A. and earned an M.P.H. (1989), a M.S. in Epidemiology (1990), and a Sc.D. in Environmental Health, with a major in Occupational Medicine (1994). Currently, he serves as the Chair of the Department of Occupational and Environmental Medicine at the National Cheng Kung University as well as the Director of the Department of Occupational and Environmental Medicine at the National Cheng Kung University Hospital, Tainan, Taiwan.

Chen-Wuing LIU (1955, Taiwan), PhD, is a professor in the Department of Bioenvironmental Systems Engineering at the National Taiwan University and since 2007 has been the President of the Taiwanese Soil and Groundwater Environmental Protection (TASGEP). Liu holds a PhD from the University of California at Berkeley in Hydrogeology.

Tsair-Fuh LIN (1963, Taiwan), PhD, is a distinguished professor in the Department of Environmental Engineering (DEnvE) at National Cheng Kung University (NCKU), Tainan City, Taiwan. Since 2009, he has served as the Department Chair of DEnvE at NCKU, Secretary-General of the Chinese Institute of Environmental Engineers in Taiwan, and Chair of the Specialist Group in Off Flavours in the Aquatic Environment, International Water Association.

Yen-Hua CHEN (1976, Taiwan) received her B.S. and M.S from the Earth Sciences Department at National Cheng-Kung University, Taiwan, in 1997 and 1999, respectively. She received a Ph.D. from the Material Sciences and Engineering department of the National Tsing-Hua University, Taiwan, in 2006.

About the Series

Arsenic in the environment

ISSN 1876-6218

Series Editors:
Jochen Bundschuh, University of Queensland, Toowoomba, Australia -
Prosun Bhattacharya, Royal Institute of Technology (KTH), Stockhlom, Sweden -

The book series "Arsenic in the Environment" is an inter- and multidisciplinary source of information, making an effort to link the occurrence of geogenic arsenic in different environments and the potential contamination of ground- and surface water, soil and air and their effect on the human society. The series fulfills the growing interest on the arsenic issue worldwide which is going alongside with stronger regulations of arsenic contents in drinking water and food, which were and are adapted not only by the industrialized countries, but increasingly by developing countries.

The book series covers all fields of research concerning arsenic in the environment with an aim to present an integrated approach from its occurrence in rocks and their mobilization into the ground- and surface water, soil and air, its transport therein, the pathways of arsenic and their introduction into the food chain up to the uptake by humans. Human arsenic exposure, bioavailability, metabolism and toxicology are treated together with related public health effects and risk assessments in order to better manage the contaminated land and aquatic environments to reduce human arsenic exposure. Arsenic removal technologies and other methodologies to mitigate the arsenic problem are addressed not only from the technological, but also from economic and social point of view. Only such inter- and multidisciplinary approaches, would allow case-specific selection of optimal mitigation measures of each specific arsenic problem mitigate the problem and provide the population arsenic safe drinking water, food, and air.

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Subject Categories

BISAC Subject Codes/Headings:
SCIENCE / Chemistry / Analytic
SCIENCE / Environmental Science
TECHNOLOGY & ENGINEERING / Environmental / Water Supply