Awards Book - Ozone Secretariat - UNEP
Awards Book - Ozone Secretariat - UNEP
Awards Book - Ozone Secretariat - UNEP
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Montreal Protocol<br />
on Substances that Deplete<br />
the <strong>Ozone</strong> Layer<br />
‘‘Celebrating 20 years of progress in 2007’’<br />
<strong>Awards</strong> <strong>Book</strong><br />
<strong>Ozone</strong> <strong>Secretariat</strong><br />
United Nations Environment Programme
Twentieth Anniversary <strong>Ozone</strong> Protection <strong>Awards</strong><br />
The Montreal Protocol on Substances that Deplete the <strong>Ozone</strong> Layer was agreed on<br />
16 September 1987. Since that time, there has been an enormous and highly successful global<br />
effort to eliminate ozone-depleting substances. By the end of 2005, production and<br />
consumption of ozone-depleting substances controlled by the Montreal Protocol had been<br />
reduced by over 95 per cent from historic levels and the scientific community can now detect<br />
a decrease in both atmospheric and stratospheric measurements of these chemicals.<br />
Addressing ozone depletion is expected to prevent millions of cancer cases and even more<br />
cases of cataracts. As a result of this significant action to protect the global environment, the<br />
Montreal Protocol is widely acknowledged as one of the most successful multilateral<br />
environmental agreements ever negotiated.<br />
It is often said that success has a thousand parents – that is, wherever there is success, many<br />
people are responsible for it. In the case of the Montreal Protocol, literally hundreds of<br />
millions of people around the world can and should take credit for the success that has been<br />
achieved to date. Those people include the millions of consumers globally that have done<br />
such things as purchase a product because it displayed an “ozone friendly” label or made<br />
sure that their air conditioning technician was using an ozone friendly substance or refused to<br />
buy a product containing or made with ozone-depleting substances. It takes environmentally<br />
conscious people such as these to make an international agreement effective.<br />
It also takes thoughtful experts from Governments, academia, business and civil society, who<br />
are committed to promoting, developing and implementing ideas and technologies to address<br />
the environment. It is a subset of this latter group of global champions, who have been<br />
working with missionary zeal, that are listed in this awards booklet and who the United<br />
Nations Environment Programme and the Parties to the Montreal Protocol are celebrating on<br />
the twentieth anniversary of the Montreal Protocol.<br />
It should be understood that these awards only constitute a token recognition for the<br />
outstanding work that has been done, both by those receiving them and the hundreds of<br />
millions of unsung heroes who continue to make the Montreal Protocol a success.<br />
Montreal Protocol 20th Anniversary <strong>Awards</strong> i
Montreal Protocol Visionaries <strong>Awards</strong><br />
Montreal Protocol 20th Anniversary <strong>Awards</strong> 1
Montreal Protocol Visionaries <strong>Awards</strong><br />
Recognizing extraordinary contributions to the creation of the infrastructure of the Montreal<br />
Protocol or its Multilateral Fund<br />
Mr. Stephen O. Andersen has devoted a great deal of his tireless energies over the last 20<br />
years to the Montreal Protocol and the cause of ozone layer protection. Through his work as a<br />
co-chair of the Protocol’s Technology and Economic Assessment Panel (TEAP), he has had a<br />
significant impact on the development and evolution of the Protocol and its control<br />
provisions. In addition, his works outside of Panel are legion and include the creation of<br />
ozone champions around the world and assisting countless countries and firms by<br />
demonstrating the viability of alternatives.<br />
Mr. G. Victor Buxton has combined the knowledge of a technician with the skills of a<br />
negotiator and played a vital role in mobilizing Governments to move beyond the Vienna<br />
Convention to support a binding treaty to phase out ozone-depleting substances. His initial<br />
work as a co-chair of the Technology and Economic Assessment Panel, chair of the<br />
Open-ended Working Group of the Parties to the Montreal Protocol and representative of<br />
Canada enabled him to negotiate the Protocol and its early amendments with authority; his<br />
subsequent work on ozone issues has contributed further to the Protocol’s evolution.<br />
Ms. Eileen Claussen played a vital role, both domestically and internationally, in developing<br />
and negotiating the provisions of the Montreal Protocol and the amendments and adjustments<br />
agreed by the Protocol Parties in 1990 and 1992. Her steadfast, apolitical support for the<br />
Multilateral Fund ensured its vitality during its formative years.<br />
Mr. Omar E. El-Arini began his job as Chief Officer of the Multilateral Fund secretariat,<br />
with an office, a typewriter and the bare outline of the Parties’ intent to establish a Fund to<br />
enable developing countries to comply with the provisions of the Protocol. He also had a<br />
vision of a world free of ozone depletion. Such a vision was turned into commitment by the<br />
staff of the Fund <strong>Secretariat</strong> who assiduously endeavored to achieve the highest professional<br />
standards. His integrity and perseverance facilitated the establishment of a funding<br />
mechanism, which is recognized today as the most successful environmental fund ever<br />
created.<br />
Montreal Protocol 20th Anniversary <strong>Awards</strong> 2
Mr. Paul S. Horwitz served as the first Secretary of the <strong>Ozone</strong> <strong>Secretariat</strong> and an active<br />
delegate, president or chair at meetings of the Parties and the Executive Committee. He<br />
envisioned and negotiated several Protocol and Multilateral Fund innovations including the<br />
Protocol’s global licensing requirement and the Multilateral Fund frameworks for the closure<br />
of ozone-depleting substance producers, which ensured that Fund projects yielded net<br />
reductions in consumption. He was also responsible for the regionalization of the United<br />
Nations Environment Program (<strong>UNEP</strong>) OzonAction programme, which enables direct<br />
assistance to developing countries.<br />
Ms. Ingrid Kökeritz has been a tenacious and tireless advocate for taking the strongest steps<br />
possible to protect the ozone layer. Her vision can be seen in several areas of the Protocol,<br />
including in the development of the Protocol’s unique concept of consumption and the<br />
system of regional networks that has enabled valuable peer learning and South-South and<br />
North-South information transfer among Parties.<br />
Mr. Lambert Kuijpers was working on alternatives to ozone-depleting substances even<br />
before the Montreal Protocol was negotiated and his decision to leave the private sector in<br />
order to spend his time on Protocol matters has truly benefited both the development of the<br />
Protocol and the Parties themselves. His leadership on the Protocol’s Technology and<br />
Economic Assessment Panel, including his visionary work on a framework for evaluating<br />
replenishments of the Multilateral Fund, has enabled the Parties to the Protocol to take fully<br />
informed decisions within the context of the global effort to protect the ozone layer.<br />
Mr. Juan Antonio Mateos played a vital role in envisioning and negotiating the terms of the<br />
Protocol relating to the landmark establishment of the Protocol’s Multilateral Fund. As a<br />
co-chair of the Parties’ negotiating forum on assistance for developing countries and the<br />
second chair of the Executive Committee of the Multilateral Fund, he played a fundamental<br />
role in setting the Multilateral Fund on the non-political, highly supportive footing that has<br />
prevailed throughout its history.<br />
Mr. K. Madhava Sarma will always have a special place in the heart of the Parties to the<br />
Protocol, having served as the first Executive Secretary of the <strong>Ozone</strong> <strong>Secretariat</strong> and leading<br />
the Protocol through its growth years from 1991 to 2000. During that time he oversaw the<br />
process that enabled the Parties to negotiate a virtual phase-out of almost all substances<br />
controlled under the Montreal Protocol.<br />
Mr. Patrick Széll was significantly responsible for the development of the language that<br />
took the ideas of the negotiators and crafted them into the Protocol text that we see today. He<br />
also played a significant role in crafting the Protocol’s non-compliance procedure, which has<br />
proven highly effective in bringing Parties with problems back into compliance. Through his<br />
vision and his leadership of the Protocol’s legal drafting group, he has had a significant and<br />
enduring impact on the Protocol.<br />
Montreal Protocol 20th Anniversary <strong>Awards</strong>
Mr. Mostafa K. Tolba While it is often said that success has a thousand parents, few if any<br />
in the global community would dispute the singular role played by Mr. Mostafa Tolba in the<br />
creation of the Protocol. For that reason, he has certainly earned the moniker of “father of the<br />
Montreal Protocol”. His knowledge as a scientist, his skills as a negotiator, and his techniques<br />
of persuasion have enabled him to bring people together to achieve what was thought to be<br />
unachievable. Without these skills and, most important, this vision, it is doubtful that we<br />
would be celebrating the twentieth anniversary of the Protocol in 2007 or the progress made<br />
to date.<br />
Montreal Protocol 20th Anniversary <strong>Awards</strong>
Outstanding Contributors <strong>Awards</strong><br />
Montreal Protocol 20th Anniversary <strong>Awards</strong> 6
Outstanding Contributors <strong>Awards</strong><br />
Recognizing the extraordinary contributions of those who have taken the vision of the<br />
founders and advanced it to address current issues<br />
Mr. Oladapo A. Afolabi has, for the past decade, helped the Protocol Parties in a number of<br />
different capacities, including as chair of the Executive Committee and spokesperson for the<br />
developing countries during discussions on replenishment. His optimism and easy<br />
temperament have enabled the Parties to reach consensus, even at times when it seemed out<br />
of reach.<br />
Mr. Husamuddin Ahmadzai has been a strong Protocol delegate for over a decade, serving,<br />
among other things, as a co-chair of the first TEAP task force on process agents and as a<br />
focal point for discussions on carbon tetrachloride. Most recently, his active role in the<br />
revitalization of the “Stockholm group” has helped enable the Parties to give thorough<br />
consideration to a possible acceleration of controls on hydrochlorofluorocarbons (HCFCs).<br />
Mr. Per Menzony Bakken was an active participant in the negotiations that led to the<br />
creation of the Montreal Protocol. As a representative of Norway, his efforts helped bring the<br />
countries negotiating the Protocol to consensus. Later, as a manager of the <strong>UNEP</strong> Division<br />
of Technology, Industry and Economics, he helped implement the Executive Committee’s<br />
policy on regionalization and creation of the compliance assistance programme.<br />
Ms. Suely Machado Carvalho has served the cause of ozone layer protection in many<br />
capacities. Her initial work as a government official in Sao Paulo helped sensitize her country<br />
to the ozone depletion issue. Her subsequent work as a delegate at meetings of the Parties, a<br />
co-chair of the Technology and Economic Assessment Panel and as head of the United<br />
Nations Development Programme (UNDP) ozone team have enabled her to assist virtually<br />
the entire globe in its ozone protection efforts.<br />
Mr. Milton Catelin has served the Protocol in a large number of capacities, including as an<br />
active delegate at meetings of the Parties, the Implementation Committee for the Montreal<br />
Protocol and the Executive Committee, and as an innovative national implementer. His<br />
leadership in his roles as three-time co-chair of the Open-ended Working Group and president<br />
of the Meeting of the Parties enabled the Parties to address a number of key issues in a<br />
considered manner.<br />
Montreal Protocol 20th Anniversary <strong>Awards</strong> 7
Mr. Steve Gorman has been working on ozone issues since the late 1980s, doing<br />
outstanding work in a variety of capacities, including as an active representative of Canada,<br />
network coordinator for <strong>UNEP</strong> and chief of the World Bank’s Montreal Protocol unit. His<br />
vision in finding innovative modalities for implementation and his tireless efforts and<br />
outstanding work have helped many countries achieve compliance with the Montreal<br />
Protocol.<br />
Mr. Maas Goote has successfully taken on particularly difficult tasks, including addressing<br />
the assessment panels’ treatment of methyl bromide critical-use exemptions and the Parties’<br />
consideration of HCFCs. As president of the Implementation Committee, his focused legal<br />
mind and firm but even-handed approach have helped facilitate agreement on numerous<br />
initiatives to enhance the transparency and efficiency of the Committee’s work.<br />
Mr. Blaise Horisberger has been an indefatigable representative of Switzerland for over 15<br />
years. During that time, he has been instrumental in pushing the Protocol Parties to achieve<br />
the maximum possible ozone layer benefits, helping developing countries in the area of<br />
refrigeration and ensuring maximum consideration of the use of natural alternatives.<br />
Mr. Khaled Klaly has been a leader in ozone layer protection for over a decade. As a<br />
representative of Syria at both meetings of the Parties and the Executive Committee he has<br />
been a steadfast supporter of the interests of ozone protection in general and developing<br />
countries in particular. He has also served the Parties as chair of the Executive Committee<br />
and co-chair of both the Open-ended Working Group and the Dialogue on the Future of the<br />
Montreal Protocol.<br />
Mr. Janusz Kozakiewicz has served as a steadfast ozone officer and representative of<br />
Poland, co-chair of the Open-ended Working Group and member of the Implementation<br />
Committee. The Parties have benefited greatly from his focus on such issues as trade in<br />
ozone-depleting substances and enforcement of the Montreal Protocol.<br />
Mr. Tom Land has served the Protocol Parties for over a decade as co-chair of the<br />
Open-ended Working Group, president of the Implementation Committee and of the Meeting<br />
of the Parties, co-chair of the Dialogue on the Future of the Montreal Protocol and an active<br />
delegate at meetings of the Parties and of the Executive Committee. The Parties have<br />
benefited from his leadership and his work in moving the Implementation Committee<br />
towards standardization and helping develop a simpler reporting format.<br />
Montreal Protocol 20th Anniversary <strong>Awards</strong> 8
Ms. Marcia Levaggi has been a vital presence at Protocol meetings for many years. Her<br />
insights and leadership have combined to enable her to perform outstandingly in a number<br />
of roles, including as a national representative, a member of the Implementation Committee,<br />
chair of the Executive Committee and the Experts Meeting on <strong>Ozone</strong> and Climate, and<br />
co-chair of the Open-ended Working Group.<br />
Mr. Liu Yi was head of China’s National <strong>Ozone</strong> Unit and a valued member of the Executive<br />
Committee of the Multilateral Fund for over a decade. During that time, in his work for<br />
China, he helped develop and negotiate through the Multilateral Fund the first sector plan, the<br />
first production sector closure and the first plan to enable an accelerated phase-out of<br />
chlorofluorocarbons (CFCs) and halons. His visionary work has benefited not only China but<br />
also the ozone layer and the global community.<br />
Mr. Pierre Pinault has been a valuable asset to the Parties. His knowledge, even-handedness<br />
and abilities as a negotiator and leader have led to his selection to head contact groups and to<br />
bring Parties to consensus on many of the Protocol’s hardest issues. His latest efforts, which<br />
have enabled the Parties to get a head start in considering future issues, will pay dividends to<br />
the Parties for many years to come.<br />
Mr. Rajendra Shende has worked tirelessly for almost 15 years for <strong>UNEP</strong> and the cause<br />
of ozone protection. His management of the OzonAction group has enabled <strong>UNEP</strong> to play a<br />
central role in building the capacity of Parties operating under Article 5 of the Protocol and<br />
enabling them to comply with the Protocol.<br />
Mr. Sidi Menad Si-Ahmed has been an active participant in efforts to combat ozone<br />
depletion since before the Protocol’s negotiation. As a representative of Algeria, who was<br />
also active on the Executive Committee, and then as a member and then head of the United<br />
Nations Industrial Development Organization (UNIDO) Montreal Protocol team, his work<br />
has contributed to the compliance of a large number of developing countries with the<br />
Protocol.<br />
Mr. Klaus Töpfer has contributed to the Montreal Protocol in his role as Germany’s<br />
Minister of the Environment and as Executive Director of <strong>UNEP</strong> from 1998 to 2006. During<br />
that time, his steadfast support for the Multilateral Fund, the <strong>Ozone</strong> <strong>Secretariat</strong> and the ozone<br />
treaties helped facilitate the firm institutionalization of those key bodies and move forward<br />
the implementation of those treaties.<br />
Mr. Jukka Uosukainen has served the Protocol Parties in a variety of capacities, including<br />
as co-chair of the Open-ended Working group and of several negotiating groups, including<br />
those dealing with the replenishment of the Multilateral Fund, and as a strong and creative<br />
representative of Finland.<br />
Montreal Protocol 20th Anniversary <strong>Awards</strong> 9
Implementers <strong>Awards</strong><br />
Montreal Protocol 20th Anniversary <strong>Awards</strong> 10
Implementers <strong>Awards</strong><br />
Recognizing extraordinary contributions by national ozone units or individuals, whose hard<br />
work at the country level has helped to make the Protocol’s phase-out goals a reality<br />
Mr. Ghazi Faleh Alodat has been a long-standing ozone officer and delegate and a driving<br />
force for implementation of the Protocol both in Jordan and across his region. His work has<br />
enabled his country to achieve reductions in the use of ozone-depleting substances, many<br />
ahead of Protocol schedules.<br />
Argentina: Oficina Programa Ozono has played a vital role in the national ozone<br />
phase-out programme, which is a model of close coordination between industry, universities<br />
and research centres. Its achievements have placed Argentina’s implementation ahead of the<br />
Protocol control schedules.<br />
Mr. Adiyasuren Tsokhio Borjigdkhan has served as head of the national ozone unit of<br />
Mongolia. In that role he has implemented several important projects and policies, worked<br />
