DRAFT 8/27/2009 Document# June 2011/9 Preliminary Global Outlook for Chemicals: Topic III -- Instruments and Approaches for the Sound Management of Chemicals Task Force Leader: Ken Geiser, Lowell Center for Sustainable Production Task Force Members & Contributors1: Ingela Andersson, Swedish Chemicals Inspectorate Arthur Fong, IBM Monika Luxem-Fritsch, German Environment Ministry Abiola Olanipekun, Federal Ministry of Environment, Nigeria Lena Perenius, ICCA September, 2009 Contents 1. 2. 3. 4. 5. 6. Introduction Instruments for the Sound Management of Chemicals Tailoring Chemical Policies to Enhance Economic Development Comprehensive Chemicals Policies Capacity Building to Achieve the Sound Management of Chemicals Recommendations for the Way Forward APPENDIX Existing Governance Structures for the Sound Management of Chemicals 1 Note: Not all task force members have had the opportunity to review the present draft. Thus, inclusion on this list does not imply approval of this text. Page 1 of 34 DRAFT 8/27/2009 1. Introduction The global capacity for the sound management of chemicals exists today. Many nations throughout the world have created competent authorities for addressing chemicals in their different forms as commodities, constituents of products, environmental pollutants, occupational and public health hazards and wastes. Many businesses today have established effective processes and practices for using chemicals appropriately and effectively managing them as emissions and wastes. There is also a growing body of international agreements, treaties and conventions that seek to address chemicals globally. However, there remain many and varied gaps, lapses and inconsistencies that feed a growing international concern that we are jeopardizing the health of our communities and eco-systems in ways that are serious and irreversible. While in the years ahead, we must strengthen and develop our national and international institutions and practices. We must also work to create broad, comprehensive and integrated approaches that link our many capacities into a global system for the sound management of chemicals. In this paper we lay out a framework for the United Nations Environment Programme’s (UNEP’s) Global Chemicals Outlook by reviewing many of the existing government instruments and approaches that are in place in one or several counties for promoting the sound management of chemicals. We then go on to consider opportunities for better integrating these elements into coordinated and comprehensive approaches to chemicals policy and importance of building capacity for appropriate chemicals policies in developing countries and countries in transition. There are several immediate challenges in addressing chemicals at the national and regional levels. New national laws are needed, as well as new and different government and business programs. Much of this work requires site specific, industry-tailored, and respectfully administered changes in conventional practices. However, if these developments are to be effective: the currently diffuse array of government legal, economic and technical instruments and approaches needs to be coordinated, harmonized and integrated globally; instruments need to be implemented at the national and regional levels that are appropriate for each type of economic development; new and more comprehensive chemicals policies need to be developed that link chemical safety, environmental protection and sustainable development; and government and business capacity needs to be strengthened in developing countries and countries in transition. Chemicals make up our physical world. They form the substance of life and they are the building blocks from which we make our products, our communities and our economies. Here we focus on chemicals as those substances that we consciously manufacture, refine, process and employ to make products. They include chemical feedstocks, process intermediaries, and Page 2 of 34 DRAFT 8/27/2009 product constituents and range from the most benign face creams to the most hazardous pesticides. While many government laws and business practices address chemicals at a single point in time, we here take a more “life cycle” view recognizing that all chemicals begin from natural feedstocks and are manufactured and processed, distributed in commerce, and released to the environment as wastes and emissions. Our commitment to a comprehensive approach to chemicals mandates that we consistently seek policies for managing chemicals over their entire lifecycles and are respectful of the anticipated and, occasionally, unpredictable consequences of market and behavioral responses. A broad and comprehensive approach to the sound management of chemicals requires that we respect the significant differences in capacities, authorities and commitments of the diversity of governments, institutions and industries that today manage chemicals. Therefore, as we seek common goals for the global management of chemicals, we need differentiated approaches that capture all countries regions and industries with a manyfold basket of potential policy and economic instruments and programs ranging from the voluntary to the regulatory and from the local to the global. 2. Instruments for the Sound Management of Chemicals The sound management of chemicals, first articulated in 1992 in Agenda 211 of the UN Conference on Environment and Development, places significant responsibilities on governments and industries. Over the past two decades the United Nations treaties and conventions addressing the transboundary movement of chemical emissions and wastes, have been expanded by the Rotterdam and Stockholm Conventions directly addressing the regulation of chemicals as commodities and regional efforts, particularly within the European Union that have substantially reshaped the global chemicals market and the chemical industry that supplies it. In 2006 the international government institutions and the non-governmental organizations came together to create the Strategic Approach to International Chemicals Management (SAICM) as a global policy framework to support efforts to achieve the goal that, by 2020, chemicals should be produced and used in ways that lead to the minimization of significant adverse effects on human health and the environment. 2 Instead of replacing existing institutions and mechanisms, SAICM is intended to coordinate, facilitate and catalyze them. Its scope includes environmental, economic, social, health and labor aspects of chemical safety; agricultural and industrial chemicals; and chemicals at all stages of their life-cycle, including in products. Processes under SAICM are intended to take due account of instruments and processes that have been developed to date, and be flexible enough to deal with new ones without duplicating efforts. Included in its objectives are risk reduction, knowledge and information dissemination, effective governance, capacity-building and technical cooperation, and elimination of illegal international traffic in chemicals. Page 3 of 34 DRAFT 8/27/2009 Complementing these multi-lateral environmental agreements are a wide array of legal, professional and program instruments and approaches carried out by national and regional governments, businesses, and non-governmental organizations. These instruments may be regulatory, economic, technical, cooperative or voluntary, and can be categorized by goal (Table 1). The earliest instruments concentrated on remediating past pollution and controlling the emission of pollutants at “the end of the pipe.” By the 1990s, these efforts had expanded to preventing pollution, managing chemical information and managing chemicals in products. More recently, efforts have been made to promote safer alternatives and to find ways to generate safer chemicals. Table 1: Instruments for Sound Management of Chemicals Goal of instrument Timeframe Controlling Chemical Pollution 1970+ Remediating Contaminated Sites and Managing Waste Chemicals 1970+ Preventing Chemical Pollution 1990+ Managing Chemical Information 1990+ Managing Chemicals in Products 1990+ Promoting Safer Alternatives 2000+ Generating Safer Chemicals 2000+ In the sections that follow we describe in more detail each of these broad areas of instruments and approaches. Controlling Chemical Pollution Instruments for controlling chemical pollution (Table 2) typically are