Dioxin- and POP-contaminated sites—contemporary and future relevance and challenges

Overview on background, aims and scope of the series
  • Roland Weber
  • Caroline Gaus
  • Mats Tysklind
  • Paul Johnston
  • Martin Forter
  • Henner Hollert
  • Emanuel Heinisch
  • Ivan Holoubek
  • Mariann Lloyd-Smith
  • Shigeki Masunaga
  • Paolo Moccarelli
  • David Santillo
  • Nobuyasu Seike
  • Robert Symons
  • Joao Paulo Machado Torres
  • Matti Verta
  • Gerd Varbelow
  • John Vijgen
  • Alan Watson
  • Pat Costner
  • Jan Woelz
  • Peter Wycisk
  • Markus Zennegg
DIOXIN AND POP-CONTAMINATED SITES • CHALLENGES • OVERVIEW

Abstract

Background, aim and scope

Once they have been generated, polychlorinated dibenzo-p-dioxins (PCDDs) and dibenzofurans (PCDFs) and other persistent organic pollutants (POPs) can persist in soils and sediments and in waste repositories for periods extending from decades to centuries. In 1994, the US EPA concluded that contaminated sites and other reservoirs are likely to become the major source of contemporary pollution problems with these substances. With this in mind, this article is the first in a new series in ESPR under the title ‘Case Studies on Dioxin and POP Contaminated Sites—Contemporary and Future Relevance and Challenges’, which will address this important issue. The series will document various experiences from sites contaminated with PCDD/F and other POPs. This article provides an overview of the content of the articles comprising the series. In addition, it provides a review of the subject in its own right and identifies the key issues arising from dioxin/POP-contaminated sites. Additionally, it highlights the important conclusions that can be drawn from these examples. The key aim of this article and of the series as a whole is to provide a comprehensive overview of the types of PCDD/F contaminated sites that exist as a result of historical activities. It details the various processes whereby these sites became contaminated and attempts to evaluate their contemporary relevance as sources of PCDD/Fs and other POPs. It also details the various strategies used to assess these historical legacies of contamination and the concepts developed, or which are under development, to effect their remediation.

Main features

Special sessions on ‘Contaminated sites—Cases, remediation, risk and policy’ were held at the DIOXIN conferences in 2006 and 2007, and this theme will be continued at DIOXIN 2008 to be held in Birmingham. Selected cases from the approximately 70 contributions made to these sessions, together with some additional invited case studies are outlined together with the key issues they raise. By evaluating these cases and adding details of experiences published in the current literature, an overview will be given of the different features and challenges of dioxin and POP-contaminated sites.

Results

This article provides a systematic categorisation of types of PCDD/F and POP-contaminated sites. These are categorised according to the chemical or manufacturing process, which generated the PCDD/Fs or POPs and also includes the use and disposal aspects of the product life cycle in question. The highest historical PCDD/F and dioxin-like polychlorinated biphenyl (PCB) contamination burdens have arisen as a result of the production of chlorine and of chlorinated organic chemicals. In particular, the production of chlorinated pesticides, PCBs and the related contaminated waste streams are identified being responsible for historical releases of toxic equivalents (TEQs) at a scale of many tonnes. Along with such releases, major PCDD/F contaminated sites have been created through the application or improper disposal of contaminated pesticides, PCBs and other organochlorine chemicals, as well through the recycling of wastes and their attempted destruction. In some extreme examples, PCDD/F contaminated sites have also resulted from thermal processes such as waste incinerators, secondary metal industries or from the recycling or deposition of specific waste (e.g. electronic waste or car shredder wastes), which often contain chlorinated or brominated organic chemicals. The examples of PCDD/F and dioxin-like PCB contamination of fish in European rivers or the impact of contaminated sites upon fishing grounds and upon other food resources demonstrate the relevance of these historical problems to current and future human generations. Many of the recent food contamination problems that have emerged in Europe and elsewhere demonstrate how PCDD/F and dioxin like PCBs from historical sources can directly contaminate human and animal feedstuffs and indeed highlight their considerable contemporary relevance in this respect. Accordingly, some key experiences and lessons learnt regarding the production, use, disposal and remediation of POPs from the contaminated sites are summarised.

Discussion

An important criterion for evaluating the significance and risks of PCDD/Fs and other POPs at contaminated sites is their present or future potential for mobility. This, in turn, determines to a large degree their propensity for off-site transport and environmental accessibility. The detailed evaluation of contaminated site cases reveals different site-specific factors, which influence the varied pathways through which poor water-soluble POPs can be mobilised. Co-contaminants with greater water solubility are also typically present at such sites. Hence, pumping of groundwater (pump and treat) is often required in addition to attempting to physically secure a site. At an increasing number of contaminated sites, securing measures are failing after relatively short time spans compared to the time horizon, which applies to persistent organic pollutant contamination. Due to the immense costs and challenges associated with remediation of contaminated sites ‘monitored natural attenuation’ is increasingly gaining purchase as a conceptual remediation approach. However, these concepts may well prove limited in their practical application to contaminated sites containing persistent organic pollutants and other key pollutants like heavy metals.