effectively in awareness-raising and helped his country achieve a 90 per cent reduction in its<br />
consumption of ozone-depleting substances.<br />
Mr. Tom Batchelor has worked tirelessly as a key member of the European Commission<br />
ozone team to create and oversee the development and implementation of aggressive ozone<br />
reduction policies to address cutting-edge issues such as halon banks, used refrigerators,<br />
destruction of CFC foams, and HCFCs. Beyond his national work, his efforts to reach out and<br />
assist developing countries have earned him the thanks and admiration of many Parties.<br />
Brazil’s National <strong>Ozone</strong> Unit has carried forward the country’s proactive ozone protection<br />
policies in an exemplary manner, ensuring early termination of CFC production and the<br />
development and active enforcement of stringent legislation to control imports and exports.<br />
Mr. Jozef Buys has been an active delegate and member of the Executive Committee for<br />
almost a decade. His work on the Executive Committee, on replenishments of the<br />
Multilateral Fund and on the <strong>Secretariat</strong>’s budget, has enabled more effective implementation<br />
of the Protocol.<br />
Montreal Protocol 20th Anniversary <strong>Awards</strong> 11
Mr. Philippe Chemouny has served the Parties to the Protocol in a number of capacities<br />
including as chair of the Executive Committee and representative of Canada. His work as the<br />
manager of a robust bilateral programme under the Multilateral Fund and his support for the<br />
implementation of developing country projects and policies have earned him the thanks and<br />
admiration of many Protocol Parties.<br />
China’s General Administration of Customs is being recognized for its efforts to address<br />
illegal trade and, in particular, its development and championing of the informal prior<br />
informed consent programme, which is helping all countries in the region to address the issue<br />
of illegal trade.<br />
China’s State Environmental Protection Administration has ensured effective<br />
implementation of China’s enormous national effort to achieve an accelerated elimination of<br />
most ozone-depleting substances. Its pioneering work on sector plans has enabled both China<br />
and other countries to take control of their work and achieve significant, low cost reductions.<br />
Mr. Corrado Clini has played a longstanding role working for effective implementation of<br />
the Protocol. His work on halon banks, mobilization of support for the Multilateral Fund and<br />
efforts to address methyl bromide effectively are just a few examples of his leadership.<br />
Colombia: Unidad Técnica Ozono has been extremely effective in implementing the<br />
Party’s obligations under the Protocol. Its sector-based work and public awareness activities,<br />
as well as its support for activities throughout the region, are very well known.<br />
Federation of Pharmaceutical Manufacturers’ CFC Committee, Japan, has worked<br />
effectively to develop, promote and implement alternatives to CFCs in metered-dose inhalers<br />
and to enable Japan to achieve a smooth phase-out in this sector, which is critical to public<br />
health.<br />
Guinea’s National <strong>Ozone</strong> Unit has been very effective in implementing the Party’s<br />
obligations under the Protocol and has played a very positive role in helping other countries<br />
within the French-speaking African region.<br />
Mr. Zahid Ullah Hamdard of Afghanistan has demonstrated that a relatively new ozone<br />
officer can make a huge impact on national implementation. His quick work in the<br />
development and passage of regulations and legislation has allowed this newly ratifying<br />
country to achieve quick compliance in the face of significant barriers.<br />
Montreal Protocol 20th Anniversary <strong>Awards</strong> 12
Mr. Hassen Hannachi has been perhaps the longest serving ozone officer among all national<br />
ozone units. He performed superbly as president of the Implementation Committee. His<br />
leadership, both in his country and within his region, has enabled Tunisia to become a key<br />
example of effective implementation of the Montreal Protocol.<br />
Heating, Refrigeration and Air Conditioning Institute, Canada, helped design and<br />
deliver training on good practices to more than 1 2,000 technicians in Canada and helped<br />
develop training programmes for many Parties operating under Article 5 of the Protocol.<br />
Mr. John S. Hoffman was one of the earliest advocates in the United States of America for<br />
strong controls on CFCs and played a vital technical and facilitating role in early efforts to<br />
bring countries to the consensus that resulted in the adoption of the Montreal Protocol.<br />
Mr. Jiri Hlavacek has been a very active contributor to the work of the Protocol for nearly<br />
a decade and has supported its implementation through his role as an active representative at<br />
meetings of the Parties, the Executive Committee, and the Implementation Committee. His<br />
vision and diplomatic skills have greatly assisted the smooth implementation of the Protocol.<br />
Ms. Drusilla Hufford has managed the ozone programme of the United States of America<br />
for well over a decade. In that role, she has played a key part in developing the innovative<br />
SunWise Program and the Significant New Alternatives Policy Program, the latter of which is<br />
used by many countries to facilitate the consideration of alternatives.<br />
India’s <strong>Ozone</strong> Cell has been one of the strongest and most effective national implementing<br />
institutions under the Protocol. It has worked creatively and proactively to develop a policy<br />
structure and projects to ensure continued compliance with the Protocol.<br />
Mr. Tadanori Inomata has served in a number of different roles that have enabled him to<br />
effect implementation of the Protocol, including as an active delegate, chair of the Executive<br />
Committee’s subcommittees, and chair and vice-chair of the Executive Committee. His focus<br />
on issues such as destruction and the use of loans have made a positive contribution to the<br />
Protocol.<br />
Mr. Marin Kocov is one of the most senior and experienced ozone officers in his region.<br />
His work in implementing policies, projects and public awareness activities, and sharing this<br />
expertise and experience with his regional counterparts has enabled the former Yugoslav<br />
Republic of Macedonia to achieve a 97 per cent reduction in ozone-depleting substance use<br />
and enhanced the ozone protection efforts of the Eastern Europe and Central Asia region.<br />
Montreal Protocol 20th Anniversary <strong>Awards</strong> 1
Lebanon’s National <strong>Ozone</strong> Unit has continuously been a leader in the development and<br />
implementation of innovative ozone-depleting substance reduction and public awareness<br />
strategies to enable effective implementation of the Protocol.<br />
Malawi’s National <strong>Ozone</strong> Unit is being recognized for, among other things, its outstanding<br />
work in innovatively and effectively introducing alternatives to methyl bromide in the face of<br />
determined opposition.<br />
Nepal’s National <strong>Ozone</strong> Unit has been active in pursing compliance with the Protocol and<br />
in developing creative mechanisms to address non-compliance. The Unit’s work in training<br />
and support for other countries in the region is also exemplary.<br />
Mauritius’ National <strong>Ozone</strong> Unit has consistently been at the vanguard in taking effective<br />
measures to protect the ozone layer. Mauritius was one of the first countries to put in place a<br />
licensing system and achieve a virtual phase out of CFCs.<br />
Mr. Emmanuel Osae-Quansah has overseen the development and implementation of a host<br />
of highly successful initiatives. These include his work on an educational outreach<br />
programme and implementation of a unique end-user incentive programme.<br />
Refrigerant Reclaim Australia is an industry-funded environmental trust that was<br />
established to recover, reclaim and destroy ozone-depleting refrigerants. Its innovative<br />
collection system has enabled the recovery of over 1,600 tonnes of contaminated and<br />
unwanted ozone-depleting substances.<br />
Mr. Agustín Sánchez has been a very effective both as a representative of Mexico at<br />
meetings of the Parties and as an ozone officer domestically. He has contributed both to<br />
global understanding of ozone science and effective national implementation of Protocol.<br />
Mr. Stephen Seidel was instrumental in drafting the regulations that implemented the first<br />
national phase-out of CFCs used in non-essential aerosols. He also played a vital role in<br />
developing the framework that enabled a smooth phase-out of ozone-depleting substances in<br />
the United States of America.<br />
Mr. Dunstan Sorhaindo (deceased) came into his position at a time of rapidly increasing<br />
consumption of ozone-depleting substances and worked quickly to oversee the development<br />
and implementation of projects to ensure national compliance. The Protocol family will miss<br />
the work of this ozone champion.<br />
Montreal Protocol 20th Anniversary <strong>Awards</strong> 1
Spain’s Methyl Bromide Alternatives Project brought together champions from many<br />
organizations in Spain to test alternatives and spread the results in a manner that has enabled<br />
Spain to make significant strides towards elimination of the use of methyl bromide.<br />
Mr. Miroslav Spasojevic is being recognized for his outstanding efforts at implementing<br />
the Montreal Protocol. His work extends beyond efforts in his country and he has provided<br />
significant support to other countries within his region.<br />
Sri Lanka’s National <strong>Ozone</strong> Unit is known globally for many of its contributions to efforts<br />
to address ozone-depleting substances, including its effective implementation projects to<br />
enable achievement of the Protocol’s reduction requirements, its effective licensing<br />
programme, and its creative public awareness activities.<br />
Ms. Somsri Suwanjaras has played a leading role in restructuring the Thai phase-out<br />
effort to combine projects with strong policy and regulatory support. Her skill in working<br />
with other Thai agencies ensured the necessary government engagement in the Thai<br />
phase-out of CFCs.<br />
Mr. Geoffrey Tierney has contributed significantly to the implementation of the Protocol<br />
through his effective work in both the United Kingdom and the European Commission, his<br />
effective advocacy in meetings of the Parties and the Executive Committee, and his<br />
assistance to Parties as coordinator of the <strong>UNEP</strong> OzonAction regional network system.<br />
Trinidad and Tobago’s National <strong>Ozone</strong> Unit has always been at the forefront of ozone<br />
layer protection, having put in place a system for permitting the use of ozone-depleting<br />
substances and equipment dependent on such substances and by implementing an accelerated<br />
phase-out of ozone-depleting substances.<br />
Mr. Mikheil Tushishvili has served as president of the Implementation Committee and as<br />
an active delegate to meetings of the Parties. He has also served as a driving force within the<br />
Eastern Europe and Central Asia network, offering implementation assistance to all.<br />
Mr. Bishnunarine Tulsie was a founding member of the Caribbean <strong>Ozone</strong> Network and has<br />
played a significant role in the implementation of the Protocol, both within his country and<br />
region and through his work on the Executive Committee and his leadership in the review of<br />
the non-compliance procedures.<br />
Montreal Protocol 20th Anniversary <strong>Awards</strong> 15
Innovators <strong>Awards</strong><br />
Montreal Protocol 20th Anniversary <strong>Awards</strong> 17
Innovators <strong>Awards</strong><br />
Recognizing the extraordinary contribution of those whose work has facilitated the<br />
widespread use of alternatives or alternative technologies that enabled the phase-out of<br />
ozone-depleting substances<br />
Australia’s Department of Primary Industries Methyl Bromide Research Team,<br />
consisting of Scott Mattner, Ross Mann, Robyn Brett, Alan Shanks, Natalie Tostovrsnik,<br />
Rajendra Gounder, Leanne Trinder, Stefan Smith, Debra Partington, Murray Hannah, Ian<br />
Porter, has done outstanding work in evaluating alternatives and supporting Australia’s<br />
efforts to phase out methyl bromide.<br />
Dow AgroSciences LLC has provided global leadership in the development and registration<br />
of alternatives to methyl bromide, as well as designing novel application technologies and<br />
product stewardship requirements that have enabled the effective use of alternatives.<br />
Mr. Brian Ellis has identified alternatives to ozone-depleting substance for specialized<br />
cleaning purposes. He has also used his expertise to help Parties through his active assistance<br />
to the Technology and Economic Assessment Panel and his work on a host of Multilateral<br />
Fund projects.<br />
Mr. Fusao Kawakami of Japan is a globally known technical expert in fumigation<br />
alternatives to methyl bromide. His development of a range of carbon dioxide treatments for<br />
fumigating stored products has enabled significant reductions in methyl bromide use.<br />
Mr. James B. Kerr, Mr. Tom McElroy, and Mr. David Wardle constitute the scientific<br />
team from Environment Canada that developed the Brewer spectrometer, a devise used<br />
globally to monitor ozone concentrations. They were also instrumental in developing<br />
Canada’s ultraviolet index programme.<br />
Mr. Steven J. McCormick is recognized as a world leader in the development of halon<br />
substitutes. He has developed non-halon systems for military vehicles worldwide, enabling<br />
significant reductions in halon use.<br />
Montreal Protocol 20th Anniversary <strong>Awards</strong> 18
Mr. David Mueller and Mr. John Mueller have consistently demonstrated leadership in the<br />
development and promotion of alternatives to the use of methyl bromide in the post-harvest<br />
sector. Their work has benefited many countries around the world and enabled significant<br />
reductions in this key sector.<br />
United States Environment Protection Agency’s Significant New Alternatives Policy<br />
Program has enabled a comprehensive analysis of the potential risk of alternatives, which<br />
has helped many countries make informed decisions on such substances.<br />
Montreal Protocol 20th Anniversary <strong>Awards</strong> 19
Montreal Protocol<br />
Public Awareness <strong>Awards</strong><br />
Montreal Protocol 20th Anniversary <strong>Awards</strong> 21
Montreal Protocol Public Awareness <strong>Awards</strong><br />
For outstanding work in raising awareness about ozone depletion and the global effort to<br />
address it.<br />
Air India has used its relationship with flyers to distribute information on ozone layer<br />
protection. Their assistance has included the screening of the “Ozzy <strong>Ozone</strong>” cartoon on their<br />
flights, reproduction and distribution of an “Ozzy <strong>Ozone</strong>” colouring book, and discussion of<br />
the issue of ozone protection in their in-flight magazine.<br />
Bank of Maharashtra in India has made hundreds of thousands of clients aware of the need<br />
to protect the ozone layer through its innovative ozone day promotions that include<br />
distribution of “Ozzy <strong>Ozone</strong>” material and information on steps that people can take to<br />
protect the ozone layer, and placement of advertisements with ozone protection messages.<br />
Beijing Organizing Committee for the Olympics has demonstrated a high level of<br />
commitment to using the preparations for the Olympic Games in 2008 to promote ozone<br />
layer protection and the use of ozone friendly equipment.<br />
Mr. Richard E. Benedick has made the Montreal Protocol and its negotiation process<br />
understandable for millions of readers of his books and publications and has enabled<br />
others to benefit from the experience gained in implementing the Protocol and to consider the<br />
usefulness of its precedents in other vital areas. He also made a valuable contribution to the<br />
negotiation of the Treaty.<br />
Cancer Council, Australia, pioneered a highly successful “Slip, Slop, Slap” campaign to<br />
focus the Australian public on measures that they could take to reduce exposure to ultraviolet<br />
radiation. The programme, which has been adopted in other countries, helped protect the<br />
public and raise awareness of ozone depletion.<br />
Earth Negotiations Bulletin has kept the world community informed of the work of the<br />
Parties to the Montreal Protocol. Its informative reviews also enable experts working in the<br />
context of other multilateral environmental agreements to understand the unique initiatives<br />
being undertaken under the Montreal Protocol. As a consequence, it has helped promote<br />
synergies among related institutions.<br />
Montreal Protocol 20th Anniversary <strong>Awards</strong> 22
Niger’s National <strong>Ozone</strong> Unit has done outstanding work in awareness-raising, which has<br />
helped facilitate compliance with the Montreal Protocol.<br />
<strong>Ozone</strong>hole.com is a valuable educational resource, which provides an in-depth compilation<br />
of information concerning ozone depletion. Clear information, diagrams and descriptions<br />
make the site and the issue of ozone depletion highly accessible to a wide range of users.<br />
Save the <strong>Ozone</strong>, Nigeria, and its Director, Mr. Ozaveshe Ade Balogun, have done<br />
outstanding awareness raising work on ozone depletion ozone friendly alternatives. Their<br />
work has included data collection, analysis and dissemination, publication of a quarterly<br />
newsletter, and membership on the National Advisory <strong>Ozone</strong> Committee.<br />
Save the <strong>Ozone</strong> Network, Japan, played a key role in raising public awareness nationally.<br />
Its activities, including its development of education materials and its <strong>Ozone</strong> Kids Camp,<br />
have helped keep a spotlight on ozone and the Montreal Protocol.<br />
United States Environment Protection Agency’s SunWise Program has developed a<br />
free health and education programme for grades K to 8. The programme has registered over<br />
19,000 educators across the country to use the programme, which is designed to teach<br />
children about ozone depletion and sun protection and thereby reduce children’s risk of skin<br />
cancer.<br />
Montreal Protocol 20th Anniversary <strong>Awards</strong> 2
Partners <strong>Awards</strong><br />
Montreal Protocol 20th Anniversary <strong>Awards</strong> 25
Partners <strong>Awards</strong><br />
Recognizing the work of civil society and international organizations that have played a<br />
critical role in the development or implementation of the Montreal ProtocolAlliance for<br />
Responsible Atmospheric Policy has been a long-term partner of many Parties, supporting<br />
efforts at global education, responsible use of alternatives, and stemming the flow of illegal<br />
trade.<br />
CABI has used its expertise in science and the environment to help many countries achieve<br />
significant reductions in methyl bromide.<br />