regulatory or economic in nature, and most often take a chemical-by-chemical or single environmental media approach. For example, the Clean Water Act 3 in the United States specifies discharge limits to water bodies for specific contaminants. In Europe, several approaches to controlling chemical pollution have been employed by different countries. For example, the use of trichloroethylene in Sweden has been banned. In Germany, strict technical controls are mandated. And, in Norway, high taxes are imposed on trichloroethylene purchases.4 Each approach offers certain advantages. Page 4 of 34 DRAFT 8/27/2009 Table 2: Instruments for Controlling Chemical Pollution Instrument Examples Type Chemical Use and Import Regulations Chemical Control and Occupational Exposure Laws, ILO Conventions Regulatory Chemical Release Restrictions Environmental Media Protection Laws Regulatory Chemical Bans and Phase Outs National Chemical Bans, Montreal Protocol Regulatory Chemical Waste Fees European Waste Management Fees Economic Environmental Liability Requirements EU Environmental Liability Directive Economic Remediating Contaminated Sites and Managing Waste Chemicals Instruments for the control of pollutants often are accompanied by technical and economic approaches for cleaning up contamination (see Table 3). For example, the US “Superfund” program – the Comprehensive Environmental Response, Compensation and Liability Act of 1980 – addresses the remediation of abandoned hazardous waste disposal sites. It authorizes the US environmental Protection Agency to clean up such sites and to require “responsible parties” to either perform remediation activities or reimburse the government for cleanups. The Organisation for Economic Co-operation and Development (OECD) first published its Guiding Principles for Chemical Accident Prevention, Preparedness and Response in 1992; it was updated and revised in 2003. 5 The Guiding Principles are intended to assist in the safe design and operation of chemical plants and to plan for response action in the event of accidents. They include guidance on: Preventing chemical accidents resulting from technological and natural causes, as well as possible terrorist acts; Planning for emergencies and communicate effectively if they occur; Responding to accidents and minimize their adverse effects; and Following up, including clean-up action and accident reporting. An example of an instrument that deals with legacy chemical storage management is the Africa Stockpiles Programme (ASP). Stockpiles of obsolete pesticides in Africa threaten human health and the environment, with a disproportionate burden on those living in poverty. ASP is a multistakeholder initiative whose participants include NGOs, government, United Nations agencies, and the private sector. It works within selected countries (seven in the first project) to provide training and capacity building as well as cleanup and prevention activities, and is financed through a multi-donor trust fund. 6 Page 5 of 34 DRAFT 8/27/2009 Table 3: Instruments for Remediating Contaminated Sites and Managing Waste Chemicals Instrument Examples Type Emergency Response and Spill Management Programs OECD Guiding Principles, National Programs Technical Site Clean Up Programs US “Superfund” Technical, Economic Post Clean up Management US “Brownfields” Program Technical Legacy Chemical Storage Management SAICM National Implementation Plans; Africa Stockpiles Programme Technical Preventing Chemical Pollution After many years of efforts to control and remediate chemical pollution, on an individual chemical, environmental media, or site level, it became apparent that a broader approach would be more effective in meeting environmental quality goals. In the 1990s instruments were developed that looked farther “upstream,” to preventing pollution and reducing the use of toxics, rather than controlling emissions or remediating contamination (Table 4.) The Massachusetts Toxics Use Reduction Act (TURA) is an example of a law that puts forward a cooperative model, with government providing technical assistance and education to businesses, to help them plan ways to reduce their reliance on toxic chemicals. By 2005, companies that had been in the program since 1990 had reduced their toxic chemical use by 40 percent; toxic byproducts by 71 percent; toxics shipped in product by 41 percent; on-site releases of toxics to the environment by 91 percent; and transfers of toxics off-site for further waste management by 60 percent. 7 UNEP’s Safer Production activities within the APELL program (Awareness and Preparedness for Emergencies at Local Level) involve cooperative efforts between communities, industry associations, and industrial supply chains. As defined by UNEP, “Safer Production comprises the tools, guidelines, and management principles implemented at site and local level to ensure both the safety and health of workers in facilities that manufacture, store, handle or use hazardous substances, as well as the prevention of releases of these substances into the environment.” As part of the APELL program, a guidance document for government was completed by UNEP in 2009: A Flexible Framework for Addressing Chemical Accident Prevention and Preparedness. Page 6 of 34 DRAFT 8/27/2009 The framework is described as “flexible” because it can be adapted by governments to fit their specific circumstances. 8 In 1989, UNEP launched its Cleaner Production Program as a initiative for bringing the capacity and know how of the industrialized countries to the needs of the developing countries and the countries in transition to implement environmentally sound industrial practices and avoid the costly and destructive industrial pollution and wastes of the past. In 1994 UNEP began to sponsor and encourage the development of National Cleaner Production Centers in targeted countries throughout the world. These centers offer technical assistance and business training on cleaner technologies and practices to local businesses and governments. Table 4: Instruments for Preventing Chemical Pollution Instrument Examples Type Pollution Prevention Planning Toxics Use Reduction and P2 Facility Planning Technical Chemical Accident Prevention EU “Seveso II Directive”, UN APELL Technical Cleaner Production Assessments UN NCPCs Technical Chemical Use Fees and Taxes Norwegian Biocidal Products Directive Registration Fees Economic Chemical Leasing Chemical Product Services, Austria’s SAFECHEM Economic Managing Chemicals in Products Increasing attention is being paid to the issue of toxic substances in products or articles. While many chemicals help in creating highly functional items, and are manufactured, used and disposed of safely, many other pose threats to human health and the environment at different stages of the product life cycle. Efforts to manage chemicals in products or articles began to be developed during the 1990s, in a variety of countries. These include product design, product declarations, eco-labeling, product standards and certifications, environmentally preferred product procurement policies and product stewardship and take-back programs (see Table 5). Voluntary environmental performance labels – commonly called “eco-labels” – are intended to provide “…verifiable and accurate information…to encourage the demand for and supply of those products and services that cause less stress on the environment, thereby stimulating the potential for market-driven continuous environmental improvement.” 9 Examples of eco-labels involving third party certification of a product include the German Blue Angel label, and the Page 7 of 34 DRAFT 8/27/2009 Nordic “Swan.” Another type of label is based on self-certification by manufacturers, for example, the US Energy Star label. Another approach to managing chemicals in products is to employ preferred and restricted substance lists, and environmental product declarations. These systems typically are designed around a particular sector or by a single company. For example, the Swedish commercial vehicle manufacturer Scania designates certain chemicals that are not be used, or are to be used only in particular circumstances. The company provides an Environmental Product Declaration to customers, and helps suppliers find alternatives to listed substances. 