Conclusions

It is inevitable, therefore, that dioxin/POP-contaminated sites will remain of contemporary and future relevance. They will continue to represent an environmental issue for future generations to address. The securing and/or remediation of dioxin/POP-contaminated sites is very costly, generally in the order of tens or hundreds of millions of dollars. Secured landfills and secured production sites need to be considered as constructions not made for ‘eternity’ but built for a finite time scale. Accordingly, they will need to be controlled, supervised and potentially repaired/renewed. Furthermore, the leachates and groundwater impacted by these sites will require ongoing monitoring and potential further remediation. These activities result in high maintenance costs, which are accrued for decades or centuries and should, therefore, be compared to the fully sustainable option of complete remediation. The contaminated site case studies highlight that, while extensive policies and established funds for remediation exist in most of the industrialised western countries, even these relatively well-regulated and wealthy countries face significant challenges in the implementation of a remediation strategy. This highlights the fact that ultimately only the prevention of contaminated sites represents a sustainable solution for the future and that the Polluter Pays Principle needs to be applied in a comprehensive way to current problems and those which may emerge in the future.

Recommendations and perspectives

With the continuing shift of industrial activities in developing and transition economies, which often have poor regulation (and weak self-regulation of industries), additional global challenges regarding POPs and other contaminated sites may be expected. In this respect, a comprehensive application of the “polluter pays principle” in these countries will also be a key to facilitate the clean-up of contaminated areas and the prevention of future contaminated sites. The threats and challenges of contaminated sites and the high costs of securing/remediating the problems highlight the need for a comprehensive approach based upon integrated pollution prevention and control. If applied to all polluting (and potentially polluting) industrial sectors around the globe, such an approach will prove to be both the cheapest and most sustainable way to underpin the development of industries in developing and transition economies.

Keywords

Chlorine industry Chlor-alkali Contaminated sites HCB Organochlorine industry PCB PCDD PCDF Persistent organic chemicals Pesticides POPs remediation remediation cost Stockholm Convention Unintentionally produced POPs UPOPs 

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Copyright information

© Springer-Verlag 2008

Authors and Affiliations

  • Roland Weber
    • 1
  • Caroline Gaus
    • 2
  • Mats Tysklind
    • 3
  • Paul Johnston
    • 4
  • Martin Forter
    • 5
  • Henner Hollert
    • 6
  • Emanuel Heinisch
    • 7
  • Ivan Holoubek
    • 8
  • Mariann Lloyd-Smith
    • 9
  • Shigeki Masunaga
    • 10
  • Paolo Moccarelli
    • 11
  • David Santillo
    • 4
  • Nobuyasu Seike
    • 12
  • Robert Symons
    • 13
  • Joao Paulo Machado Torres
    • 14
  • Matti Verta
    • 15
  • Gerd Varbelow
    • 16
  • John Vijgen
    • 17
  • Alan Watson
    • 18
  • Pat Costner
    • 19
  • Jan Woelz
    • 6
  • Peter Wycisk
    • 20
  • Markus Zennegg
    • 21
  1. 1.POPs Environmental ConsultingGöppingenGermany
  2. 2.National Research Centre for Environmental Toxicology (EnTox)Coopers PlainsAustralia
  3. 3.Department of ChemistryUmeå UniversityUmeåSweden
  4. 4.Greenpeace Research Laboratories, Department of Biological SciencesUniversity of ExeterExeterUK
  5. 5.BaselSwitzerland
  6. 6.Department of Ecosystem Analysis, Institute for Environmental Research (Biology V)RWTH Aachen UniversityAachenGermany
  7. 7.ForchheimGermany
  8. 8.RECETOX, National POPs CentreCR Central and Eastern European Regional POPs CentreBrnoCzech Republic
  9. 9.National Toxics Network Inc.East BallinaAustralia
  10. 10.Graduate School of Environment and Information SciencesYokohama National UniversityYokohama-shiJapan
  11. 11.School of Medicine, Department of Clinical Biochemistry, Hospital of Desio-MilanUniversity Milano-BicoccaDesioItaly
  12. 12.Organochemicals DivisionNational Institute for Agro-Environmental SciencesTsukubaJapan
  13. 13.National Measurement InstituteDioxin Analysis UnitPymbleAustralia
  14. 14.Instituto de BiofisicaFederal University of the Rio de JaneiroRio de JaneiroBrazil
  15. 15.Finnish Environment InstituteHelsinkiFinland
  16. 16.GernsbachGermany
  17. 17.Internatial HCH and Pesticide AssociationHolteDenmark
  18. 18.Public Interest ConsultantsSwanseaUK
  19. 19.Owltree Environmental ConsultingEureka SpringsUSA
  20. 20.Hydro- and Environmental GeologyMartin Luther UniversityHalle/SaaleGermany
  21. 21.Laboratory for Analytical ChemistrySwiss Federal Laboratories for Materials Testing and Research (EMPA)DübendorfSwitzerland

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