Canadian Government has been steadfast in its support as host of the Multilateral Fund<br />
<strong>Secretariat</strong>, the ninth and nineteenth meetings of the Parties, countless meetings of the<br />
Open-ended Working Group, and significant contributions in the areas of policy and<br />
monitoring.<br />
Electrical Manufacturers’ Association, Japan has played a significant role in the phase-out<br />
of ozone-depleting substances, not only in Japan, but also through their work in many Parties<br />
operating under Article 5.<br />
Environmental Investigation Agency has supported the Protocol in a significant fashion<br />
since it turned its attention to the issue of illegal trade in ozone-depleting substances. Its<br />
incisive reports and informative presentations have enabled the Parties to consider the issue,<br />
which is of key importance to many Parties, in a thoughtful manner.<br />
Global Environment Facility has been a key Montreal Protocol partner. It has played an<br />
essential role in supporting projects in countries with economies in transition and thereby<br />
enabling their compliance.<br />
Green Customs Initiative and the Parties to the Montreal Protocol have participated in a<br />
partnership that has benefited both the Protocol and several other multilateral environmental<br />
agreements in their efforts to track trade in items of interest.<br />
Montreal Protocol 20th Anniversary <strong>Awards</strong> 26
Greenpeace International has been an innovative and articulate force in ozone layer<br />
protection since the inception of the Protocol. From its work on the green fridge to its<br />
advocacy for speedy action, it has enabled the Protocol Parties to think more broadly. The<br />
significant contributions of Mr. John Mate deserve particular mention.<br />
Intergovernmental Panel on Climate Change has been a valuable partner in advancing<br />
the safeguarding of the ozone layer and the global climate system. Its joint work with the<br />
Technology and Economic Assessment Panel has provided balanced scientific, technical and<br />
policy-relevant information to the Parties of both the United Nations Framework Convention<br />
on Climate Change and the Montreal Protocol.<br />
International Pharmaceutical Aerosol Consortium has contributed significantly to the<br />
deliberations of both the Medical Technical Options Committee and the Parties’ discussions<br />
on the key issue of ensuring a safe transition from the use of CFC metered-dose inhalers.<br />
Natural Resources Defense Council has been a long-term and steadfast advocate for the<br />
Montreal Protocol and has made strong efforts to phase out ozone-depleting substances. The<br />
significant contributions of Mr. David D. Doniger to the global debate deserve particular<br />
mention.<br />
ODS Management Partnership brought together the Netherlands Ministry of Defence,<br />
Ministry of Housing Spatial Planning and the Environment, and Halon Bank Association; the<br />
Australian Department of Defence, Department of Environment and Water Resources, and<br />
Environment Protection Authority of Victoria; and the United States Department of Defense,<br />
Defense Logistics Agency, and Environmental Protection Agency. The Partnership worked to<br />
facilitate the effective collection and banking of halons for critical civilian and military uses.<br />
<strong>Ozone</strong> Operation Resource Group was established to help review Multilateral Fund<br />
projects for the World Bank but its insightful status reports on the state of technology and<br />
in-depth reviews helped many Parties.<br />
Stockholm Environment Institute has contributed its expertise and time to help advance the<br />
phase-out of ozone-depleting substances by working on projects in a number of<br />
developing countries.<br />
World Customs Organization has been a real partner to the Protocol in providing critical<br />
support to enable accurate monitoring of trade in ozone-depleting substances through their<br />
adaptation of customs codes to address ozone-depleting substances. Their regional<br />
intelligence liaison offices have also proven immensely important to efforts to address illegal<br />
trade.<br />
Montreal Protocol 20th Anniversary <strong>Awards</strong> 27
World Meteorological Organization has been an indispensable partner to the Montreal<br />
Protocol’s effort in the areas of science and monitoring. Its valuable contributions have<br />
resulted in a productive synergy within the United Nations framework.<br />
Montreal Protocol 20th Anniversary <strong>Awards</strong> 28
Implementing Agencies <strong>Awards</strong><br />
Montreal Protocol 20th Anniversary <strong>Awards</strong> 29
Implementing Agency <strong>Awards</strong><br />
The Multilateral Fund for the Implementation of the Montreal Protocol has, over the last<br />
17 years, approved over 5500 projects and activities in over 1 0 developing countries. The<br />
development and implementation of the vast majority of this work has been undertaken by<br />
a large group of highly processional, highly dedicated international civil servants. For these<br />
individuals, protection of the ozone layer has been more than a job and they have worked<br />
tirelessly to assist developing countries in the elimination of ozone-depleting substances.<br />
Accordingly, this award is being given to all of the individuals and entities listed below.<br />
In recognition of extraordinary assistance to developing countries in the global effort to phase<br />
out ozone-depleting substances and protect the ozone layer<br />
<strong>UNEP</strong> OzonAction Programme<br />
United Nations Development Programme<br />
Implementing Agencies<br />
United Nations Industrial Development Organization<br />
The World Bank<br />
Implementing Agencies’ Staff<br />
Mr. Abdulelah Alwadaee has been working with the <strong>UNEP</strong> OzonAction Programme for<br />
the last five years as Regional Network Coordinator for the West Asia Region, assisting 12<br />
countries in the region, introducing ozone activities to the Gulf Cooperation Council and the<br />
League of Arab States, and collaborating with non-Parties, such as Iraq and the Occupied<br />
Palestinian Territory.<br />
Mr. Atul Bagai has been working with the <strong>UNEP</strong> OzonAction Programme since 2000,<br />
serving for the last five years as Regional Network Coordinator for South Asia, assisting the<br />
compliance of 12 countries. With enthusiastic commitment, he has developed innovative<br />
mechanisms, such as the “Sky Hole Patching” project and projects to prevent illegal trade.<br />
Montreal Protocol 20th Anniversary <strong>Awards</strong> 0
Mr. Jérémy Boubié Bazyé has been with the <strong>UNEP</strong> OzonAction Programme for over 10<br />
years as Regional Network Coordinator for the French-speaking African region. He has<br />
assisted the 27 countries of the region in putting the issue of ozone protection in their<br />
national development agendas and has contributed to the harmonization of regional trade<br />
regulations.<br />
Ms. Fabian C. Bonaparte, worked for six years as Finance Associate for the UNDP<br />
Montreal Protocol Unit, providing sound financial oversight and timely reporting to the<br />
Multilateral Fund and using her experience and solid finance background to improve delivery<br />
and bring solutions to portfolio-related matters.<br />
Ms. Suely Machado Carvalho joined UNDP in 1997 and has since expanded the UNDP<br />
Latin America portfolio and brought Multilateral Fund assistance to address methyl<br />
bromide and medical aerosol sector challenges in that region. With great networking skills<br />
and supported by effective partnerships that she has forged worldwide, she has successfully<br />
led the UNDP Montreal Protocol Unit since 2002, working with 90 developing countries in<br />
all regions.<br />
Ms. Helen Chan has worked tirelessly for over a decade to assist China and other countries<br />
in their efforts to phase out ozone-depleting substances. Her energy, diligence and creativity<br />
have contributed significantly to the effective implementation of the many innovations used<br />
in the China phase-out effort.<br />
Mr. Yiu Chiu William Kwan, Programme Coordinator for nine years and current Deputy<br />
Chief of the Montreal Protocol Unit at UNDP, has brought to the unit the solid links he built<br />
in Asia, enabling the delivery of targeted assistance to enterprises and countries, contributing<br />
to the sustainability of compliance efforts.<br />
Ms. Jo Chona has been working with the <strong>UNEP</strong> OzonAction Programme since 199 as a<br />
Programme Assistant for Networking and Information Exchange. In particular, she has<br />
enthusiastically developed the OzonAction multi-media collection and an excellent<br />
internet-based “ozone quote” site.<br />
Ms. Ludgarde Coppens has been working with the <strong>UNEP</strong> OzonAction Programme in the<br />
South Asia and Pacific region since 2000, in the post of Policy Enforcement Officer during<br />
the past five years. She has excelled in, among other things, assisting the 27 countries of the<br />
region in setting up licensing systems and ozone-depleting-substance-related policies and<br />
regulations.<br />
Montreal Protocol 20th Anniversary <strong>Awards</strong> 1
Ms. Cecilia U. Corpus joined the UNDP Montreal Protocol Unit in 1991 and was<br />
instrumental in operationalizing the global mobile air-conditioning sector bilateral<br />
programme between the United States of America and UNDP. She played a key role in the<br />
first UNDP methyl bromide demonstration projects in Africa and the Middle East, bringing a<br />
wide range of partners to the table and creating greater project ownership at the local level.<br />
Mr. James Stevens Curlin, Information Manager, has been working with the <strong>UNEP</strong><br />
OzonAction Programme since 1992. Among other accomplishments, he has been responsible<br />
for the development of the outstanding OzonAction International Information Clearinghouse,<br />
the first such successful clearinghouse under any multilateral environmental agreement.<br />
Ms. Brenda C. Davis has worked as a Programme and Administrative Associate for the<br />
UNDP Montreal Protocol Unit for the past 10 years and has devoted her time to supporting<br />
the unit deliver on agreed targets. The good partnership with UNDP country offices and her<br />
overall knowledge of UNDP rules and regulations has brought added value to the unit.<br />
Ms. Samira de Gobert has worked for OzonAction for nearly 10 years as Media and<br />
Information Assistant. She has done outstanding work in providing the Parties and the media<br />
with information on ozone. Her work has included the electronic newsletters OzoNews,<br />
Clio -on <strong>Ozone</strong> and Climate linkage, and Rumba on Methyl Bromide.<br />
Ms. Artie Dubrie has been working with the <strong>UNEP</strong> OzonAction Programme for five years<br />
as Policy Enforcement Officer in the Latin America and Caribbean region. She has been<br />
hugely successful in assisting the 2 countries of the region in setting up licensing systems<br />
and ozone-depleting substance policies and regulations.<br />
Ms. Elaine Feister has served the Parties for several years as a valued member of the World<br />
Bank Montreal Protocol team, where she has fostered the exchange of ozone information<br />
between various countries in which the Bank is operating.<br />
Ms. Anne Fenner has been working with the <strong>UNEP</strong> OzonAction Programme since 200 as<br />
Information Officer. Her dedicated work has helped demystify the science of ozone layer protection<br />
and enabled the development of exceptional education tools for school children and<br />
young people, including education packs, cartoon books and videos.<br />
Montreal Protocol 20th Anniversary <strong>Awards</strong> 2
Ms. Mary-Ellen Foley has served the Parties for several years as a valued member of the<br />
World Bank Montreal Protocol team, where she has played a significant role in project<br />
monitoring and in country initiatives including key projects in the Philippines and Pakistan.<br />
Ms. Maria Ghoneim has been working with the <strong>UNEP</strong> OzonAction Programme since its<br />
launch in 1991. With enthusiastic commitment and dedication, she has contributed to the<br />
office management of the Programme throughout its phenomenal expansion from a staff of<br />
three persons to more than 50 in five regions.<br />
Mr. Steve Gorman has had an opportunity to support developing country efforts as both a<br />
network coordinator for the <strong>UNEP</strong> OzonAction Programme and as manager of the World<br />
Bank’s ozone team. In both roles, he has used his unique abilities and creativity to help many<br />
developing countries in their efforts to phase out ozone-depleting substances.<br />
Ms. Naimeh Hadjitarkani has served the Parties for several years as a valued member of<br />
the World Bank Montreal Protocol team, working primarily to assist India in the<br />
implementation of its phase-out efforts.<br />
Mr. Yamar Guissé has been working with the <strong>UNEP</strong> OzonAction Programme in Africa as<br />
Refrigerant Management Plan Officer for the last five years. He has had considerable success<br />
in his work assisting African countries in developing refrigerant management plans to enable<br />
compliance with the Protocol.<br />
Ms. Lily Hale has worked for several years as a valued member of the World Bank<br />
Montreal Protocol team contributing to China’s ozone programme in the early years and<br />
applying experience gained in China to the Philippines.<br />
Mr. Thanavat Junchaya has been working with the <strong>UNEP</strong> OzonAction Programme since<br />
1998 as Regional Network Coordinator of the Southeast Asia and Pacific, assisting the 11<br />
countries in that region. He has steadfastly demonstrated the effectiveness of regional<br />
networking.<br />
Ms. Dominique Kayser joined UNDP in 2001. She has played a critical role in working to<br />
ensure the long-term sustainability of UNDP-implemented methyl bromide projects,<br />
factoring national development considerations into project designs. She has also been<br />
instrumental in identifying actions that enhance synergies between conventions and<br />
protocols.<br />
Montreal Protocol 20th Anniversary <strong>Awards</strong>
Mr. Halvart Koeppen has been working for the <strong>UNEP</strong> OzonAction Programme since 1997,<br />
for the last two years as Regional Network Coordinator for Eastern Europe and Central Asia,<br />
assisting the 1 countries in the region. He has, among other things, developed valuable<br />
training manuals and training programmes for customs officers.<br />
Mr. Juan Lopez-Silva has supported the World Bank Montreal Protocol team and its efforts<br />
to support countries in Latin America, always striving to ensure that the ozone layer<br />
continued to be priority of Governments in the region.<br />
Ms. Teresita Macanlalay has provided substantial support to the World Bank Montreal<br />
Protocol team and its efforts to share technical information on the phase-out of<br />
ozone-depleting substances.<br />
Ms. Catalina Marulanda has worked with the World Bank Montreal Protocol team for<br />
several years assisting Parties operating under Article 5 to formulate and implement<br />
ozone-depleting substance phase-out activities during the controlled period of the Montreal<br />
Protocol.<br />
Ms. Josephine Masanque has served the Parties and the World Bank Montreal Protocol<br />
team, working primarily on phase-out efforts in Jordan.<br />
Mr. Ken Newcombe was the first head of the World Bank’s Montreal Protocol team. In that<br />
role, he had a significant impact on the early evolution of the World Bank’s Montreal<br />
Protocol programme.<br />
Mr. Erik Pedersen has been with the World Bank Montreal Protocol team for over a<br />
decade, where his tireless efforts to maintain a high quality of service and his work on behalf<br />
of China have enabled the development of many important World Bank projects.<br />
Mr. Frank Pinto was the founder of the UNDP Montreal Protocol Unit and its Chief for 10<br />
years, expanding the programme to 70 countries and pioneering the development of<br />
innovative approaches to help convert small- and medium-sized enterprises away from use<br />
of ozone-depleting substances. He also played a key role in helping larger countries develop<br />
their country programmes.<br />
Ms. Jessica Poppele was an early expert on the World Bank’s Montreal Protocol team who<br />
played a key role in projects in China, including the China halons sector plan.<br />
Montreal Protocol 20th Anniversary <strong>Awards</strong>
Mr. Neeraj Prasad has served the Parties for several years as a valued member of the World<br />
Bank ozone team where he has contributed to Bank efforts in both China and India.<br />
Mr. Billal Rahill has played key roles as both an early member of the World Bank Montreal<br />
Protocol team and an effective manager supporting the World Bank’s ozone efforts in India.<br />
Mr. Alejandro Ramirez-Pabon joined UNDP in 2002. He has brought innovative<br />
approaches to tackling ozone-depleting substance phase-out in the servicing sector in the<br />
Latin American region, and has contributed to the development of the Multilateral Fund<br />
metered-dose inhaler sector guidelines.<br />
Mr. Antonio Sabater y Sabates worked for a number of years on the UNIDO ozone team,<br />
providing valuable support to many developing countries, particularly in the area of methyl<br />
bromide.<br />
Mr. Sidi Menad Si Ahmed has served UNIDO and the world community as both an<br />
effective UNIDO programme officer working primarily on the UNIDO methyl bromide<br />
portfolio and then as an effective manager of the UNIDO ozone team.<br />
Ms. Sandra Siles has been a reliable source of support to the World Bank Montreal Protocol<br />
team for more than half a decade, where her work contributed to ozone layer protection.<br />
Ms. Louise Shaw-Barry worked for many years to support the World Bank Montreal<br />
Protocol team in its efforts to disseminate knowledge and information regarding the Montreal<br />
Protocol and related activities carried out by the Bank.<br />
Mr. Rajendra Shende has worked tirelessly for almost fifteen years for <strong>UNEP</strong> and the cause<br />
of ozone protection. His management of the OzonAction group has enabled <strong>UNEP</strong> to play<br />
a central role in building the capacity of Parties operating under Article 5 and enabling their<br />
compliance with the Protocol.<br />
Ms. Ruma Tavorath has served the Parties for several years as a valued member of the<br />
World Bank ozone team, where her drive for excellence earned recognition from all of her<br />
colleagues.<br />
Montreal Protocol 20th Anniversary <strong>Awards</strong> 5
Ms. Archalus Tcheknavorian-Asenbauer was chiefly responsible for bringing UNIDO into<br />
the Montreal Protocol and establishing a highly effective ozone group which has assisted the<br />
phase-out work of many developing countries.<br />
Mr. Horacio Terraza has served the Parties for several years as a valued member of the<br />
World Bank ozone team, working primarily in the Latin American region.<br />
Ms. Laura Tlaiye served the Parties for several years as the team leader for the<br />
Latin American region.<br />
Ms. Ellen Tynan has served the Parties and the World Bank Montreal Protocol team for<br />