10 Table 5: Instruments for Managing Chemicals in Products Instrument Examples Type Product Design Dutch Eco-Design Voluntary Product Declarations Swedish Product Declarations Cooperative Eco-Labeling Blue Angel, Nordic Swan, Canadian Ecologo Voluntary Product Standards and Certification ISO, ANSI Voluntary Environmentally Preferred Product Procurement Policies (EPP) Product Stewardship and Take Back /Extended Producer Responsibility US Executive Order 13423, Swedish Instrument for Ecologically Sustainable Procurement Staples Consumer Electronics Take-back, Carpet America Recovery Effort (CARE); EU WEEE Regulatory Voluntary or Regulatory Managing Chemical Information Individual countries and groups of nations have devised a variety of instruments for managing chemical information. These include pollutant release and transfer registries, product ingredient registries, chemical hazard characterization and labeling systems, chemical manufacturing and use inventories, and systems for disclosing chemicals in the supply chain (see Table 6). The Emergency Planning and Right-to-Know Act (EPCRA) was enacted in the United States in 1986. It requires industry to report the locations and quantities of chemicals stored on-site, and the USEPA and state governments to collect information on releases and transfers of specified toxic chemicals from industrial facilities. That data is made available to the public through the Toxics Release Inventory (TRI). Related legislation added the requirement that data on waste management and source reduction activities be reported under TRI. The goal of TRI is to “…empower citizens, through information, to hold companies and local governments accountable in terms of how toxic chemicals are managed.” 11 Page 8 of 34 DRAFT 8/27/2009 More recently, the European Union’s Registration, Evaluation, Authorisation and Restriction of Chemicals program (REACH), which entered into force in 2007, sets up a system whereby manufacturers and importers of chemicals must identify and manage risks related to the substances they manufacture and market. 12 The legislation is complex, as it replaces close to 40 previous chemical safety and reporting laws. As its name suggests, the major provisions involve 1) the registration of safety data on chemical produced in quantities of 1 tonne or more annually, with additional requirements for quantities of 10 tonnes or more; 2) the evaluation of the data that is submitted, and in some cases further evaluation of certain substances for potential risks to human health or the environment; 3) a requirement for authorization before substances of very high concern are used or imported; and 4) restrictions on chemicals with “unacceptable risks” to human health or the environment. 13 Another international system for managing chemical information is the Globally Harmonized System of Classification and Labeling (GHS). Its goal is to ensure that information on physical hazards and toxicity from chemicals is made available during handling, transport and use. It was devised – and it continues to be revised and expanded -- by an international Committee of Experts. Adoption of the GHS was endorsed at the 2002 Johannesburg summit. An aspect of the GHS that facilitates its global use is the use of pictograms, employing symbols that are easily understood across cultures and by those with limited literacy. 14 Table 6:Instruments for Managing Chemical Information Instrument Examples Type Pollutant Release and Transfer Registries US TRI, Canadian NPRI, Aarhus “Kiev Protocol” Regulatory Product Ingredient Registries Scandinavian Product Registries Cooperative? Chemical Hazard Characterization and Labeling GHS (Globally Harmonized System of Classification and Labeling), EU REACH Voluntary or Regulatory Chemical Manufacturing and Use Inventories EU REACH Regulatory Chemical Disclosure in the Supply Chain CleanGredients, WERCS Voluntary Promoting Safer Chemical Alternatives Instruments for promoting safer chemical alternatives typically are technical in nature, and tend to require extensive collection and analysis of information of chemical characteristics (see Table 7). Chemical screening & characterization. Sound management of chemicals requires good decision making under conditions of uncertainty. Processes are needed to facilitate decision-making on Page 9 of 34 DRAFT 8/27/2009 chemicals of elevated concern. Assessment, characterization, and prioritization of chemicals make it possible for governments with limited budgets to target their resources effectively. Chemicals may be categorized on the basis of inherent hazard or also on their exposure potential, use, or production volume. Rapid risk assessments can be useful in prioritizing chemical hazards although effective decision-making cannot be contingent on chemical-by-chemical risk assessments. (Tickner 2008) Alternatives assessment. One obstacle to reducing the use of toxic chemicals is the perceived lack of effective safer alternatives. In assessing alternatives, issues include the functional requirements for various uses, cost, availability, and environmental, health and safety considerations. An example of an alternatives assessment process is the 2006 “Five Chemicals” report done by the Massachusetts Toxics Use Reduction Institute. The Lowell Center for Sustainable Production has also developed an Alternatives Assessment Framework. Table 7: Instruments for Promoting Safer Chemical Alternatives Instrument Examples Type Chemical Screening SIDS, OECD HPV Technical Chemical Characterization and Priority Setting Dutch “Quick Scan”, German “Column Model”, Green Screen Technical Alternatives Assessment TURI 5 Chemicals, LCSP Framework Technical Life Cycle Assessment ISO 14040, GaBi, SimaPro Technical Generating Safer Chemicals In recent years, a new approach to the manufacture and use of chemicals has emerged – Green Chemistry. Rather than deal with the potential impacts of chemicals “downstream,” Green Chemistry looks to reduce risk by generating chemicals that inherently are safer. The guiding framework for Green Chemistry is set forth in “The 12 Principles of Green Chemistry” (Table 8.) Table 8: The 12 Principles of Green Chemistry 15 1. Prevent waste: Design chemical syntheses to prevent waste, leaving no waste to treat or clean up. 2. Design safer chemicals and products: Design chemical products to be fully effective, yet have little or no toxicity. 3. Design less hazardous chemical syntheses: Design syntheses to use and generate substances with little or no toxicity to humans and the environment. 4. Use renewable feedstocks: Use raw materials and feedstocks that are renewable Page 10 of 34 DRAFT 8/27/2009 5. 6. 7. 8. 9. 10. 11. 12. rather than depleting. Renewable feedstocks are often made from agricultural products or are the wastes of other processes; depleting feedstocks are made from fossil fuels (petroleum, natural gas, or coal) or are mined. Use catalysts, not stoichiometric reagents: Minimize waste by using catalytic reactions. Catalysts are used in small amounts and can carry out a single reaction many times. They are preferable to stoichiometric reagents, which are used in excess and work only once. Avoid chemical derivatives: Avoid using blocking or protecting groups or any temporary modifications if possible. Derivatives use additional reagents and generate waste. Maximize atom economy: Design syntheses so that the final product contains the maximum proportion of the starting materials. There should be few, if any, wasted atoms. Use safer solvents and reaction conditions: Avoid using solvents, separation agents, or other auxiliary chemicals. If these chemicals are necessary, use innocuous chemicals. Increase energy efficiency: Run chemical reactions at ambient temperature and pressure whenever possible. Design chemicals and products to degrade after use: Design chemical products to break down to innocuous substances after use so that they do not accumulate in the environment. Analyze in real time to prevent pollution: Include in-process real-time monitoring and control during syntheses to minimize or eliminate the formation of byproducts. Minimize the potential for accidents: Design chemicals and their forms (solid, liquid, or gas) to minimize the potential for chemical accidents including explosions, fires, and releases to the environment. While the greatest concentration of green chemistry activities is taking place in the developed nations, efforts are being made to implement green chemistry in developing countries. For example, China’s National Natural Science Foundation is funding numerous green chemistry projects. In addition, some European and North American universities are partnering with their counterparts on other continents on specific research, development and educational projects, and the International Union of Pure and Applied Chemistry (IUPAC) helped fund two textbooks – Green Chemistry in Africa and Green Chemistry in Latin America – to be used at universities in those areas. Table 9: Instruments for Generating Safer Chemicals Instrument Examples Type Green Chemistry Green Chemical Synthesis and Processing, Twelve Principles of Green Chemistry,” US Presidential Awards, EU Green Chemistry Awards Technical Green Engineering “Twelve Principles of Green Engineering” Technical Research Investments EU SusChem Platform, US Green Chemistry Bill Economic Page 11 of 34 DRAFT 8/27/2009 3. Tailoring Chemical Policies to Enhance Economic Development Chemicals are critical to economic development. The adoption of appropriate government instruments and approaches has been a hallmark of those nations that have broadly benefited from the development of a chemical industry and the manufacture of chemical intensive products. However, many developing countries and countries in transition do not have the full capacity to effectively use the opportunities that safe and sustainable chemical management offers. There are many reasons for this, including: Many countries have yet to adopt full sets of appropriate instruments and approaches; Capacity to implement instruments and approaches is unevenly developed across countries; Instruments and approaches are not internationally coordinated and harmonized; and Appropriate instruments and approaches are not integrated into national economic development planning and international development funding. In contrast, many highly industrialized countries are finding that the chemical policies that once were appropriate to economies based on manufacturing are increasingly ineffective to economies now based on services and product consumption. Chemical pollution and waste in such an economy is less likely to be point specific and more likely to be ubiquitous across markets, creating constant, low-level chemical exposures. In considering instruments and tools for advancing the sound management of chemicals that are differentiated by local need, yet integrated by common goals, situational appropriateness is important. The instruments and approaches for chemical management selected for each country should be appropriate to the specifics of a nation’s economic development, because: chemical uses vary by type of development; governments vary in terms of chemical management capacity; and global markets may push polluters to countries with weaker policies. Table 10 presents a framework for considering chemical management instruments and approaches and different degrees of economic development. In this framework, economies can be, roughly, divided into five types: small scale agricultural economies; large scale agricultural economies; decentralized industrial economies; advanced industrial economies; and consumer/service economies. In some nations, only one or two of these categories may dominate its economy; in others, the economy may be characterized by several or all of the types of development. The full spectrum of development may be present across the different regions of some large countries. The principal challenges associated with sound management of chemicals differ by type of economy, as shown in Table 11. For example, an economy based primarily on small scale Page 12 of 34 DRAFT 8/27/2009 agriculture may face chemicals management challenges associated primarily with management of pesticides and other agricultural chemicals. Concerns may include lack of data and information; lack of capacity for safe management of pesticides; and lack of government capacity for sound chemicals management. At the other end of the spectrum, the problems facing a consumer/service economy may include exposure to metals, PBTs, CMRs, and nanomaterials. Much of the exposure may occur through legacy contamination from past industrial activities, or through exposure to toxic chemicals in consumer products. A consumer/service economy may also generate large amounts of waste containing toxic chemicals, which may then be shipped to less economically developed regions. Table 10: A Framework for Considering Chemicals and Economic Development Type of Economic Development Small Scale Agriculture Large Scale Agriculture Decentralized Industrial Chemicals Pesticides Disinfection chemicals Pesticides Fertilizers Fuels Disinfection chemicals Metals Inorganics Basic bulk chemicals [textiles, rubber & plastics, pharmaceuticals, petrochemicals?] Metals Bulk chemicals Specialty chemicals Production chemicals PBTs CMRs Nanochemicals Metals PBTs CMRs Nanochemicals Advanced Industrial Consumer/Service Concerns Lack of data Weak chemical training Little government capacity Lack of data Limited government capacity Waste imports Lack of data Limited government capacity Weak waste management Waste imports Confidential data Heavy occupational exposures Large waste exports Lack of data Limited government authority Large waste exports Just as the highest-priority chemicals management challenges vary among economies, there may also be variation in the instruments and approaches that are most useful. For example, a small scale agricultural economy may have a particular need to develop the following types of instruments and approaches for sound management of chemicals: restricting imports; Page 13 of 34 DRAFT 8/27/2009 development of emergency response infrastructure, site clean-up, and management of legacy chemicals; cleaning production planning and chemical leasing; product labeling or other approaches to making sure people understand the hazards of pesticides and other chemicals; and perhaps most important of all, sustainable agriculture practices. In either a decentralized or an advanced industrial economy, there is scope for additional instruments. For example, in addition to regulation of industrial releases, hazardous waste fees and liability requirements may be important. For products, extended producer responsibility is an important element, ensuring that product manufacturers have an incentive or a requirement to create products for which they are responsible throughout the life cycle. Similarly, the creation of chemical registries can significantly facilitate sound decision making by industry. Additional instruments of interest for these economies include chemical screening, alternatives assessment, and life cycle assessment, as well as green chemistry and investments in research on safer alternatives. Table 11: Instruments and Approaches Appropriate for Types of Economic Development Type of Development Small Scale Agriculture Large Scale Agriculture Decentralized Industrial Advanced Industrial Page 14 of 34 Instruments and Approaches Restrict imports Emergency Response, site clean-up, legacy chemical management CP Planning, Chemical Leasing Product labeling Sustainable agriculture practices (organic agriculture & IPM) Hazard communication Restrict Imports, regulate releases Emergency response, site clean up CP Planning, chemical leasing Product labeling Chemical registries Sustainable agriculture practices (organic agriculture & IPM) Hazard communication Restrict Imports, regulate releases Emergency response, site clean up CP Planning, chemical leasing Product labeling Chemical registries 1. 2. 3. 4. 5. 6. 