several years, and is recognized for her contribution to the initiation of the financial agent<br />
workshops.<br />
United Nations Office for Project Services Montreal Protocol staff and technical experts<br />
have delivered procurement services and technical and administrative assistance to hundreds<br />
of Fund projects in all regions over a 12-year period. Its devoted staff and senior technical<br />
experts have been critical to the success of the UNDP Montreal Protocol programme.<br />
Ms. Mugure Kibe Ursulet has been working with the <strong>UNEP</strong> OzonAction Programme since<br />
199 . As Documentation Assistant, she took an active role in outreach activities.<br />
Mr. Jacques Van Engel has worked as Montreal Protocol Programme Coordinator in UNDP<br />
for 1 years and has been an outstanding contributor to many successful initiatives and<br />
programmes. He was instrumental in introducing end-user refrigeration sector projects and<br />
ensuring their implementation in low volume consuming countries.<br />
Ms. Mirian Vega has been working for the last five years with the <strong>UNEP</strong> OzonAction<br />
Programme as Regional Network Coordinator for the Latin America and Caribbean region,<br />
assisting the 2 countries in the region and enabling South-South cooperation between large<br />
countries and small island countries.<br />
Mr. Viraj Vithoontien has served the Parties effectively for many years, first as an effective<br />
<strong>UNEP</strong> regional ozone coordinator and more recently as the Senior Regional Coordinator of<br />
the World Bank Montreal Protocol team.<br />
Montreal Protocol 20th Anniversary <strong>Awards</strong> 6
Montreal Protocol Bilateral Implementing Agency <strong>Awards</strong><br />
Under the terms of the Multilateral Fund for the Implementation of the Montreal protocol,<br />
donor countries are allowed to allocate up to twenty per cent of their contribution to bilateral<br />
assistance. Some donor countries have used this provision to operate sizable programmes and<br />
provide direct assistance to a large number of developing countries to meet their obligations<br />
under the Montreal Protocol. Accordingly, the Bilateral Implementing Agency Award is<br />
being given to relevant agencies in seven such countries:<br />
In recognition of extraordinary assistance to developing countries in the global effort to phase<br />
out ozone-depleting substances and protect the ozone layer.<br />
Department of the Environment and Water Resources, Government of Australia<br />
Environment Canada<br />
Federal Ministry for Economic Cooperation and Development (BMZ), Government of<br />
Germany, implementing through GTZ-Proklima, German Technical Cooperation<br />
Government of Japan<br />
Ministère de l’Economie, des Finances et de l’Emploi_Aide au Développement,<br />
Institutions multilatérales de Développement, Direction Générale du Trésor et de la<br />
Politique Economique / Secrétariat du Fonds Français pour l’Environnement Mondial<br />
(French GEF <strong>Secretariat</strong>)<br />
Swedish International Development Cooperation Agency<br />
United States Environmental Protection Administration Stratospheric Protection<br />
Division<br />
Montreal Protocol 20th Anniversary <strong>Awards</strong> 7
Montreal Protocol<br />
Outstanding Service <strong>Awards</strong><br />
Montreal Protocol 20th Anniversary <strong>Awards</strong> 9
Montreal Protocol Outstanding Service <strong>Awards</strong><br />
Inevitably, the important service provided by some international experts and entities did not<br />
fit neatly into any of the specific categories previously mentioned. Accordingly, their efforts<br />
are being recognized with the Outstanding Service Award.<br />
In recognition of outstanding service to the Parties to the Montreal Protocol and the global<br />
effort to protect the ozone layer.<br />
Mr. Mohamed T. El-Ashry is recognized for his vision and steadfast support of projects to<br />
enable countries with economies in transition to receive assistance under the Global<br />
Environment Facility and thereby to comply with the Montreal Protocol.<br />
Mr. Michel Graber is recognized for his dedication to the cause of protecting the ozone<br />
layer as a representative of Israel and as deputy executive secretary of the <strong>Ozone</strong> <strong>Secretariat</strong><br />
from 1996 to 2004. He was officer-in-charge from 2000 to 2002, during which time the<br />
<strong>Secretariat</strong> successfully convened the twelfth and thirteenth meetings of the Parties.<br />
Ms. Iwona Rummel-Bulska is recognized for her outstanding work serving as secretary<br />
and <strong>UNEP</strong> legal advisor for the ozone meetings leading up to the negotiation of the Montreal<br />
Protocol.<br />
Mr. Peter Usher is recognized for his outstanding work in organizing the initial <strong>UNEP</strong> ozone<br />
meetings, coordinating the world plan of action on ozone and running the Coordinating<br />
Committee on the <strong>Ozone</strong> Layer to enable the sharing of expert studies.<br />
<strong>Secretariat</strong> of the Multilateral Fund for the Implementation of the Montreal Protocol is<br />
recognized for its outstanding work in developing analysis and policy proposals to enable the<br />
transparent and effective approval of projects to enable developing country compliance with<br />
the Montreal Protocol.<br />
Mr. Omar E. El Arini is recognized for his outstanding work as Chief Officer of the<br />
Multilateral Fund secretariat.<br />
Montreal Protocol 20th Anniversary <strong>Awards</strong> 0
Mr. Richard Abrokwa-Ampadu is recognized for his outstanding work with the<br />
Multilateral Fund secretariat for over a decade, focusing, among other things, on foams<br />
sector projects.<br />
Mr. Anthony Hetherington is recognized for his outstanding work as a delegate from<br />
Australia and a Deputy Chief Officer of the Multilateral Fund secretariat.<br />
Mr. Sheng Shuo Lang is recognized for his outstanding work as a key member of the<br />
UNIDO Montreal Protocol team and a Deputy Chief Officer of the Multilateral Fund<br />
secretariat.<br />
Mr. Valery Smirnov is recognized for his outstanding work with the Multilateral Fund<br />
secretariat for over a decade, focusing among other things, on refrigeration sector projects.<br />
Mr. Mani Subramanian is recognized for his outstanding administrative support to the<br />
Multilateral Fund secretariat for over a decade.<br />
Montreal Protocol 20th Anniversary <strong>Awards</strong> 1
TEAP Champions <strong>Awards</strong><br />
Montreal Protocol 20th Anniversary <strong>Awards</strong>
Technology and Economic Assessment Panel Champion <strong>Awards</strong><br />
The Technology and Economic Assessment Panel (TEAP) has been one of the key pillars of<br />
the Montreal Protocol. The work of this body, comprised almost entirely of volunteers, has<br />
been indispensable in enabling the Protocol Parties to take informed decision on key issues<br />
of concern. While the members of the panel that are being honored here have given much to<br />
the Protocol through their work on TEAP and various TEAP task forces, virtually all of them<br />
have also contributed to ozone layer protection in other very significant ways.<br />
In recognition of extraordinary service to the Parties to the Montreal Protocol and the global<br />
effort to protect the ozone layer<br />
Mr. Radhey S. Agarwal has, in addition to serving as a co-chair of the Refrigeration<br />
Technical Options Committee for over 12 years worked fervently to help the Government of<br />
India with its phase-out of ozone-depleting substances.<br />
Mr. Stephen O. Andersen has been working as a co-chair of TEAP and global ozone<br />
champion since the inception of the Protocol. His leadership and prolific efforts around the<br />
globe have supported the efforts of many to achieve an early phase-out of ozone-depleting<br />
substances.<br />
Mr. Paul Ashford has served as a member of the Foams Technical Options Committee since<br />
1991 and a co-chair since 1998. His expertise on many issues, including data management<br />
and the ozone-climate nexus, has benefited Parties greatly.<br />
Mr. Jonathan Banks has been a co-chair and indispensable member of the Methyl Bromide<br />
Technical Options Committee for over 10 years. His work in TEAP on critical-use<br />
nominations and quarantine and pre-shipment issues, and his work outside TEAP on the<br />
development of methyl bromide alternatives, have contributed to ozone protection.<br />
Mr. Tom Batchelor served the Parties as co-chair and a valuable expert on the Methyl<br />
Bromide Technical Options Committee before focusing his work as an active ozone<br />
champion for the European Commission.<br />
Montreal Protocol 20th Anniversary <strong>Awards</strong>
Mr. Mohamed Besri has been a member of Methyl Bromide Technical Options Committee<br />
for 15 years and has served as a co-chair since 2005. He is also full-time professor at the<br />
Hassan II Institute of Agronomy and Veterinary Medicine in Rabat.<br />
Mr. Walter Brunner, in addition to serving as a co-chair of the Halons Technical Options<br />
Committee, has been a strong advocate for the use of recycled halons – a policy that enabled<br />
an early halon phase-out.<br />
Mr. Nick Campbell has consistently provided his unique and valuable insights to TEAP,<br />
helping it and the Parties in such areas as laboratory and analytical uses, process agents,<br />
basic domestic needs and destruction.<br />
Ms. Suely Machado Carvalho has served the Parties as an active delegate and headed the<br />
UNDP team assisting developing countries in complying with the Montreal Protocol. Suely<br />
served as a TEAP co-chair for nine years.<br />
Mr. David Catchpole has been a member of the Halons Technical Options Committee for<br />
over 15 years and a co-chair since 2005. His work on halons has contributed to the<br />
climate-ozone discussions, consideration of the phase-out of halons use in aircraft and the<br />
phase-out of halons in critical-use categories.<br />
Mr. Jorge Corona was a co-chair of the Solvents, Coatings and Adhesives Technical<br />
Options Committee and TEAP Senior Expert Advisor, serving the Parties for over a decade<br />
on a host of key issues.<br />
Mr. Laszlo Dobo served as a senior expert member of TEAP for eight years and in that role<br />
contributed valuable information to many TEAP studies.<br />
Mr. Abe Finkelstien has served as co-chair of many TEAP studies related to destruction and<br />
disposal of ozone-depleting substances.<br />
Mr. Yuichi Fujimoto has, in addition to serving as a senior advisor to TEAP for 10 years,<br />
provided invaluable assistance to Japan’s effort to phase out ozone-depleting substances.<br />
Montreal Protocol 20th Anniversary <strong>Awards</strong> 5
Mr. Ahmad Gaber was a co-chair and valued member of the Solvents, Coatings and<br />
Adhesives Technical Options Committee from 2001 to 200 . He is a professor at Cairo<br />
University and an owner of a consultancy, Chemonics.<br />
Ms. Andrea Hinwood was a founding member of Aerosols and Miscellaneous Uses Options<br />
Committee, where he served as a member from 1989 to 1995 and as co-chair from 1991 to<br />
1995. She is deputy chair of the Environmental Protection Authority of Western Australia and<br />
an academic at Edith Cowen University, Perth, Australia.<br />
Mr. Biao Jiang is a co-chair of the Chemicals Technical Options Committee. He is Professor<br />
of Chemistry at the Shanghai Institute of Organic Chemistry, Chinese Academy Of Sciences,<br />
and a member of the editorial advisory board of Chemical Communication at the Royal<br />
Society of Chemistry, United Kingdom.<br />
Mr. Lambert Kuijpers was a pioneer in the search for and implementation of<br />
ozone-depleting-substance-free technologies before turning his efforts to the Protocol and<br />
serving as a co-chair of TEAP for 17 years. His prolific work, including his work on<br />
replenishments, has helped the Parties greatly.<br />
Ms. Barbara Kucnerowicz Polak is a scientist who served the Halons Technical Options<br />
Committee for eight years, acting as a co-chair from 1996 to 2002. She also contributed to<br />
TEAP studies on hydrofluorocarbons and perfluorocarbons.<br />
Mr. Stephen Lee-Bapty was a TEAP co-chair in 1991 and 1992, a member of the<br />
Economics Options Committee (1991) and co-chair of the Methyl Bromide Scientific and<br />
Economic Assessment (1992).<br />
Mr. Tamás Lotz was a TEAP Senior Expert Member from 2002 to 2006 and as a TEAP<br />
member contributed to the International Panel on Climate Change/TEAP Special Report.<br />
Ms. Jean Lupinacci was a founding co-chair of the Foams Technical Options Committee<br />
(1989–1995) and a member of the task force on decision XVIII/12. She is director of the<br />
United States Environmental Protection Agency’s Energy Star Buildings Program.<br />
Mr. Mohinder Malik was a member of the Solvents, Coatings & Adhesives Technical<br />
Options Committee for eight years and co-chair of that body for four years. He has also<br />
contributed to TEAP task force reports.<br />
Montreal Protocol 20th Anniversary <strong>Awards</strong> 6
Ms. Michelle Marcotte has been an active and valued member of the Methyl Bromide<br />
Technical Options Committee for 15 years. She has been a co-chair of that important body<br />
since 2005, and has also contributed to TEAP task force reports.<br />
Mr. Nahum Marban Mendoza has been a member of the Methyl Bromide Technical<br />
Options Committee for six years and served as a co-chair from 2002 to 2005. He is a<br />
full-time professor at Universidad Autonoma de Chapingo.<br />
Ms. Melanie K. Miller has served as an active member of the Methyl Bromide Technical<br />
Options Committee for 1 years and has worked globally for the effective phase-out of<br />
methyl bromide. In the process she has helped many countries reduce or eliminate their<br />
reliance on this chemical.<br />
Mr. E. Thomas Morehouse, Jr. has been a co-chair of the Halons Technical Options<br />
Committee and a senior advisor to TEAP. He has also played a significant role in the military<br />
phase-out of ozone-depleting substances in the United States of America.<br />
Mr. David Okioga, has served as co-chair of the Methyl Bromide Technical Options<br />
Committee and as a strong delegate and national ozone officer from Kenya.<br />
Ms. Marta Pizano de Márquez has been a member of the Methyl Bromide Technical<br />
Options Committee since 1998 and a co-chair of that body since 2005. She has also<br />
co-chaired or worked on various TEAP reports.<br />
Mr. José Pons is a founding member of the Aerosols and Miscellaneous Uses Options<br />
Committee and a co-chair of that body from 1991 to 200 . He is also a co-chair of the<br />
Medical Technical Options Committee and TEAP. His broad experience has been critical to<br />
many of the TEAP task force efforts.<br />
Mr. Ian J. Porter has been a member of the Methyl Bromide Technical Options Committee<br />
since 1998, and a co-chair since 2005. He is a technical specialist and principal research<br />
scientist at the Department of Primary Industries, Melbourne, Australia, and has contributed<br />
to the development of alternatives to methyl bromide.<br />
Mr. Miguel Quintero has been a member and co-chair of the Foams Technical Options<br />
Committee since 2002. He is Development Leader for Polyurethane Product Research at<br />
Dow Europe, Brussels.<br />
Montreal Protocol 20th Anniversary <strong>Awards</strong> 7
Mr. Ian D. Rae has been a member and co-chair of the Chemicals Technical Options<br />
Committee since 2005 and has contributed to other TEAP task force reports. He is an<br />
honorary professorial fellow at the University of Melbourne, Australia.<br />
Ms. Sally Rand was a member and co-chair of the Foams Technical Options Committee<br />
from 199 to 1998 and a participant on many task force efforts. She is currently the<br />
director of the high global warming potential greenhouse gas voluntary programme at the<br />
United States Environmental Protection Administration.<br />
Mr. Rodrigo Rodriguez-Kabana was a member of the Methyl Bromide Technical Options<br />
Committee (1992–2002), serving as co-chair from 1996 to 2000. He was a member of the<br />
Methyl Bromide Scientific and Economic Assessment (1992). He is Professor Emeritus at<br />
Auburn University, Alabama, United States of America.<br />
Mr. K. Madhava Sarma has served as valued representative of and advisor to India. He was<br />
also the first Executive Secretary of the <strong>Ozone</strong> <strong>Secretariat</strong> and has served as a senior expert<br />
member of TEAP since 2000 and contributed to many TEAP studies.<br />
Mr. Sateeaved Seebaluck has served as a senior advisor to TEAP, an active representative of<br />
Mauritius and a co-chair of the Open-ended Working Group.<br />
Ms. Lalitha Singh was co-chair of the Foams Technical Options Committee from 1996 to<br />
2001 and a valued participant in several TEAP studies.<br />
Mr. Gary Taylor served as a founding member and co-chair of the Halons Technical Options<br />
Committee from 1989 to 200 . He has been an ozone champion, who has worked tirelessly in<br />
Canada and around the world to promote alternatives to halons.<br />
Ms. Helen Tope has been a co-chair of the Medical Technical Options Committee and<br />
Aerosols and Miscellaneous Uses Options Committee for almost 15 years, where she has<br />
been a strong advocate for a seamless transition to CFC-free metered-dose inhalers.<br />
Mr. Robert van Slooten served as a co-chair of the Economics Options Committee from<br />
1991 to 2000. His economic background proved helpful in many task force efforts.<br />
Montreal Protocol 20th Anniversary <strong>Awards</strong> 8
Mr. Daniel P. Verdonik has served as a member of the Halons Technical Options Committee<br />
for 16 years and a co-chair since 2005 and has also been an international leader in the search<br />
for alternatives to ozone-depleting substances, particularly in military applications.<br />
Mr. Ashley Woodcock is a dedicated physician who volunteered his time for over a decade<br />
to advise the Parties on issues related to metered-dose inhalers. He served as a co-chair of the<br />
Aerosols and Miscellaneous Uses Options Committee and Medical Technical Options<br />
Committee from 199 to 200 .<br />
Mr. Masaaki Yamabe has served as a valued participant in the TEAP process since 1991,<br />
serving as a member, senior expert, and co-chair of the Chemicals Technical Options<br />
Committee.<br />
Ms. Shiqiu Zhang has been a member and co-chair of the Economic Technical Options<br />
Committee and a senior expert on TEAP since 2000. She is Professor of Environmental<br />
Sciences at the College of Environmental Sciences, Peking University, China.<br />
Montreal Protocol 20th Anniversary <strong>Awards</strong> 9
Vienna Convention <strong>Awards</strong><br />
for Outstanding Contributions to the Protection of the<br />
<strong>Ozone</strong> Layer<br />
Montreal Protocol 20th Anniversary <strong>Awards</strong> 51
Vienna Convention <strong>Awards</strong> for Outstanding Contributions<br />
to the Protection of the <strong>Ozone</strong> Layer<br />
In 2005, the Parties to the Vienna Convention celebrated the twentieth anniversary of that<br />
landmark framework treaty and recognized the contributions of key members of the<br />
scientific community who have contributed so much to the ozone regime. While this year we<br />