7. Regulate releases, waste fees, liability requirements Emergency response, site clean up P2 & CP Planning, chemical fees, chemical leasing Product design & labeling, EPP. EPR Chemical registries, PRTRs, supply chain communication Chemical screening, alternatives assessment, LCA Green chemistry and research investments DRAFT 8/27/2009 Consumer/Service Regulate releases, waste fees, liability requirements P2 & CP Planning, chemical fees, chemical leasing Product design, labeling & standards, EPP, EPR Chemical registries, supply chain communication Chemical screening, alternatives assessment, LCA Green chemistry and research investments Hazard communication 4. Comprehensive Chemicals Policies Selecting policy instruments and approaches appropriate for each country and industry requires significant thought and attention. However, if these decisions are to be truly effective they must fit within the common set of goals and commitments laid out in the SAICM strategy. Agenda 21 and SAICM offer a common global goal for all nations and industries. However, these differentiated site and industry-specific approaches cannot leave large gaps and un-attended chemicals, chemical uses and potential hazards. We need to develop comprehensive chemicals policies that systemically integrate the wide array of instruments and approaches into a comprehensive strategy for chemical safety and sustainable development. Such policies need to: focus on all chemicals; promote sufficient chemical characterization; provide public information; support safer chemical research and innovation; encourage the substitution of chemicals of high concern with safer and more sustainable alternatives; and promote coordination, cooperation, consistency and cost-effectiveness A comprehensive approach to chemicals policy needs to be respectful of the systemic nature of chemical development and use. There is a need to take account of how markets function and technologies diffuse through these markets. Chemicals do not stand alone. They are constituents of materials, parts of products and embedded in systems. We need to understand that chemicals, the chemical industry and the economy are all intertwined in a complex set of systems and sub systems such that changes— even quite minor changes, like closing down the manufacture of a chemical—can have broad and sometimes quite indirect effects throughout the system. We need to develop models for policy interventions that respect the highly integrated ways in which chemicals function in the economy. There is need to move from a focus on single chemicals to a focus on systems of chemical production, use, and disposal, on families of chemicals, on sets of functions and on collections of firms. This requires better understanding chemical and material production and use systems in order to understand critical leverage points that either inhibit or lead to change. It also requires Page 15 of 34 DRAFT 8/27/2009 understanding chemical markets and the systems that finance these markets. It means working more broadly through supply chains, organizing and encouraging dialogues along the value chain. It may also mean expanding the role of government to include, in addition to regulating, a role as a facilitator, information source, and source of technical assistance. The market is a dynamic environment built up of complex systems that determine what is produced, what is sold and what is used. If we want to successfully introduce health and environmental values into the market, reduce chemical wastes and emissions, and transition dangerous practices and technologies to safer ones we need to make dangerous chemicals undesirable and encourage the development of more preferred substances. Comprehensive chemicals policies share several characteristics 16 that need to be considered in developing a framework for the sound management of chemicals. 1) They are inclusive, and address all chemicals. Substances that are relatively benign, as well as toxic and hazardous substances, should be covered by a comprehensive chemicals policy. 2) They categorize chemicals into groupings, or tiers. These tiers range from substances that are undesirable and should be avoided, to those that are preferred. Categories can be based on degree of concern. Substances of significant concern can be differentiated from substances of lesser concern, substances of unknown concern, and substances of little concern. 3) They are hazard-based rather than exposure-based. Considerations of risk are useful to screen chemicals initially and to set priorities. However, the intrinsic hazards of a chemical, not the potential for exposure, is the primary consideration in determining how a chemical should be categorized. 4) They provide open access to information. Information is critical to making informed judgments. There is a significant need for more research on the environmental and human health effects of the chemicals commonly manufactured and used, especially, the thousands of substances used in small quantities. However, the generation of this data has no public value if it is not made transparent and openly available. The validity of science is only as good as the openness with which its results can be shared, reviewed and evaluated. 5) They aim to move chemical use from higher hazard to lower hazard substances. Comprehensive policies are not intended as passive ‘maps” of chemical use; they are created and used to drive and guide reductions in the generation of chemical wastes and emissions and to promote chemical substitutions in manufacturing and product design. 6) They promote research and innovation. Comprehensive chemicals initiatives should push the development of safer and more environmentally-compatible chemicals. As a consequence, such policies can serve as drivers for better chemical data collection and more science to develop new, safer, and more effective chemicals—chemicals that need to be developed and synthesized through green chemistry principles. Page 16 of 34 DRAFT 8/27/2009 Insights from Germany’s Ecological Industrial Policy A related model of interest can be found within the German government’s proposed approach to developing an ecological industrial policy. Ecological industrial policy has a number of goals: protect natural resources; foster economic growth and create new jobs; internalize external costs; use resources efficiently; initiate technological leaps; and assume responsibility for international impacts of domestic activities. The vision of ecological industrial policy applies to the full range of environmental goals. However, many of the components can be applied specifically to the task of sound chemicals management. Principles of ecological industrial policy include the following. Do not allow market prices “to obscure the ecological truth.” This includes admitting that “there are limits to monetarisation of ‘true costs’” due to a variety of factors; thus, “ a realistic policy has to take these limits into account and must not rely entirely on price mechanisms.” Use subsidies wisely. German government studies have found that subsidies with harmful effects on the environment are many times higher than subsidies that benefit the environment. Altering subsidies to ensure environmental benefits – or eliminate support for harm to the environment – is an important tool available to governments. Work with both supply and demand mechanisms simultaneously to jumpstart markets in environmentally friendly goods and services. Initiate pilot projects to demonstrate and test sustainable solutions. Mobilize all actors (consumers, producers, industry, society, and state) to solve environmental problems. Specific instruments and approaches for achieving environmentally sound outcomes include the following. Again, the German policy document lists these instruments and approaches for the full range of environmental goals, but each can be applied specifically to the task of sound chemicals management. A few of these options are listed below: Strengthen economic instruments. These can include market-based instruments using price mechanisms; removal of counterproductive subsidies; introduction of new subsidies; and ecological taxes, among other instruments.2 Encourage investment and simplify finance. The document recommends creation of a “climate protection innovation fund” to ensure that capital is available for new projects that could reduce greenhouse gas emissions. A similar fund could be proposed for projects with the potential to generate safer alternatives to specific uses of toxic chemicals. In the financial realm, 2 In the German example, one recommendation is a review of the value-added tax (VAT) system, which currently provides reduced taxes for some activities that may have a negative ecological impact. Page 17 of 34 DRAFT 8/27/2009 one potentially valuable instrument is to develop share indices to measure the level of investment in environmentally friendly activities. Make use of regulatory law. “Regulatory law is the classic instrument of environmental protection policy. It is clearly targeted and applies equally to all. … More than a quarter of a century ago, Harvard economist Michael Porter made an empirical investigation of the relationship between environmental regulation, innovative activity and competitiveness. He developed the theory that a strict environmental policy prompts companies to improve quality, increase efficiency and make innovations that can result in medium- and long-term competitive advantages not only for the regulating country, but also for the regulated companies themselves.” Make benchmarks transparent, establish labels and top runners. “Marks and labels provide important additional information, bring transparency to the market and help identify the top runners in the relevant product group. This enables consumers to give important signals. It is only on the basis of such information that purchase decisions become genuine decisions.” Additional instruments and approaches are described in detail in the German policy document. Source: “Ecological Industrial Policy: Sustainable Policy for Innovation, Growth and Employment,” BMU Brochure (October 2008) available at http://www.bmu.de/english/ecological_industrial_policy/downloads/doc/43832.php. Also see additional, related information in “A Growth Strategy for Germany: New Jobs through Investments in Energy and Environment,” BMU Brochure (June 2009), available at http://www.bmu.de/english/ecological_industrial_policy/downloads/doc/44573.php. 5. Capacity-Building to Achieve the Sound Management of Chemicals Notwithstanding the progress that has been made to improve chemicals management since the United Nations Conference on Environment and Development in Rio de Janeiro in 1992, many countries lack the capacity to manage chemicals soundly. At the national, sub-regional, regional and global levels it is a challenge to address chemical safety issues due to inadequate resources. This is particularly true in many developing countries and countries in transition. The international community needs to formulate approaches to bridge the widening gap between developed countries on the one hand and developing countries on the other. Enhanced cooperation must be a priority, with the aim of strengthening the capacities of developing countries and countries with economies in transition to manage chemicals and hazardous wastes, and to promote the transfer of cleaner and safer technology to those countries. Page 18 of 34 DRAFT 8/27/2009 Capacity-building and technical assistance in relation to all aspects of the sound management of chemicals are among the essential elements for achieving the 2020 chemicals safety goal. A focus on capacity building efforts will entail: Development and implementation of sustainable capacity-building strategies in developing countries and countries with economies in transition; Promotion of, coordination of, and access to information on capacity-building for the sound management of chemicals and enhancing transparency and accountability; Inclusion of capacity-building for the sound management of chemicals as a priority in social and economic development strategies -- including national sustainable development strategies, poverty reduction strategies and country assistance strategies -- and making chemicals an important part of national and international policy; Encouraging and facilitating appropriate use by developing countries and countries with economies in transition of work already done and chemicals management models already established by other countries and international organizations; Promoting the awareness of donors, multilateral organizations and other relevant actors of the relevance of chemical safety for poverty reduction and sustainable development. The proposed strategy by the IOMC to assist countries in strengthening their national chemicals management capacities, in order to effectively implement SAICM and achieve the 2020 goal for sound chemicals management, is targeted at benefiting individuals (for example, resource users, owners, consumers, community and political leaders, private and public-sector managers and experts), institutions, and national organizations. The strategy also provides the opportunity to enable the IOMC to further identify the role of the Participating Organisations to assist with identified capacity-building needs. The seven- action Strategy entails: (i) Strengthening capacities for engagement: strengthening capacities to engage proactively and constructively with one another in sound chemicals management. (ii) Increasing capacities to generate, access and use information and knowledge: increasing capacities to research, acquire, communicate, educate and make use of pertinent information, to be able to diagnose and understand chemicals management challenges and identify potential solutions. (iii) Enhancing capacities for policy and legislation development: enhancing capacities to plan and develop effective policies and legislation, related strategies and plans – based on informed decision-making processes for sound chemicals management. (iv) Strengthening capacities for programme development: strengthening capacities to develop and implement effective programmes for integrated and sound chemicals Page 19 of 34 DRAFT 8/27/2009 management. (v) Strengthening capacities for management and implementation: strengthening capacities to enact chemicals management policies and/or regulation decisions, and to plan and execute relevant sustainable chemicals management actions/solutions. (vi) Increasing capacities to monitor and evaluate: increasing capacities to effectively monitor and evaluate project and/or program achievements against expected results and to provide feedback for learning, adaptive management and to suggest adjustments to the course of action if necessary to achieve sound chemicals management. (vii) Improving capacities to mobilize resources: improving capacities to effectively mobilize resources at the national level to support actions to strengthen implementation of chemicals management activities. The IOMC strategy and the further work of SAICM needs to carefully consider the potential for encouraging new and strengthening existing government chemical policy instruments and approaches that are appropriate to the economic conditions and strategies of developing countries. While respecting the capacity building needs of developing countries, these efforts must be integrated into more comprehensive and coordinated global chemical management strategies if we are to achieve the 2020 goals for the sound management of chemicals. Key Issues Shaping the Strategy A number of key issues identified as crucial in shaping and informing the capacity building strategy, include: (i) Commitment and coordination at the national level, both among ministries and between different stakeholders (including government, the private sector and civil society) is essential for sound management of chemicals, achieving this has however been a major and on-going challenge for many countries. (ii) The need to ensure complementarity of activities across the sectors represented by the IOMC Participating Organisations (POs), and avoid duplication. (iii) Increased activity at the country level (e.g. through country and regional offices) within some IOMC POs and less at “headquarters”, where concentration is shifting from project implementation to policy advice and programme and project development. While this can result in more effective delivery on the ground, it can also pose coordination challenges which must be addressed. (iv) While ongoing and predictable funding is desirable for delivery of programmes of assistance, this has become difficult to achieve given the shift over time from resources being available from regular budgets to activities requiring extra-budgetary funding. Moreover, while some activities (e.g. outreach and awareness raising) Page 20 of 34 DRAFT 8/27/2009 may require relatively modest inputs, the establishment and/or strengthening of core chemicals management infrastructures at the national level is dependent on the priority it is given by national governments. (v) Development assistance for chemicals management increasingly requires “mainstreaming” and integration with national development priorities and plans (e.g. for UN organizations, to be linked to United Nations Development Assistance Framework, UNDAF) and to be “country driven” (countries showing priority given to sound chemicals management). The rationale for integrating chemicals into development planning and assistance