are celebrating the twentieth anniversary of the Montreal Protocol, we believe it is important<br />
to recall that the Parties to the Montreal Protocol have relied on these and many other<br />
scientific experts to take important decisions on controls. Accordingly, we wanted the work<br />
of these experts and the scientific community to be recognized in this awards booklet.<br />
Mr. Ayite-Lo Nohende Ajavon of Togo has made significant contributions to the Vienna<br />
Convention through his roles as a long-time co-chair and key contributor to the Scientific<br />
Assessment Panel that developed the annual and quadrennial reports on ozone science.<br />
Mr. Daniel L. Albritton of the United States of America is recognized as one the world’s<br />
foremost experts on atmospheric science and has served as a co-chair of the Protocol’s<br />
Science Assessment Panel since its inception.<br />
Mr. James Anderson of the United States of America, who pioneered the in situ detection of<br />
stratospheric free radicals from balloon and high-altitude aircraft platforms, thus<br />
demonstrating the role of CFCs and other man-made chlorine compounds in depleting the<br />
ozone layer over Antarctica.<br />
Mr. Pieter Aucamp of South Africa served for many years as a member of the <strong>UNEP</strong><br />
Environmental and Health Effects Assessment Panel. As a co-chair of the Scientific<br />
Assessment Panel from 1994 to 2001, he coordinated the scientific assessment of the ozone<br />
layer<br />
Mr. Rumen D. Bojkov of Bulgaria served as Chief of the World Meteorological<br />
Organization (WMO) Atmospheric Sciences Division from 197 to 198 . Mr. Bojkov<br />
initiated the first international assessment of the ozone layer. He went on to become one of<br />
the key organizers of five further WMO/<strong>UNEP</strong> ozone assessments. He also actively<br />
contributed to the preparations for the Vienna Convention.<br />
Mr. Paul Crutzen of the Netherlands, Mr. Mario Molina of Mexico, and Mr. Frank Rowland<br />
of the United States of America, jointly won the Nobel Prize in Chemistry in 1995 for their<br />
pioneering work on ozone-depleting substances and the stratospheric ozone layer.<br />
Montreal Protocol 20th Anniversary <strong>Awards</strong> 52
Mr. Joseph Charles Farman’s 1985 report in Nature magazine, in which he described a 0<br />
per cent decrease of stratospheric ozone over Antarctica in one month, confirmed the<br />
presence of the Antarctic ozone hole. In speculating about the cause of such a drastic decline,<br />
he discussed the possibility that chlorofluorocarbons in the atmosphere could play a role.<br />
Mr. Jan van der Leun of the Netherlands has served as co-chair of the <strong>UNEP</strong><br />
Environmental Effects Assessment Panel under the Montreal Protocol since its inception in<br />
1988. In that role, he has helped Governments to comprehend more fully the scientific issues<br />
involved in the ozone regime.<br />
Mr. Godwin Olu Patrick Obasi of Nigeria served as Secretary-General of WMO from 198<br />
to 200 . He oversaw and contributed to the important participation of WMO in the<br />
development and achievements of the Vienna Convention on the Protection of the <strong>Ozone</strong><br />
Layer.<br />
Ms. Susan Solomon of the United States of America made scientific expeditions to<br />
Antarctica in 1986 and 1987 to detect and quantify ozone-depleting chemicals in the<br />
atmosphere, which led to a greater understanding of ozone chemistry.<br />
Mr. Xiaoyan Tang of China has served as co-chair of the Environmental Effects Panel of the<br />
Montreal Protocol since 1992. She has also made critical contributions to China’s phase-out<br />
efforts and she was instrumental in advancing China’s ratification of the Vienna Convention<br />
and the London Amendment to the Montreal Protocol.<br />
Mr. Manfred Tevini of Germany has served as a co-chair of the <strong>UNEP</strong> Assessment Panel on<br />
the Environmental Effects of <strong>Ozone</strong> Depletion since its inception.<br />
Mr. Mostafa Kamal Tolba of Egypt served as Executive Director of <strong>UNEP</strong> from 197 to<br />
1992. Mr. Tolba recognized very early that the issue of stratospheric ozone layer depletion<br />
needed careful scientific monitoring. He then played a critical leadership role during the<br />
negotiations for both the Convention and the Protocol.<br />
Mr. Robert Watson of the United States of America has co-chaired the Science Assessment<br />
Panel under the Montreal Protocol since its inception and played a key role in the negotiation<br />
of the Vienna Convention and the Montreal Protocol.<br />
Montreal Protocol 20th Anniversary <strong>Awards</strong> 5
A word about the <strong>Awards</strong><br />
The Twentieth Anniversary <strong>Ozone</strong> Protection <strong>Awards</strong> are being given out in 10 categories.<br />
The recipients of awards under the first six categories outlined in this booklet were selected<br />
with the valuable advice of panels of international experts with a significant understanding of<br />
the context and contributions that have been made in the specified award areas.<br />
Technology and Economic Assessment Panel Champion <strong>Awards</strong> are being presented to those<br />
individuals that have volunteered to serve as co-chairs or senior experts for a certain duration<br />
on the Panel, which has played a key role in the success of the Montreal Protocol.<br />
The awards for implementing agencies recognize the contribution of those agencies and<br />
individuals working under the Multilateral Fund to assisting developing countries in their<br />
implementation of the Protocol. They are being presented to the individuals that the heads of<br />
the relevant programmes judge to have made the most significant contributions.<br />
<strong>Awards</strong> for bilateral implementing agencies are being presented to those Parties that have<br />
worked to implement a significant number of projects in developing countries through the<br />
Multilateral Funds.<br />
The awards for outstanding service are being presented by the <strong>Ozone</strong> <strong>Secretariat</strong> to the<br />
Multilateral Fund secretariat and its former or current staff, as nominated by the Head of the<br />
Fund secretariat, for their outstanding work in supporting developing countries. The award is<br />
also being presented to those individuals and institutions who, by their work and<br />
contributions, have provided a unique service to the Protocol Parties.<br />
As noted on page 27 above, the Vienna Convention <strong>Awards</strong> were issues in 2005 and are<br />
included in this awards booklet to commemorate the contribution that the award winners<br />
have also made to the Montreal Protocol.<br />
Finally, the recognition of exemplary projects is being addressed in a separate brochure.<br />
Montreal Protocol 20th Anniversary <strong>Awards</strong> 5
20th Anniversary of the Montreal Protocol<br />
Contest Winners<br />
***<br />
Montreal Protocol 20th Anniversary <strong>Awards</strong> 55
Contest Winners:<br />
Best 20th Anniversary Related Poster<br />
National <strong>Ozone</strong> Unit, Ministry of Nature Protection of the Republic of Armenia<br />
Poster by: Karen Manukyan<br />
<strong>Ozone</strong> Office, Ministry of Environment, Lebanon<br />
Poster by: Rara Bark<br />
United States Environmental Protection Agency<br />
Poster by:<br />
Montreal Protocol 20th Anniversary <strong>Awards</strong> 56
Poster by-Karen Manukyan<br />
Armenia<br />
Montreal Protocol 20th Anniversary <strong>Awards</strong> 57
Poster by-Rana Bark<br />
Lebanon<br />
Montreal Protocol 20th Anniversary <strong>Awards</strong> 58
Poster by-United States Environmental Protection Agency<br />
USA<br />
Montreal Protocol 20th Anniversary <strong>Awards</strong> 59
Winners:<br />
Policy Category:<br />
Best New Paper on a Montreal Protocol Related Topic<br />
‘‘Policy options to reduce consumer waste to zero: comparing product stewardship and<br />
extended producer responsibility for refrigeration waste’’ by scott Nicol and Shirley<br />
Thompson, Natural Resources Institute, University of Manitoba.<br />
Science Category:<br />
‘‘The importance of the Montreal protocol on protecting climate’’ by Guus J. M Velders,<br />
(Netherlands Environmental Assesment Agency), Stephen O. Andersen ( US Environmental<br />
Protection Agency), John S. Daniel ( National Oceanic and Atmospheric Administration,<br />
Earth System Research Laboratory-NOAA-ESRL), David W. Fahey (NOAA-ESRL) and<br />
Marc McFarland (DuPont Fluoroproducts).<br />
Montreal Protocol 20th Anniversary <strong>Awards</strong> 60
Policy Options to Reduce Consumer Waste to Zero: Comparing Product<br />
Stewardship and Extended Producer Responsibility for Refrigerator Waste<br />
Scott Nicol, NRI University of Manitoba<br />
Dr. Shirley Thompson, NRI University of Manitoba<br />
Montreal Protocol 20th Anniversary <strong>Awards</strong> 61
ABSTRACT<br />
Today, over consumption, pollution and resource depletion threaten sustainability. Waste<br />
management policies frequently fail to reduce consumption, prevent pollution, conserve<br />
resources and foster sustainable products. However, waste policies are changing to focus<br />
on lifecycle impacts of products from the cradle to the grave by extending responsibilities<br />
of stakeholders to post-consumer management. Product stewardship and extended producer<br />
responsibility are two policies in use, with radically different results when compared for one<br />
consumer product, refrigerators. North America has enacted product stewardship policies<br />
that fail to require producers to take physical or financial responsibility for recycling or for<br />
environmentally sound disposal, so that releases of ozone depleting substances routinely<br />
occur, which contribute to the expanding the ozone hole. Conversely, Europe’s Waste<br />
Electrical and Electronic Equipment (WEEE) Directive requires extended producer<br />
responsibility, whereby producers collect and manage their own post-consumer waste<br />
products. WEEE has resulted in high recycling rates of greater than 85%, reduced emissions<br />
of ODSs and other toxins, greener production methods, such as replacing greenhouse gas<br />
refrigerants with environmentally friendly hydrocarbons and more reuse of refrigerators in<br />
EU compared to North America.<br />
KEY WORDS<br />
Extended producer responsibility, product stewardship, refrigerator, end-of-life, waste<br />
Montreal Protocol 20th Anniversary <strong>Awards</strong> 62
INTRODUCTION<br />
Effective waste policies are badly needed as waste per capita continues to increase<br />
throughout North America and the world. Inefficient production processes, poor product<br />
design and societal over-consumption are blamed (Sinclair and Quinn 2006). In North<br />
America, municipal waste management subsidies have ultimately created a ‘disposable<br />
society’ (Seidel 2006). Municipalities are obligated to manage consumer waste streams with<br />
the costs levied through municipal taxes, rather than internalized into product pricing.<br />
Policymakers are now emphasizing lifecycle analysis, which examines cradle-to-grave<br />
impacts of products and processes. This analysis extends responsibilities to one or more<br />
stakeholders along the product chain to include post consumer management. Although<br />
“waste generation should be prevented in the first place; and final residuals should be treated<br />
in an efficient manner” (OECD 2001:93), realistically, life-cycle impacts are externalities, not<br />
required to be counteracted or paid for by the producer (BIAC 1998).<br />
Responsibilities for end-of-life management must be assigned and clearly articulated when<br />
developing policy if waste from consumer products is to be reduced. Effective policies<br />
exploit all possible avenues for waste reduction (i.e., source reduction, recycling, material<br />
substitution, etc.). Product and producer responsibility policies have emerged as two<br />
important approaches to minimize environmental impacts of products and realize zero waste.<br />
Extended producer responsibility (EPR) requires producers to pay the cost of recycling their<br />
post-consumer waste (Sachs 2006; Walls 2006). Conversely, product stewardship does not<br />
target producers specifically, relying upon other stakeholders, with costs paid by consumers,<br />
material handling by the vendor or municipality, and no required recycling targets (Schwartz<br />
and Gattuso 2002; Short 200 ; Walls 2006). In 2006, the European Union (EU) adopted EPR<br />
to deal with the growing volume of refrigerators and electronics while North America has no<br />
sustainable electronics management plan (Sachs, 2006; Short, 200 ). Thus, it is important to<br />
see whether EPR has any benefits over product stewardship to recommend policy for<br />
post-consumer refrigerator management in North America.<br />
APPROACH<br />
EPR and product stewardship policies were compared for effectiveness at achieving<br />
environmental goals, particularly towards refrigerators in Europe and North America. A<br />
literature review, interviews, a survey and tours of recycling and disposal facilities in the US,<br />
Canada and the EU were conducted to ascertain the impact of different policies for the<br />
management of post consumer waste refrigerators.<br />
Montreal Protocol 20th Anniversary <strong>Awards</strong> 6
Fifty million refrigerators are sent for disposal each year in North America and Europe<br />
respectively, representing one percent of the total municipal solid waste stream. Refrigerator<br />
waste management is an important case study as they contain ozone-depleting substances<br />
(ODS). Refrigerators contain chlorofluorocarbons (CFCs) in their insulating foam and<br />
cooling circuit, which are major contributors to ozone depletion. Releasing refrigerants into<br />
the atmosphere has created “ozone holes,” which are severe depletions of the stratospheric<br />
ozone layer above the Arctic and Antarctic poles. The chlorine from CFC molecules bond<br />
with oxygen destroying 100,000+ ozone (O ) molecules over its 0-120 year life span.<br />
Scientists report that the 2006 ozone hole was the largest to date (NASA 2006). The ozone<br />
layer is needed to protect life from the harmful impacts of solar radiation. With its thinning,<br />
increases in skin cancer, cataracts, and loss of species diversity have occurred over the last<br />
few decades (The <strong>Ozone</strong> Hole 2006). Additionally, each kilogram of CFC-12, one of the<br />
most commonly used CFCs, has the global warming potential of about 11,000 kilograms of<br />
carbon dioxide. Despite implementing the Montreal Protocol (the international agreement<br />
to protect the stratospheric ozone layer), Canada and the US have no comprehensive waste<br />
management policy for discarded refrigerators.<br />
Although EPR and product stewardship are very different in practice, these terms are used<br />
interchangeably (Worrell and Appleby 2000:266). McKerlie, Knight, and Thorp (2006)<br />
found that policy makers confuse these terms, mistaking shared responsibilities for sole<br />
producer accountability. The US Environmental Protection Agency’s (EPA) describes<br />
product stewardship as a system of shared responsibility extending beyond EPR (Hanisch<br />
2000). Similarly, Minnesota (2006) makes no distinction between extended product<br />
responsibility, shared responsibility, manufacturer responsibility, and EPR. As well, EPR<br />
is labelled product stewardship: British Columbia’s ‘full product stewardship approach,’ is<br />
actually an EPR policy as producers assume full physical and financial responsibility, which<br />
includes consumer education, collection, recycling, etc. This mixing up of the two obliterates<br />
the important difference “between truly progressive EPR programs which aim to prevent<br />
rising levels of waste and pollution, versus shared product stewardship initiatives” which do<br />
not (McKerlie, Knight, and Thorp 2006:620).<br />
COMPARING THE TWO POLICIES<br />
There are many product/producer responsibility strategies as Diagram 1 shows the continuum<br />
from low producer responsibility for product stewardship to ultimate producer responsibility<br />
for EPR.<br />
Montreal Protocol 20th Anniversary <strong>Awards</strong> 6
Diagram 1: Continuum of Producer Responsibility for Different Strategies.<br />
‹------------------------------- Decreasing Producer Responsibility ‹------------------------<br />
Product<br />
Stewardship<br />
Shared<br />
Responsibility<br />
Shared Producer<br />
Responsibility<br />
Producer<br />
Responsibility<br />
Extended<br />
Producer<br />
Responsibility<br />
----------------------------------› Increasing Producer Responsibility -----------------------›<br />
Modified from: (Business and Industry Advisory Committee to the OECD 1998)<br />
Extended Producer Responsibility<br />
EPR is defined as “the producers’ responsibility, physical and/or financial, for a product<br />
[which] is extended to the post-consumer stage of a product’s life cycle, to provide incentives<br />
to producers to incorporate environmental considerations in the design of their products”<br />
(OECD 2001:18). Physical responsibility refers to the direct or indirect handling of a<br />
product, including take-back by producer for recycling (Toffel 2002). Financial<br />
responsibility has the producer pay for any end-of-life recycling and disposal costs.<br />
This relieves municipalities of the financial burden of waste management and encourages<br />
producers to reduce resources, utilize recycled materials, and undertake product design<br />
changes to reduce waste (OECD 2001 in Walls, 200 ). The producer is in the best position to<br />
assume waste management responsibilities, holding the most product-related knowledge and<br />
controlling the production and design process.<br />
EPR includes product recycling, regulation, and redesign as solutions for sustainability.<br />
Policy instruments can include product fees, such as advance recycling fees (ARFs), product<br />
take-back mandates, virgin material taxes, pay-as-you-throw, waste collection charges, and<br />
landfill bans (Sachs 2006). Consumer education programs, that encourage product recycling<br />
over disposal, help producers effectively recover their products from consumers.<br />
EPR policies have three characteristics: 1) a focus on end-of-life waste management to<br />
encourage environmental redesign, 2) a shift of physical and/or financial responsibilities from<br />
taxpayer/consumer to producer, and ) an explicit target for waste reduction (e.g., WEEE<br />
75—80% recycling of refrigerators). Mandated programs “force producers to get involved in<br />
managing material streams” (McKerlie, Knight, and Thorp 2006:625). Effective EPR<br />
programs require government regulations mandating producer responsibility for the physical<br />
and financial take-back of their products with limited government involvement. An open<br />
market with diverse competition for waste management is considered to be more effective<br />
than state-run programs, which suppress competition (Sheehan and Spiegelman 2005b).<br />
Mandated programs prohibit ‘free riders,’ who abuse take-back programs by using the<br />
established infrastructure for collecting their product without providing an ARF to fund that<br />
system.<br />