include the fact that chemicals are crosscutting in nature and fundamental to sectoral and national development and that managing and reducing risks arising from chemicals exposures as a result of national paths of economic and social development are essential to public policies (Table 12). In addition, the GEF has more recently engaged in providing support to specific international conventions (such as the Stockholm Convention) thereby impacting traditional approaches to development assistance for chemicals management. Table 12 Rationale for integrating chemicals into development planning and assistance Sector Examples of Sector Relevant Chemicals / Chemical Classes Agriculture & Pest Management Energy Extractive Industries Healthcare Households Industry Infrastructure Manufacturing Telecommunications & Info. Technology Transportation Waste Management Water Resources Organophosphates, POPs, PTSs, ODS SO2, NOx, PCBs, Dioxin, HAPs, VOCs, Heavy metals Dioxin, DDT Particulates (SO2, NOx), dioxin All (heavy metals, POPs, other toxics) Heavy metals, POPs, asbestos Solvents, Heavy Metals, PVCs, ODS Heavy metals, solvents Lead, SOx, NOx, dioxin, hydrocarbons, PAH Dioxin, organic solvents, PCBs PAH, Water Resources Heavy metals, PCPs, PCBs Abbreviations: POPs: persistent organic pollutants; PTS: persistent toxic substances; ODS: ozone depleting substances; SO2: sulfur dioxide: NOx: nitrous oxides; PCB: polychlorinated biphenyls; HAP: hazardous air pollutants; VOC: volatile organic compound; DDT: dichloro diphenyl trichloroethane; PVC: polyvinyl chloride; PAH: polyaromatic hydrocarbon; PCP: phenylcyclohexylpiperidine (vi) Initiatives should also seek to integrate sound chemicals management into other thematic issues such as climate change, energy, food availability (agriculture), economics, etc. (vii) In relation to SAICM, the scale of the Global Plan of Action (GPA) and the absence of clear priorities provides challenges in defining a focus on capacity building. In order to assist with the identification of capacity needs, it can be helpful to identify the situation that will exist without a capacity intervention. The cost of inaction in managing Page 21 of 34 DRAFT 8/27/2009 chemicals is not fully recognised or understood in development planning processes, including within the industrial, health, labour and agricultural sectors. For example, if capacity for sound chemicals management is not strengthened, what can be the possible negative impacts on the environment, energy use, human health, and economic growth? Operationalising the Strategy In operationalising the strategy, key entry points and actions will include: Entry points (i) The SAICM GPA includes a large number of activities to which IOMC POs may contribute. (ii) At the international and national levels, it is crucial to identify how sound chemicals management contributes to general issues of sustainable development, including the Millennium Development Goals (MDGs) (iii) At the national level, operationalising the strategy will require linkages to national development planning processes/plans (Poverty Reduction Strategy Paper (PRSP)/Country Assistance Strategy (CAS), Country Environmental Assessments (CEA), Common Country Assessment (CCA), Strategic Environmental Assessment (SEA), Decent Work Country Programmes (DWCP)) in the UNDAF context to ensure strategic engagement of these initiatives for access to resources and disbursement of funds for specific issues. Annex 4 provides an example of how the World Bank approaches the development assistance planning process. Specific Actions (i) Promoting SAICM in national activities (e.g. in their relevant sectors). (ii) Updating relevant governing bodies regarding progress made with SAICM implementation. (iii) Identifying, in collaboration with countries and other partners and building upon existing frameworks such as SAICM, defined goals as part of the strategy (e.g. implementation of specific tools, such as GHS, at the national level) since the overall objective of sound chemicals management is broad. (iv) Ensuring improved use of existing capacity-building activities to advance and implement the strategy (e.g. using existing projects as a platform in the first stages) in order to achieve poverty reduction, sustainable development and the protection of human health and the environment. (v) Promoting the uptake and use of available resources within Governments, IGOs, NGOs and the Private Sectors (including existing materials such as the IOMC SAICM Resource Guide and guidance for developing a National SAICM capacity assessment). (vi) Review existing guidance and training materials for consistency, gaps, etc. and update as necessary. 6. Recommendations for the Way Forward Page 22 of 34 DRAFT 8/27/2009 Reaching the global goal by 2020 for the sound management of chemicals will require an integrated and comprehensive strategy that encourages policy instruments and approaches appropriate to specific economic conditions and promotes rapid increases in the technical and resource capacities of developing countries and countries in transition. While these are the broad goals that we began this paper with it is useful to close with more specific objectives for tasks that could be accomplished at the global level that would hasten the achievement of safe and sustainable chemicals management. These recommendations are suggested as tasks that could be encouraged or initiated by UNEP, however, in many cases, such efforts will require cooperation and collaboration with other international agencies, national governments, industry associations and non-governmental organizations. Recommendations for UNEP a. Encourage and promote the coordinating and information and services sharing roles of SAICM in advancing a common global strategy for the sound management of chemicals b. Encourage the development of national and industry plans and roadmaps for implementing the SAICM strategy c. Promote the adoption of chemical management instruments and approaches (voluntary/regulatory; economic/legal, etc.) that are appropriate to the economic conditions of nations and industries, d. Promote professional training, increased financial resources and the provision of technical assistance in building chemical management capacity in developing countries and countries in transition, e. Maintain a central focal point for international communication and information sharing on sound chemicals management, including alternatives to high hazard chemicals, f. Promote instruments for sharing and making public information on chemicals in products and articles g. Provide opportunities for the international sharing of information on chemicals of high concern and chemicals of unknown concern such as nano-engineered substances h. Promote the development and adoption of new chemical management tools such as rapid screening characterization tools and alternatives assessment protocols, i. Assist in the development and adoption of new risk reduction programs in the cleaning up of chemicals wastes and the management and destruction of hazardous chemical stockpiles j. Promote and convene international dialogues on chemical substances of high concern such as heavy metals, very persistent and very bioaccumulative substances, and endocrine disruptors Page 23 of 34 DRAFT 8/27/2009 k. Promote non-chemical and low-chemical alternatives (e.g. changes in agricultural technologies and practices) to the use of high hazard chemicals such as pesticides Recommendations for Research Many of these recommendations lead directly into possible research avenues for the Global Chemicals Outlook. A few potentially valuable research directions are listed here. Linking innovation to chemical risk reduction. Compile information in a “White Paper”on chemicals management instruments and approaches that promote economic development and innovation as they also promote chemical risk reduction. Cost internalization. Research opportunities for funding sound chemicals management activities via cost internalization mechanisms that reduce costs to governments, reduce the generation of hazardous chemical wastes and emissions, and, potentially, improve the efficiencies and economic effectiveness of industries. Green chemistry. Research options for promoting green chemistry in developing and countries in transition such as introducing green chemistry principles and methodologies in existing