Montreal Protocol 20th Anniversary <strong>Awards</strong> 65
When lifecycle environmental costs are required to be paid by the producer, implementing<br />
green production processes makes economic sense. Design for Environment (DfE) has<br />
producers considering “at the development phase of a products life cycle, the environmental<br />
impacts through enhancing the product design…[which] includes resource consumption,<br />
both in material and energy terms and pollution prevention” (Dantes 2005:1). Environmental<br />
considerations in product design include: waste minimization, reuse or recyclability, material<br />
conservation, pollution reduction, lower toxicity and “eco-design” (Schwartz and Gattuso,<br />
2002; Walls, 2006).<br />
EU’s Waste Electrical and Electronic Equipment (WEEE) Directive<br />
The WEEE Directive is EPR legislation that regulates the collection, recovery, reuse, and<br />
recycling of electrical and electronic equipment destined for disposal. The onus of<br />
post-consumer product disposal is solely the producers and requires all products on the<br />
market be designed for disassembly and recovery. Consumers of WEEE products must have<br />
the opportunity to return waste items, without charge, to collection facilities with the<br />
producer responsible for product recovery (M. Baker Recycling 2006).<br />
Prior to WEEE, several member states within the EU (Belgium, the Netherlands, Sweden,<br />
Norway, and Switzerland) adopted national regulations and management schemes for<br />
e-wastes (Sachs 2006; Savage et al 2006). Programs operated at a recycling rate of<br />
approximately 80-90% with 97% achieved by Switzerland. The Norwegian, Belgian, and<br />
Dutch models had visible ARFs on the sale of white goods (i.e. all refrigerators in Belgium<br />
had a flat fee of 20 euros per unit) while the Netherlands charged costs related to the cost/ease<br />
of recycling specific products. Industry supports ARFs to illustrate the costs of recycling<br />
historical waste for periods of eight-ten years. As pre-2005 orphaned products (after August<br />
1 , 2005 producers deal only with their own products) become a smaller part of total waste<br />
collected, producers have greater incentive for ecodesign, to reduce costs associated with<br />
recycling/reuse and individual collection, for a market price advantage (Savage, 2006).<br />
Drawbacks to EPR<br />
The majority of producers saw few commercial opportunities in implementing WEEE, only<br />
‘a burden and a challenge, nothing positive’ (Savage et al 2006:25). The 20 euro ARF<br />
applied to the sale of refrigerators in Belgium does little to drive DfE changes, by not<br />
rewarding manufacturers/consumers of environmentally friendly refrigerators. The lack of<br />
linkage between fee levels for recycling and actual costs (as a result of cross subsidy or high<br />
administrative costs) has led some producers to show that “a cost-effective recycling solution<br />
is not necessarily related to environmental benefit” (Savage, 2006:30). Many producers are<br />
disappointed at the missing incentives in the Directive for better environmental performance,<br />
as they will be charged for their products on, e.g. a weight basis, independently from the<br />
attributes of their products in the same category. Although all nations allow individual and<br />
collective producer compliance, criteria usually encourages producers to join a single national<br />
collective system to reduce the burden of monitoring and approvals on government. Some<br />
producers argue that waste management requirements of EPR are unfair as producers are not<br />
experienced waste managers. Furthermore, product related environmental footprints are not<br />
always reduced by the producer acting alone, without other actors, such as retailers,<br />
consumers, and municipal waste management organizations “pitch[ing] in for the most<br />
workable and cost-effective solution” (US EPA 2001 in Toffel 2002:5).<br />
Montreal Protocol 20th Anniversary <strong>Awards</strong> 66
Product Stewardship<br />
Product stewardship is “an environmental management strategy that means whoever designs,<br />
produces, sells, or uses a product takes responsibility for minimizing the products<br />
environmental impact through all stages of the products lifecycle” (NWPSC 2001 in Toffel<br />
2002:5). This multi-stakeholder approach advocates participation from all actors along the<br />
product chain including the producer, manufacturer, importer, distributor, retailer, consumer,<br />
and recycler (Sheehan and Spiegelman 2005a). Ideally, responsibility is divided up as<br />
follows: producers ensure that collection and recycling infrastructure is in place, consumers<br />
pay levies and deliver the product to collection points, retailers participate in collection of<br />
waste, and governments establish standards and ensure free riders do not take advantage of<br />
the system (Thorpe, Kruszewska, and McPherson 200 ).<br />
However, allocating responsibilities among many stakeholders often leads to confusion over<br />
who is primarily responsible for end-of-life management (OECD 2001; Thorp, Kruszewska,<br />
and McPherson 2004). As well, the role of producer is limited, typically, having no financial<br />
or physical responsibility. Shared responsibility approaches fail to internalize environmental<br />
impact costs, providing no feedback to the producer regarding lifecycle management costs<br />
of their products. Although product stewardship programs increase recycling rates they fail<br />
to reduce consumption or prevent pollution. This legislation neglects to prevent waste, as it<br />
provides no incentive for DfE and does not impose hazardous wastes restrictions (i.e. RoHS)<br />
or recycled content targets. Overall, product stewardship programs are a “step in the wrong<br />
direction because they will not lead to better and safer product design nor will they lead to<br />
the phase out of hazardous chemicals in the product” (Thrope, Kruszewska, and McPherson<br />
200 :21).<br />
Policy makers in North America are reluctant to require EPR. The US has rarely mandated<br />
strict guidelines for product manufacturing towards processes or types of materials used.<br />
The lack of green product development, compared to the EU, is explained by the “stronger<br />
conception of individual and property rights in the United States, the legacy of the western<br />
frontier and the relative abundance of open space in the United States, and a greater mistrust<br />
of government in the United States” (Sachs 2006:86). Also US manufacturers lobbied for<br />
product stewardship over mandated EPR (Thorpe, Kruszewska, and McPherson 200 ).<br />
Industry pressure led to the Presidents Council on Sustainable Development abandoning<br />
EPR for voluntary, shared responsibilities (Sheehan and Spiegelman 2005a).<br />
Montreal Protocol 20th Anniversary <strong>Awards</strong> 67
Comparing the Two Policy Approaches for Effective in Refrigerator Management<br />
Table 1 compares the two policy approaches -- EPR in the EU to product stewardship in<br />
North America for refrigerator management.<br />
Table 1: Comparison Between Different Refrigerator Waste Approaches in the European<br />
Union and Canada<br />
Environmental, and funding<br />
considerations of policies<br />
Targets to encourage full<br />
recycling/reuse<br />
Recycling rates Recycling rates exceeded 80%<br />
reaching 97% in Switzerland.<br />
Best Available Technology (BAT)<br />
for recycling<br />
Adequate funding for collection<br />
and recycling<br />
EPR in WEEE Directive – EU Product Stewardship --<br />
North America<br />
Minimum 75-80% per unit. No target requirements set.<br />
Required. MeWa/SEG<br />
advanced technology reduces ODS<br />
emissions.<br />
ODS in refrigerant recovered Yes (Average 99% recovery rate<br />
under MeWa/SEG<br />
technology)<br />
Adequate infrastructure in place<br />
for recycling<br />
ODS in insulating foam<br />
recovered<br />
Unknown (much less than 75%)<br />
Not required. Automotive<br />
shredding releases ODS and other<br />
toxic materials.<br />
Yes -- producer pays Generally, municipalities do not<br />
provide enough funding for BAT.<br />
Yes (inclusive refrigerator<br />
recycling facilities)<br />
Monitoring and regulation of ODS Yes – 0.05 grams per hour, strict<br />
regulation.<br />
Monitoring and regulation of<br />
mercury switches and PCB<br />
Free of Charge Take-back for<br />
consumer paid by producer<br />
Yes with an estimated 10%<br />
non-compliance found in<br />
Canada from Survey of 45 landfills<br />
Generally limited to scrap metal<br />
recycling and refrigerant recovery.<br />
Yes. No facility in Canada to<br />
recover ODS in foam results in<br />
its release. Manual disassembly<br />
techniques reduce emissions.<br />
Recovered prior to recycling No<br />
Yes, however, rarely enforced.<br />
Yes No. Costs $ 5-115 to<br />
consumer for pick-up and<br />
decommissioning results in<br />
illegal refrigerant venting or unit<br />
disposal.<br />
Collection systems Yes. Usually municipal solid waste<br />
Regulation prohibiting toxic<br />
materials<br />
Yes – RoHS No<br />
Incentives for DfE Yes No<br />
Promotion of reuse Yes No – discourage reuse due to older<br />
models using 2x<br />
electricity.<br />
Incentives for<br />
repair/remanufacture<br />
Yes No<br />
Landfill ban Yes Limited – Depends on jurisdiction<br />
Montreal Protocol 20th Anniversary <strong>Awards</strong> 68
North American and EU approaches to refrigerator management show the striking differences<br />
between product stewardship and EPR on: recovery/recycling/reuse targets, emissions of<br />
ODS, and environmental design feedback. The EU has much higher recycling rates for all<br />
refrigerator components whereas North America, recycling is limited to metals and<br />
refrigerant collection. In the EU, WEEE stipulates that 75-80% of all component parts from<br />
refrigerators must be recycled or reused (Official Journal of the EU 2003, M. Baker 2006,<br />
Walls 2006). For example, the Dutch Management of White and Brown Goods Decree<br />
(1998) set recycling targets at 75% and actually achieved 85.5% between the years 2000-<br />
2001 (Walls 2006). By producers being required to fund recycling and collection<br />
infrastructure, implementation of best available treatment technology is possible (Sachs,<br />
2006). For refrigerators that means properly extracting, containing, and treating any ODS<br />
or greenhouse gases contained in a cooling circuit or insulating foam (Official Journal of the<br />
EU 200 ). For example, the UK has a number of refrigerator recycling factories to service<br />
the many municipal collection centres throughout the country. Specialized treatment systems<br />
have been installed for collection of refrigerant, shredding and separating component<br />
materials, treating insulating foams for CFCs, and recovering compressor oils. Recovery<br />
rates for ODS are strictly regulated and emissions from recycling factories are limited to<br />
less than five grams per hour (with actual emissions of less than one gram per hour) (Sims<br />
Group 2004). Exceeding limits trigger alarms and requires an environmental officer to visit<br />
and apply warnings or fines (Pers. Comm. Reeves & Holyoak, 2006). In contrast, only a few<br />
local governments in North America run appliance collection programs due in part to limited<br />
funding (Pers. Comm Art Eggleton 2006), with plastics and untreated ODS insulating foams<br />
typically being landfilled. In EU, one recycler uses treated ODS foams as oil and chemical<br />
binders called ÖKO-Pur (SEG 2007), although much still goes to landfill after treatment<br />
(Pers. Comm Holyoak, Reeves, and Dunham 2006). In the EU, mercury switches are<br />
collected by hand prior to recycling to prevent contamination but in North America, they<br />
are often shredded with the refrigerator causing widespread contamination of a highly toxic<br />
compound.<br />
In the EU, the ban on hazardous substances (RoHS) and the internalization of waste<br />
management costs has resulted in ecodesign. WEEE requires that new electrical and<br />
electronic equipment contain no hazardous materials (Macauley, Palmer and Shih, 200 ),<br />
requiring hydroflourocarbon (HFC) replacement by hydrocarbons as a refrigerant. Electrolux,<br />
the world’s largest appliance manufacturer, has actively reduced the toxic impacts of their<br />
refrigerators through DfE. In Europe, R1 a (an HFC with a high global warming potential<br />
[GWP] of 1, 00) has been successfully switched to cyclopentane as an auxiliary blowing<br />
agent and isobutane has replaced R1 a as the refrigerant (Wilt 1997). Conversely, in North<br />
America the municipality or consumer, and not the producer, pays for disposal, recycling and<br />
decommissioning. As a result, end-of-life costs remain externalities, providing no incentive<br />
to prevent pollution by switching to hydrocarbons or require environmental waste<br />
management.<br />
Montreal Protocol 20th Anniversary <strong>Awards</strong> 69
In North America, most ODS, oils and other toxic compounds in refrigerators are released.<br />
Automotive shredders separate component parts — potentially releasing compressor oils<br />
(containing residual ODS) and ODS within insulating foams ( 5% ODS immediately<br />
released, with remainder off-gassing over time in landfill). Best available technology is not<br />
required and rarely used, but some recycling facilities in the U.S. recover ODS foam<br />
manually, which results in only minimal loss during rip-down (Dunham 2006). Seventy-five<br />
percent of ODS is contained within the foam, which is typically landfilled untreated, resulting<br />
in its release with only 25% of ODS refrigerant recovered. However, this refrigerant isn’t<br />
always recovered: approximately 10% of the time, the consumer avoids the end-of-life<br />
decommissioning costs, which amount to $ 5-$155, by releasing it. Thus, 75% to 100% of<br />
the ODS is typically released in North America. Enforcement of ODS regulations are rarely<br />
imposed and those in contravention are rarely disciplined (Friends of the Earth 2001).<br />
Finally, reuse of refrigerators is favoured in the EU more than North America as embodied<br />
energy and recycling costs are considered (Sachs, 2006). Many EU recyclers partner with<br />
social and community organizations to refurbish older low-cost appliances for lower income<br />
families (Sims Recycling Solutions 200 ). Conversely, in North America, a few utility driven<br />
recycling and collection programs focus on removing older appliances, which require twice<br />
the energy of an equivalent newer appliance. Incentive is given to the resident, either as<br />
cash or a rebate on their utility bill. Although this reduces consumption of electricity for the<br />
refrigerator, it increases consumption of new refrigerators.<br />
CONCLUSION<br />
Wastage has risen over the past few decades due, in part, to ineffective policies that have<br />
failed to account for lifecycle environmental impacts of consumer products. Although EPR<br />
and product stewardship policies both share a similar foundation in extending responsibilities<br />
for waste management but differ radically in their effectiveness. The blurring of the lines<br />
between each approach has confused policy makers -- this confusion has to be removed in<br />
order to arrive at truly progressive polices that prevent rising levels of waste and pollution.<br />
To achieve high recycling rates, reduce ODS and other toxic emissions, encourage<br />
environmental design and provide adequate funding — EPR is clearly superior. EPR<br />
provides best available technologies for ODS recovery (in both the cooling circuit and<br />
insulating foam), treatment of toxic and hazardous substances (mercury switches) and has<br />
markets for recovered materials such as steel, aluminium, copper, plastic, glass and emerging<br />
ones for insulating foams. Mandatory EPR programs that target specific recovery and<br />
recycling rates are effective in reducing waste and driving DfE changes for consumer<br />
products, such as switching from HFCs to hydrocarbons as refrigerant. In contrast, product<br />
stewardship externalizes end-of-life costs and provides no incentive to prevent the generation<br />
of waste during the design stage and no regulation to reduce emissions or increase recycling<br />
rates. EPR has rarely been applied in North America, despite the lacklustre performance of<br />
product stewardship at reducing waste and preventing pollution, which has the municipality<br />
or consumer taking back the products and paying end-of-life costs. However, British<br />
Columbia’s full product stewardship program, provides a North American EPR model in<br />
which industry must take physical and financial responsibility for their products.<br />
Montreal Protocol 20th Anniversary <strong>Awards</strong> 70
REFERENCES<br />
Business and Industry Advisory Committee (BIAC) (1998): BIAC statement to the OECD EPR Workshop on<br />
extended and shared responsibility for products: Washington, D.C., December 1- 1998, 1-5<br />
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Sachs, N. (2006): Planning the funeral at the birth: extended producer responsibility in the European union and<br />
the Unites States, Harvard Environmental Law Review. Vol. 0, pp. 51-98.<br />
Montreal Protocol 20th Anniversary <strong>Awards</strong> 71
Savage, M. et al. (2006): Implementation of waste electric and electronic equipment directive in EU 25. Institute<br />
for Positive Technologies Studies. European Commission (Directorate-General) Joint Research Centre.<br />
Schwartz, J., & Gattuso, D. (2002): Extended producer responsibility: re-examining its role in Enviornmental<br />
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Montreal Protocol 20th Anniversary <strong>Awards</strong> 72
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Montreal Protocol 20th Anniversary <strong>Awards</strong> 7
The importance of the Montreal Protocol<br />
in protecting climate<br />
Guus J. M. Velders* † , Stephen O. Andersen ‡ , John S. Daniel § , David W. Fahey § , and Mack McFarland <br />
*Netherlands Environmental Assessment Agency, P.O. Box 303, 3720 AH Bilthoven, The Netherlands; ‡ U.S. Environmental Protection<br />
Agency, Code 6202J, 1200 Pennsylvania Avenue NW, Washington, DC 20460; § Earth System Research Laboratory, National Oceanic<br />
and Atmospheric Administration, Boulder, CO 80305; and DuPont Fluoroproducts, Wilmington, DE 19805<br />
Edited by William C. Clark, Harvard University, Cambridge, MA, and approved January 11, 2007 (received for review November 21, 2006)<br />
The 1987 Montreal Protocol on Substances that Deplete the <strong>Ozone</strong><br />
Layer is a landmark agreement that has successfully reduced the<br />
global production, consumption, and emissions of ozone-depleting<br />
substances (ODSs). ODSs are also greenhouse gases that contribute<br />
to the radiative forcing of climate change. Using historical ODSs<br />
emissions and scenarios of potential emissions, we show that the<br />
ODS contribution to radiative forcing most likely would have been<br />
much larger if the ODS link to stratospheric ozone depletion had<br />
not been recognized in 1974 and followed by a series of regulations.<br />
The climate protection already achieved by the Montreal<br />
Protocol alone is far larger than the reduction target of the first<br />
commitment period of the Kyoto Protocol. Additional climate<br />
benefits that are significant compared with the Kyoto Protocol<br />
reduction target could be achieved by actions under the Montreal<br />
Protocol, by managing the emissions of substitute fluorocarbon<br />
gases and/or implementing alternative gases with lower global<br />
warming potentials.<br />
Kyoto Protocol ozone layer radiative forcing<br />
Chlorofluorocarbons (CFCs) and other ozone-depleting substances<br />
(ODSs) are now globally recognized as the main<br />
cause of the observed depletion of the ozone layer (1–5). Molina<br />
and Rowland (6) first recognized the potential for CFCs to<br />
deplete stratospheric ozone in 1974, thereby providing an ‘‘early<br />
warning.’’ This scientific warning led to ODS emission reductions<br />
by citizen action and national regulations (7, 8). A decade<br />
later, the discovery of the ozone hole over Antarctica (9) and the<br />
subsequent attribution to ODSs (10, 11) further heightened<br />
concern. The 1987 Montreal Protocol on Substances that Deplete<br />
the <strong>Ozone</strong> Layer formally recognized the significant threat<br />
of the ODSs to the ozone layer and provided a mechanism to<br />
reduce and phase-out the global production and consumption of<br />
ODSs. Under the Montreal Protocol and national regulations,<br />
significant decreases have occurred in the production, use, emissions,<br />
and observed atmospheric concentrations of CFC-11, CFC-<br />
113, methyl chloroform, and several other ODSs (4, 12–14) and<br />
there is emerging evidence for recovery of stratospheric ozone (4,<br />
15). In a ‘‘world avoided’’ that lacks the early warning in 1974 and<br />
the Montreal Protocol of 1987, depletion of the ozone layer likely<br />
would be much greater than observed in our world today.<br />
ODSs and their substitute fluorocarbon gases are also greenhouse<br />
gases (16–21), which contribute to the radiative forcing<br />
(RF) of climate (5). Thus, actions under the Montreal Protocol<br />
to phase out ODSs and/or increase the use of substitute gases<br />
have consequences for climate forcing. Earlier studies have<br />
recognized that continued growth in ODS emissions would lead<br />
to significant increases in direct RF or climate warming (16–19,<br />
21–24), although ozone depletion from ODS would counteract<br />
some of the forcing (25). More specifically, reductions in atmospheric<br />
ODS concentrations, achieved to protect ozone, also<br />
serve to protect climate. This dual protection of ozone and<br />
climate by Montreal Protocol provisions warrants a comprehensive<br />
assessment, especially since the 1997 Kyoto Protocol (26) of<br />
the United Nations Framework Convention on Climate Change<br />
entered into force in February 2005. The Kyoto Protocol is a<br />
global treaty to reduce the emissions of carbon dioxide, CO2, the<br />
leading greenhouse gas, and five other gases, none of which are<br />
ODSs. The absence of ODSs in the Kyoto Protocol and the<br />
absence of formal climate considerations in the Montreal Protocol<br />
serve as motivation to consider past and future scenarios<br />
of ODS emissions and their substitutes, and their relevance to<br />
anthropogenic RF.<br />
We report here how national regulations, voluntary actions,<br />
and compliance with the Montreal Protocol have protected<br />
climate in the past and can add to climate protection in the<br />
future. Our comprehensive evaluation of the ‘‘worlds avoided’’<br />
with ODS regulation considers three aspects: (i) time-dependent<br />
scenarios of annual ODS production, emissions, concentrations,<br />
and associated RF; (ii) the time dependence of CO2 emissions<br />
and associated RF; and (iii) the offsets of climate protection by<br />
ODSs caused by stratospheric ozone depletion and the use of ODS<br />
substitute gases. We show what has already been achieved for<br />
climate by the Montreal Protocol and compare it with the Kyoto<br />
Protocol target, what is likely to happen in the near future based on<br />
current ODS regulations, and finally what potentially can be<br />
achieved for climate in the future with additional ODS regulations.<br />
ODS Scenarios<br />
Three scenarios are considered in this analysis. Each scenario<br />
uses observations, calculations, and certain assumptions to formulate<br />
annual emissions between 1960 and 2020 for ODSs.<br />
These emissions are expressed in terms of mass with and without<br />
weighting by 100-yr Global Warming Potentials (GWP) (4) [see<br />
Figs. 1 and 2, Table 1, and supporting information (SI) Text].<br />
The first is the baseline scenario representing ODS emissions<br />
as they have occurred up to 2004 and as projected into the future<br />
assuming compliance with Montreal Protocol provisions.<br />
CFC-11 and CFC-12 were the most abundant CFCs in the<br />
atmosphere before 1974 and remain so today. Before 1974, the<br />
production of ODSs grew rapidly primarily as a result of use as<br />
aerosol propellants and refrigerants, and the introduction of new<br />
uses including solvents and foams (7). In response to the early<br />
warning (6) in 1974 by scientists, and encouraged by advertisements<br />
for alternative products, many consumers in North Amer-<br />
Author contributions: G.J.M.V., S.O.A., J.S.D., D.W.F., and M.M. designed research; G.J.M.V.<br />
performed research; G.J.M.V. analyzed data; and G.J.M.V., S.O.A., J.S.D., D.W.F., and M.M.<br />
wrote the paper.<br />
The authors declare no conflict of interest.<br />
This article is a PNAS direct submission.<br />
Freely available online through the PNAS open access option.<br />
Abbreviations: CFC, chlorofluorocarbons; GWP, global warming potential; HCFC, hydrochlorofluorocarbons;<br />
HFC, hydrofluorocarbons; IPCC, Intergovernmental Panel on Climate<br />
Change; MR74, Molina and Rowland; NMP87, no Montreal Protocol; ODS, ozone-depleting<br />
substance; RF, radiative forcing.<br />
† To whom correspondence should be addressed. E-mail: guus.velders@mnp.nl.<br />
This article contains supporting information online at www.pnas.org/cgi/content/full/<br />
0610328104/DC1.<br />
© 2007 by The National Academy of Sciences of the USA<br />
4814–4819 PNAS March 20, 2007 vol. 104 no. 12 www.pnas.orgcgidoi10.1073pnas.0610328104
Production (kt yr -1 )<br />
1000<br />
800<br />
600<br />
400<br />
200<br />
Production CFC-11<br />
0<br />
1960 1970 1980 1990<br />
Year<br />
2000 2010 2020<br />
ica stopped using CFC aerosol products (e.g., deodorants and<br />
hairsprays), and governments in the United States, Canada, the<br />
Netherlands, and Sweden either banned or discouraged use of<br />
ODSs in most personal care aerosol products (7). These actions<br />
reduced annual global CFC production from 910 ktyr 1 in<br />
1974 to 850 ktyr 1 by 1979. Continued growth in refrigerant<br />
uses, rapid growth in the more recently introduced applications<br />
of solvents, foam-blowing agents, and fire protection agents and<br />
continued use in aerosol products in Europe and Asia returned<br />
production to 1,170 ktyr 1 by 1987. Both the early warning and<br />
the Montreal Protocol initiated a change in fluorocarbon quantities<br />
and their use patterns toward more environmentally ac-<br />
Production (kt yr -1 )<br />
1000<br />
800<br />
600<br />
400<br />
200<br />
Production CFC-12<br />
0<br />
1960 1970 1980 1990<br />
Year<br />
2000 2010 2020<br />
Mixing ratio (ppt)<br />
1000<br />
800<br />
600<br />
400<br />
200<br />
Mixing ratio<br />
MR74<br />
NMP87<br />
Baseline<br />
CFC-12<br />
CFC-11<br />
0<br />
1960 1970 1980 1990<br />
Year<br />
2000 2010 2020<br />
Fig. 1. Scenarios for the global production of CFC-11 (Left) and CFC-12 (Center) and mixing ratios [Right; in ppt (part per trillion)] for the period 1960–2020.<br />
Scenarios include the baseline scenario and those of the worlds avoided with the early warning of Molina and Rowland (MR74) and with the adoption of the<br />
Montreal Protocol (NMP87). The shaded regions for MR74 and NMP87 reflect a range of 3–7% and 2–3%, respectively, for the assumed annual production<br />
increases in ODSs. The stripes in the shaded regions indicate the larger uncertainties past 2010. The average annual growth rate in global production between<br />
1960 and 1974 was 17% for CFC-11 and 12% for CFC-12. Current total annual emissions of CFCs are 10% of late 1980 values. The baseline scenario represents<br />
ODS emissions observed up to 2004 and as projected past 2004 assuming global compliance to the latest provisions of the Montreal Protocol. The emissions up<br />
to 2004 are derived primarily from atmospheric observations of ODS concentrations (4) and production records (13). The primary ODS compounds included in<br />
the scenarios presented here are CFCs, CCl4, CH3CCl3, HCFCs, CH3Cl, Halons, and CH3Br (see SI Text).<br />
Emissions (ktCFC-11-eq yr -1 )<br />
6000<br />
4000<br />
2000<br />
ODP-weighted emissions<br />
0<br />
1960 1970 1980 1990<br />
Year<br />
2000 2010 2020<br />
Emissions (GtCO 2-eq yr -1 )<br />
40<br />
30<br />
20<br />
10<br />
GWP-weighted emissions<br />
2.0<br />
Magnitude of<br />
Kyoto Protocol<br />
reduction target<br />
ceptable alternative compounds and technologies (27). Starting<br />
in the late 1980s, when the Montreal Protocol began to take<br />
effect, net ODS emissions (Fig. 2) decreased, largely driven by<br />
reductions in CFC-11 and CFC-12 production (4, 14, 28). With<br />
the force of an international treaty and substantial scientific<br />
evidence connecting ODSs to ozone depletion, there was a rapid<br />
development and deployment of suitable ODS substitutes and<br />
not-in-kind alternatives, which steadily achieved reductions over<br />
the last two decades in ODS production, consumption, and<br />
emissions. Due to the long atmospheric lifetimes of CFC-11 and<br />
CFC-12, their mixing ratios are decreasing slowly after the sharp<br />
decreases that have occurred in their emissions (Fig. 1).<br />
0<br />
1960 1970 1980 1990<br />
Year<br />
2000 2010 2020<br />
Radiative forcing (W m -2 )<br />
2.0<br />
1.5<br />
1.0<br />
0.5<br />
Radiative forcing<br />
MR74<br />
NMP87<br />
Baseline<br />
CO 2 SRES<br />
0.0<br />
1960 1970 1980 1990<br />
Year<br />
2000 2010 2020<br />
Fig. 2. ODP-weighted emissions (Left), GWP-weighted emissions (Center), and RF (Right) for ODS and CO2 scenarios for the period 1960–2020. Calculated<br />
GWP-weighted emissions (100-yr time horizon) and associated RF values are shown for four scenarios: baseline, MR74, NMP87, and SRES CO2. All emissions are<br />
normalized by their direct GWPs to equivalent GtCO2yr 1 (see also Fig. 1 legend). The indirect contribution to the GWP due to ozone depletion, which is thought<br />
to be 20% (see text), is not included in these figures. The shaded regions for MR74 reflect a range of 3–7% for assumed annual production increases in CFC-11<br />
and CFC-12 starting in 1975 and a 3% annual increase for other ODSs starting in 1987. The shaded regions for NMP87 reflect a range of 2–3% for assumed annual<br />
production increases in all ODSs. The stripes in the shaded regions indicate the larger uncertainties past 2010. The CO2 emissions for 1960–2003 are from global<br />
fossil fuel and cement production (45). Beyond 2003, the shaded regions for CO2 reflect the maximum (A1B) and minimum (B2) SRES scenarios (25). The CO2 RF<br />
data are based on CO2 observations and SRES scenarios (25). All RF values represent net changes from the start of the industrial era (1750) to present. Shown<br />
for reference is the magnitude of the reduction target of the first commitment period of the Kyoto Protocol, which is based on a 1990–2010 projection of global<br />
greenhouse gas emission increases and the average reduction target for participating countries (see text) (36).<br />
Velders et al. PNAS March 20, 2007 vol. 104 no. 12 4815<br />
ENVIRONMENTAL<br />
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Table 1. Direct GWP-weighted emissions and radiative forcing of ODSs and CO2<br />
The second scenario is the Molina and Rowland scenario<br />
(hereafter referred to as the MR74 scenario) representing an<br />
approximation to the world of ODS growth and atmospheric<br />
concentrations that was avoided as a result of their early warning<br />
and the subsequent consumer and government actions before the<br />
Montreal Protocol. The scenario starts in 1975 (Figs. 1 and 2) by<br />
increasing CFC-11 and CFC-12 in the baseline scenario with a<br />
3–7% range of annual growth rates. The difference above the<br />
baseline scenario becomes substantial quickly with a 7% annual<br />
growth rate causing a doubling in a decade. The 7% rate is<br />
significantly smaller than the reported growth rates for the<br />
period 1960–1974 (Fig. 1) and so could underestimate initial<br />
growth. The higher rate is in agreement with earlier scenarios<br />
(29) that used a 7% annual growth in emissions from 1980 to<br />
2030 and also closely resembles the growth rate in a previously<br />
formulated analysis using a ‘‘free market’’ scenario of ODSs (30).<br />
The third scenario is the No Montreal Protocol scenario<br />
(hereafter referred to as NMP87 scenario) representing an<br />
approximation to the world of ODS emissions and atmospheric<br />
concentrations that was avoided by the adoption of the Montreal<br />
Protocol provisions. The scenario starting in 1987 has ODS<br />
emissions increasing above the baseline values with a 2–3%<br />
range in annual growth rates. Historical studies (1, 2, 31, 32) have<br />
typically assumed that annual growth rates of up to 3% would<br />
have occurred in the absence of the Montreal Protocol (see SI<br />
Text). This value is further justified by noting that a 3% annual<br />
growth occurred in ODS use as it increased after the aerosol<br />
emission bans (1, 2) and that 3% is comparable to the historical<br />
and expected growth rates of mature markets such as refrigeration,<br />
air conditioning, foam production, and solvents (5, 33, 34);<br />
such markets typically grow at about the rate of growth in gross<br />
domestic product. Furthermore, the annual growth in 2002–2015<br />
in the demand for CFCs, HCFCs (hydrochlorofluorocarbons),<br />
and HFCs (hydrofluorocarbons) for refrigeration, air conditioning<br />
and foams is estimated to be 2.8% in the Intergovernmental<br />
Panel on Climate Change (IPCC) business-as-usual scenario (5).<br />
In addition, rapid growth in ODS use in developing countries<br />
and new markets (e.g., self-cooled beverage containers) could<br />
have increased growth above this range.<br />
The MR74 and NMP87 scenarios are presented as simple<br />
estimations of the worlds avoided by events and regulation to<br />
examine the basic consequences for climate protection. To help<br />
indicate that the uncertainty in these scenarios increases with<br />
time after the initial year due to unknowable factors, the scenario<br />
shadings in Figs. 1 and 2 are changed after 2010. In using these<br />
scenarios, we acknowledge that others could be proposed. For<br />
example, we do not take into account the possibility that<br />
production of ODSs could have been reduced without the early<br />
warning and without the Montreal Protocol, due to precautionary<br />
climate protection. Our scenarios show what could have<br />
happened without any further national regulations, international<br />
agreements, or public actions.<br />
Radiative Forcing in ODS Scenarios<br />
The effects of ODS regulations on climate are evaluated by<br />
comparing GWP-weighted ODS emissions and RF values re-<br />
GWP-weighted emissions,<br />
GtCO2-eqyr 1 Radiative forcing (Wm 2 )<br />
Scenario 1975 1988 2010 1975 1988 2010<br />
Baseline 7.2 9.4 1.4 0.12 0.26 0.32<br />
MR74 7.6 12–18 24–76 0.12 0.30–0.34 0.8–1.6<br />
NMP87 7.2 9.6 15–18 0.12 0.26 0.60–0.65<br />
CO2 17 22 29–35 0.94 1.25 1.8<br />
sulting from these emissions (Fig. 2 and Table 1) with the<br />
corresponding values for anthropogenic CO2 emissions as derived<br />
from observations and the IPCC Special Report on Emissions<br />
Scenarios (25, 35). GWP weighting is used routinely to<br />
evaluate the relative climate impact of emissions of various gases<br />
(by mass) and is the basis for emission targets under the Kyoto<br />
Protocol (36). The GWPs of the principal ODSs range between<br />
5 (methyl bromide) and 11,000 (CFC-12), much larger than that<br />
of CO2 (CO2 weighting is unity). The relative importance of the<br />
accumulation of greenhouse gases for climate change is evaluated<br />
by using the metric of RF, defined as the difference from<br />
the start of the industrial era (1750) (25).<br />
Additional factors to be considered in scenario comparisons of<br />
emissions or RF are the offsets related to stratospheric ozone<br />
depletion from ODSs and the use and emissions of fluorocarbon<br />
substitute gases as discussed below. An important assumption in<br />
these comparisons is that, except for use of non-ODS fluorocarbon<br />
substitute gases, the ODS reductions did not lead to<br />
increases in other greenhouse gas emissions. For example,<br />
because energy efficiency regulations have not been related to<br />
regulatory or voluntary actions to reduce use of ODSs, it is<br />
assumed that impacts on CO2 emissions due to changes in the<br />
efficiency of energy intensive products using ODSs would have<br />
been minimal.<br />
The GWP-weighted emissions comparisons in Fig. 2 and Table<br />
1 allow a direct comparison of the climate influences of ODSs<br />
and CO2. In the baseline scenario, the annual contribution of<br />
ODSs to GWP-weighted emissions peaked in 1988 at a value<br />
slightly less than half that of global CO2 emissions. After 1988,<br />
the contribution of ODSs falls sharply in contrast to increasing<br />
CO2 emissions. By 2010, ODS emissions will have declined to<br />
4–5% of Special Report on Emissions Scenarios (SRES) CO2<br />
emissions, which are projected to increase to 29–35 GtCO2eqyr<br />
1 . In contrast, without the early warning of the effects of<br />
CFCs (MR74 scenario), estimated ODS emissions would have<br />
reached 24–76 GtCO2-eqyr 1 in 2010. Thus, in the current<br />
decade, in a world without ODS restrictions, annual ODS<br />
emissions using only the GWP metric could be as important for<br />
climate forcing as those of CO2. In the NMP87 scenario in which<br />
ODS increases occur later than in the MR74 scenario, the ODS<br />
emissions reach 15–18 GtCO2-eqyr 1 in 2010, about half of the<br />
CO2 annual emissions. Furthermore, the contribution of ODS<br />
emissions (in GtCO2-eqyr 1 ) in NMP87 is 11–13 times larger in<br />
2010 than in the baseline scenario.<br />
A RF time series depends on atmospheric concentrations and,<br />
hence, is not a simple scaling of the associated GWP-weighted<br />
emissions time series. As shown in Fig. 2, the RF from ODSs<br />
peaks in the baseline scenario around 2003 at a value of 0.32<br />
Wm 2 and decreases slowly by a total of 0.005 Wm 2 by 2010.<br />
Over the same period, RF values for CO2 are expected to<br />
increase by 0.2 Wm 2 to 1.8 Wm 2 . In the world avoided of<br />
MR74, the ODS RF ranges from 45% to 90% of the CO2 value<br />
in 2010 (Table 1). In the NMP87 scenario, the ODS RF is in a<br />
lower, narrower range near 35% of the CO2 value in 2010. The<br />
emissions avoided under the protocol (NMP87) will have re-<br />
4816 www.pnas.orgcgidoi10.1073pnas.0610328104 Velders et al.