secondary and tertiary science curricula and partnering local universities and industries with existing green chemistry research programs in developed countries. Safer alternatives. Compile and disseminate information on best practices for alternatives assessment, tools for promoting substitution and programs for the adoption of safer alternatives to toxic substances. Supply chain information management. Research options for promoting the efficient flow of information up and down global supply chains such that firms in developing countries and countries in transition are effectively communicating with first tier manufacturers and commercial retailers about chemical constituents of products and safer alternatives. Page 24 of 34 DRAFT 8/27/2009 APPENDIX Existing Governance Structures for the Sound Management of Chemicals Agenda 21 The Sound Management of Chemicals, first articulated in 1992 in Agenda 2117 of the UN Conference on Environment and Development, places significant responsibilities on governments and industries. Agenda 21 states: “A considerable number of international bodies are involved in work on chemical safety. In many countries work programmes for the promotion of chemical safety are in place. Such work has international implications, as chemical risks do not respect national boundaries. However, a significant strengthening of both national and international efforts is needed to achieve an environmentally sound management of chemicals.” Six areas of effort were proposed in Agenda 21 to achieve sound chemical management: 1. 2. 3. 4. 5. 6. Expanding and accelerating international assessment of chemical risks; Harmonization of classification and labelling of chemicals; Information exchange on toxic chemicals and chemical risks; Establishment of risk reduction programmes; Strengthening of national capabilities and capacities for management of chemicals; and Prevention of illegal international traffic in toxic and dangerous products. In 2002 at the World Summit on Sustainable Development held in Johannesburg, these areas were revisited, revised and reaffirmed, as described in the Johannesburg Plan of Implementation.18 The Inter-Organization Programme for the Sound Management of Chemicals (IOMC) IOMC, under the administration of the World Health Organization, was formed in 1995 with the goal of strengthening cooperation and coordination in efforts toward chemical safety, and the sound management of chemicals to promote human health and the environment. 19 Seven international organizations participate in IOMC: the Food and Agriculture Organization of the United Nations (FAO); the International Labour Organization (ILO); the Organisation for Economic Co-operation and Development (OECD); the United Nations Environment Programme (UNEP) the United Nations Industrial Development Organization (UNIDO); the United Nations Institute for Training and Research (UNITAR); and the World Health Organization (WHO). The World Bank and the United Nations Development Programme (UNDP) also participate, as observers. International Conventions Page 25 of 34 DRAFT 8/27/2009 Basel Convention on the Control of Transboundary Movements of Hazardous Wastes and their Disposal (1989). The Basel Convention regulates international movement of hazardous and other waste; 170 parties have signed the treaty. The Convention uses the mechanism of Prior Informed Consent, whereby Parties can make shipments of hazardous materials to nonParties only if there is a special agreement. Parties commit to introducing national legislation controlling the traffic of waste, and making illegal traffic criminal. They also commit to the environmentally sound management of waste, and the minimization of transboundary movements of waste. 20 Bamako Convention on the Ban of the Import into Africa and the Control of Transboundary Movement and Management of Hazardous Wastes within Africa (1991). Parties to the Bamako Convention, who must be members of the African Union, agree to ban the import of hazardous and radioactive wastes and all forms of ocean disposal. Parties must minimize the transboundary movement of wastes within Africa, and may do so only with consent of the importing and transit states. They also commit to minimizing the production of hazardous wastes and ensuring that wastes are treated and disposed of in an environmentally sound manner. 21 Rotterdam Convention on the Prior Informed Consent Procedure for Certain Hazardous Chemicals and Pesticides in International Trade (1998.) Signatories cooperate to control international trade in 27 pesticides and five industrial chemicals. Helps Parties to share information on the health and environmental effects of hazardous chemicals, and to build the capacity of developing countries and countries with economies in transition to regulate unwanted imports. 22 Stockholm Convention on Persistent Organic Pollutants (2001.) Goal is to restrict production, use, emissions and import and export of persistent organic pollutants (POPs). Twelve chemicals were originally covered, with nine additional ones added in 2009. Areas of focus include review of additional chemicals, monitoring, technical and financial assistance, capacity building to address waste, evaluation of alternatives to DDT for malaria control, and control of “unintentional” POPS from open burning and incineration. 23 Strategic Approach to International Chemicals Management (SAICM) SAICM is a global policy framework to support efforts to achieve the goal that, by 2020, chemicals should be produced and used in ways that lead to the minimization of significant adverse effects on human health and the environment. 24 It does not replace existing institutions and mechanisms; rather, it is intended to coordinate, facilitate and catalyze them. It was developed through a multi-stakeholder and multi-sectoral consultation, involving representatives of Governments, NGOs and IGOs. The Dubai Declaration on International Chemicals Management, adopted in 2006 at the International Conference on Chemicals Management, is the statement of SAICM’s political commitment: “The sound management of chemicals is essential if we are to achieve sustainable development, including the eradication of poverty and disease, the improvement of Page 26 of 34 DRAFT 8/27/2009 human health and the environment and the elevation and maintenance of the standard of living in countries at all levels of development.” Its scope includes environmental, economic, social, health and labor aspects of chemical safety; agricultural and industrial chemicals, with a view to promoting sustainable development; and chemicals at all stages of their life-cycle, including in products. Processes under SAICM are intended to take due account of instruments and processes that have been developed to date, and be flexible enough to deal with new ones without duplicating efforts. Included in its objectives are risk reduction, knowledge and information dissemination, effective governance, capacitybuilding and technical cooperation, and elimination of illegal international traffic in chemicals. Implementation of SAICM activities is achieved through national, regional and IGO implementation plans and focal points. Progress is to be reviewed at scheduled intervals at new sessions of the International Conference on Chemicals Management (ICCM), and at regional meetings. Page 27 of 34 DRAFT 8/27/2009 Topic III Bibliography ACS Green Chemistry Initiative. “Green Chemistry Resource Exchanges.” Available at http://www.greenchemex.org/ Africa Stockpiles Progarmme (ASP). "Obsolete pesticide stocks: an issue of poverty." (last version December 2006.) 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Warner, John C., Amy S. Cannon and Kevin M. Dye. 2004. "Green chemistry." Environmental Impact Assessment Review 24 (2004) 775-799. 1 UNDESD, 1992. UNEP, 2006. 3 USEPA, “Summary of the Clean Water Act.” 4 Oosterhuis, 2006. 5 OECD, 2003. 6 ASP, 2006. 7 MassDEP, 2006. 8 UNEP, 2009. 9 ISO 10 Massey, et al. 2008. 11 USEPA “Toxics Release Inventory Program.” 2 Page 33 of 34 DRAFT 8/27/2009 ECHA, “REACH Guidance” LCSP, “Chemicals Policy Initiative” 14 UNECE. 15 Warner, et al., 2004. 16 Geiser, 2008. 17 UNDESD, 1992. 18 UNDESD, 2004. 19 IOMC, 2009. 20 UNEP Secretariat on the Basel Convention. 21 National Toxics Network, 2007. 22 National Toxics Network, 2007. 23 UNEP, Stockholm Convention. 24 UNEP, 2006. 12 13 Page 34 of 34