Table 2. Scenario differences and offsets for 2010<br />
Parameter<br />
GWP-weighted emissions,<br />
GtCO2-eqyr 1<br />
Radiative<br />
forcing, Wm 2<br />
NMP87 minus baseline 13.3–16.7 0.28–0.33<br />
<strong>Ozone</strong> depletion offset 2.7–3.3* 0.06<br />
HFC offset 0.9 0.02<br />
Net value † 9.7–12.5 0.20–0.25<br />
*Estimated as 20% of ODS GWP-weighted emissions, based on RF value (see<br />
text).<br />
† Reductions attributable to the Montreal Protocol provisions after accounting<br />
for offsets due to ozone depletion and HFC increases.<br />
duced the RF of climate by 0.3 Wm 2 in 2010, which is 17%<br />
of the contribution of anthropogenic CO2 increases in 2010.<br />
The MR74 projection that ODS RF could almost have matched<br />
that of anthropogenic CO2 in 2010 is a striking result considering<br />
that the RF of anthropogenic ODSs was essentially zero in 1960.<br />
However, because the length of time associated with this projection<br />
(1974–2010) increases the level of uncertainty, the results must be<br />
interpreted with care. A more certain result is that, using the<br />
NMP87 scenario, the Montreal Protocol will have reduced RF from<br />
ODSs by 50% in 2010 (Table 2).<br />
The RF scenarios in Fig. 2 illustrate the extent to which ODSs<br />
reductions, in effect, have delayed the growth of overall anthropogenic<br />
RF. A delay is a form of climate protection, because more<br />
time is required to reach any given anthropogenic RF increase and<br />
its associated climate change risk (37). The delay is expressed here<br />
as the years required for the CO2 RF to increase by the same<br />
amount as the ODS RF would have by 2010 in MR74 or NMP87.<br />
When using an averaged CO2 RF growth rate, the MR74 delay is<br />
calculated to be 13–18 or 31–45 yr, corresponding to the 3% and 7%<br />
annual growth rates, respectively. Similarly, the delay attributable to<br />
the Montreal Protocol (NMP87) is calculated to be 7–12 yr.<br />
<strong>Ozone</strong> Response<br />
Increasing ODSs in the atmosphere creates, in addition to the direct<br />
positive RF response, an indirect negative (cooling) RF response<br />
Emissions (GtCO 2-eq yr -1 )<br />
4<br />
3<br />
2<br />
1<br />
2.0<br />
Emissions<br />
Magnitude of<br />
Kyoto Protocol<br />
reduction target<br />
1.2<br />
Magnitude of<br />
possible additional<br />
emission reductions<br />
by 2015<br />
0<br />
1990 2000 2010 2020<br />
Year<br />
2030 2040 2050<br />
due to the associated depletion of stratospheric ozone (38, 39). In<br />
the IPCC evaluation (25) the ozone offset of 0.15 0.1 Wm 2<br />
represents a large fraction of the ODS RF. However, it is currently<br />
estimated (37) that the observed changes in stratospheric ozone in<br />
2000 contributed a globally averaged RF of 0.06 Wm 2 , which is<br />
20% of the direct positive RF. Although the true magnitude<br />
might be larger, the updated value is likely more accurate than<br />
larger previous values (25). In the worlds avoided based on the<br />
MR74 and NMP87 scenarios, stratospheric ozone depletion and its<br />
associated negative RF now would be substantially larger than<br />
current levels. However, the response of ozone depletion to increasing<br />
ODS concentrations would plausibly be less than currently<br />
observed (see SI Text). As a result, a 20% offset is a reasonable first<br />
approximation to the ODS RF and GWP-weighted emissions<br />
presented here (see Table 2).<br />
The emissions of ODS substitute gases that occur in response to<br />
Montreal Protocol provisions generally have the potential to reduce<br />
or offset the climate protection of those provisions. It is important<br />
to note that 80% of ODSs that would be used today without the<br />
Montreal Protocol have been successfully phased out without the<br />
use of other fluorocarbons. Instead, this ODS use was eliminated<br />
with a combination of ‘‘not-in-kind’’ chemical substitutes, product<br />
alternatives, manufacturing-process changes, conservation, and doing<br />
without (7, 27). HCFCs and HFCs are among the fluorocarbons<br />
used as substitutes (17, 23, 27) (Fig. 3), because HCFCs have lower<br />
ozone depletion potentials than the CFCs and HFCs do not destroy<br />
ozone. Because HCFC emissions and their RF values are included<br />
in the baseline scenarios, increases in HCFC use associated with<br />
Montreal Protocol provisions do not represent offsets to the<br />
reductions in CO2-eq emissions and RFs derived here for the MR74<br />
and NMP87 scenarios.<br />
HFCs are not controlled by the Montreal Protocol because<br />
they do not destroy ozone but are included in the Kyoto Protocol<br />
because they are greenhouse gases. The Montreal Protocol has<br />
resulted in increased uses and emissions of HFC-134a, as the<br />
primary alternative to CFC-12 refrigerant, and emissions of<br />
HFC-23, which is an unwanted byproduct of HCFC-22 production.<br />
Because HFC-134a has a lower GWP than CFC-12, the<br />
direct substitution on a mass basis increases climate protection<br />
relative to the NMP87 scenario. Use and emissions of other<br />
Radiative forcing (W m -2 )<br />
0.4<br />
0.3<br />
0.2<br />
0.1<br />
Radiative forcing<br />
All ODSs<br />
HCFCs only<br />
HFCs IPCC<br />
HFCs SRES<br />
0.0<br />
1990 2000 2010 2020<br />
Year<br />
2030 2040 2050<br />
Fig. 3. GWP-weighted emissions (Left) and RF (Right) scenarios for all ODSs, HCFCs, and HFCs for the period 1990–2050. Calculated GWP-weighted emissions<br />
(100-yr time horizon) and associated RF values for all ODSs from Fig. 2 are shown on an expanded scale. Additional curves show the contribution of the HCFCs<br />
and the growth of HFCs according to an IPCC business-as-usual scenario (5) and as in the older and more uncertain SRES A1B and B1 scenarios (25). All emissions<br />
are normalized by their GWPs to equivalent GtCO2yr 1 . Under the controls of the current Montreal Protocol, developed countries will step-down HCFC use by<br />
99.5% by 2020, with phase-out in 2030, while developing countries are allowed to increase HCFC use until 2016 and then continue at that level until phase-out<br />
in 2040 (8). Shown for reference are the magnitude of the reduction target of the first commitment period of the Kyoto Protocol (see Fig. 2 legend) and the<br />
magnitude of possible additional emission reductions in ODSs and HFCs achievable by 2015. All RF values represent net changes from the start of the industrial<br />
era (1750) to present. The HFC RF contribution is 0.02 Wm 2 in 2010, which is small compared with the other scenario differences discussed here. The HFC<br />
data before 2000 are based on observed concentrations (5).<br />
Velders et al. PNAS March 20, 2007 vol. 104 no. 12 4817<br />
ENVIRONMENTAL<br />
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HFCs as substitutes for HCFCs have been increasing since 1990.<br />
The IPCC business-as-usual (5) estimate of HFC emissions in<br />
2010 is 0.9 GtCO2-eqyr 1 (Fig. 3). Comprehensive estimates<br />
of ODS emissions or RF reductions from worlds avoided must<br />
take HFC emissions into account as an offsetting factor (Table<br />
2). For the NMP87 scenario, the emissions and RF offsets are<br />
both 10%. When combined with the offsets from ozone<br />
depletion, these offsets amount to 30% of the direct positive<br />
forcing of ODSs in 2010.<br />
The Kyoto Protocol<br />
The Kyoto Protocol (26) aims, in its first commitment period, to<br />
reduce CO2-equivalent emissions in 40 countries (Annex-1 parties)<br />
by 2008–2012. The agreed upon reductions will occur in<br />
emissions of six key greenhouse gases (CO2, CH4, N2O, HFCs,<br />
PFCs, and SF6) referenced to a 1990 baseline. It is widely<br />
acknowledged that the first commitment period of the Kyoto<br />
Protocol is only a first step to obtain the objective of the United<br />
Nations Framework Convention on Climate Change; namely,<br />
‘‘stabilization of greenhouse gases concentrations in the atmosphere<br />
at a level that would prevent dangerous anthropogenic<br />
interference with the climate system.’’ The adopted CO2equivalent<br />
emission reduction target is 5.8% (range of 10%<br />
to 8% for the individual countries), corresponding to 0.97<br />
GtCO2-eqyr 1 by 2008–2012 (36). Because most countries<br />
would normally have had increasing greenhouse gas emissions<br />
after 1990, it can be argued that the emission reduction necessary<br />
to achieve the agreed Kyoto target must be calculated from a<br />
business-as-usual scenario between the 1990 baseline and 2008–<br />
2012. Projections (36) have total greenhouse gas emissions of<br />
Annex-1 parties increasing by 6% (1.06 GtCO2-eqyr 1 ) above<br />
the 1990 value by 2010. The 6% value reflects large increases in<br />
developed countries (e.g., United States of America, 32%; Spain,<br />
47%) offsetting large decreases for countries with economies in<br />
transition (e.g., Russia, 19%; Estonia, 57%). Therefore, an<br />
arguably more realistic estimate of the greenhouse gas emission<br />
reduction that will have occurred by meeting the first Kyoto<br />
Protocol target is found by combining the 5.8% decrease and 6%<br />
increase for a total of 2 GtCO2-eqyr 1 . And finally, we note<br />
that those countries without emission targets in the Kyoto<br />
Protocol (non-Annex-1) accounted for 41% of reported (36)<br />
global greenhouse gas emissions in 1994.<br />
Over the Kyoto Protocol period (1990–2010), the reduction in<br />
GWP-weighted ODS emissions expected with compliance to the<br />
provisions of the Montreal Protocol is 8GtCO2-eqyr 1 (baseline<br />
scenario for 1990 minus 2010). This reduction, most of which has<br />
already occurred, is substantially greater than the first Kyoto<br />
reduction target even after accounting for an offset of 30% due<br />
to ozone depletion and HFC emissions (Table 2). The ODS<br />
emissions remaining in 2010 are expected to be equivalent to 1.4<br />
GtCO2-eqyr 1 and to decrease steadily in the following decades<br />
under existing Montreal Protocol provisions (Fig. 3).<br />
In assessing the avoided worlds of the MR74 and NMP87<br />
scenarios in the 1990s and beyond, it must be realized that<br />
without the Montreal Protocol most ODSs would have almost<br />
certainly been included in the Kyoto Protocol because of their<br />
large GWPs, affecting the provisions and timing of the Kyoto<br />
Protocol. Waiting to regulate ODSs with the Kyoto Protocol<br />
would likely have resulted in a delay in achieving what the<br />
Montreal Protocol is expected to achieve by 2010. A delay could<br />
be expected because Kyoto Protocol regulations likely would<br />
have entered into force when ODS uses and emissions were<br />
larger than in the early 1990s, making reductions economically<br />
and practically more difficult.<br />
The Future<br />
New scenarios for future ODS regulation in addition to the<br />
baseline scenario have been formulated because parties to the<br />
Montreal Protocol have acknowledged interest in increasing its<br />
dual benefit to ozone and climate protection. The parties first<br />
considered this in 1999 when the Kyoto Protocol had been signed<br />
but had not yet entered into force (40). During diplomatic<br />
meetings and in decisions, parties to the Montreal Protocol have<br />
considered options to further mitigate ozone depletion while<br />
incidentally reducing climate forcing. Some important examples<br />
are the following: (i) further acceleration of the HCFC phase-out<br />
(8, 41) and use of low-GWP substitutes; (ii) collection and<br />
destruction of ODSs contained in ‘‘banks’’ of old refrigeration,<br />
air conditioning equipment, and thermal insulating foam products<br />
(8, 42, 43); and (iii) formulation of the technical and<br />
economical feasibility of further reducing overall ODS emissions<br />
(5). Reductions in the emissions of compounds with already<br />
declining emissions or expected phase-outs in the coming decades,<br />
e.g., CFCs and HCFCs, will generally be less effective than<br />
those for compounds with increasing concentrations or growing<br />
emissions (see SI Text).<br />
An acceleration of the phase-out of HCFCs might increase the<br />
use of HFCs as substitutes, which, at least partly, would offset the<br />
benefits from such an acceleration. In order for an acceleration of<br />
an HCFC phase-out to increase climate protection, lower-GWP<br />
refrigerant systems would need to be developed and widely used<br />
and/or refrigerant containment and service practices would need to<br />
be improved to reduce emissions in these systems, and the energy<br />
efficiency of the systems would need to be maintained or improved.<br />
The alternatives currently being used to replace HCFC-22 are HFC<br />
blends with higher GWPs. However, driven by regulation (44) in<br />
Europe that will phase out refrigerants with a GWP of 150 in<br />
mobile air conditioning over the period 2011–2017, companies have<br />
explored the use of CO2 and HFC-152a as a refrigerant for mobile<br />
air conditioning (5). More recently, chemical companies (see<br />
www.ineosfluor.com/ArticleText.asp?ID269, www.honeywell-<br />
.com/sites/sm/chemicals/genetron, and www.refrigerants.dupont-<br />
.com/Suva/enUS/index.html) have announced new low-GWP fluorocarbon<br />
alternatives to replace HFC-134a in mobile air<br />
conditioning. If this new technology can be leveraged to other<br />
refrigerant and foam expansion applications, then an accelerated<br />
HCFC phase-out and its associated climate benefits would be more<br />
easily achieved.<br />
Based on considering overall emissions in refrigeration and<br />
foams developed for an IPCC mitigation scenario (5), CFC and<br />
HCFC emissions could be reduced by 0.12 and 0.34 GtCO2eqyr<br />
1 , respectively, in 2015 compared with 2002, with associated<br />
additional reductions of 0.30 GtCO2-eqyr 1 in HFC-23 emissions<br />
released as a byproduct of HCFC-22 production. These possible<br />
emissions reductions would derive mainly from better containment<br />
in refrigeration and destruction of ODS banks. Detailed scientific<br />
and technical assessments could provide policymakers with information<br />
necessary to fine-tune an accelerated HCFC phase out to<br />
allow desirable uses of HCFCs, such as a feedstock for fluoropolymers<br />
and in other applications where emissions are near zero or<br />
there are overriding energy efficiency benefits. Additional HFC<br />
emission reductions (5) of 0.44 GtCO2-eqyr 1 in 2015 compared<br />
with 2002 could be achieved by a transition to alternative chemicals<br />
that are safer to both the ozone and climate. Thus, plausible<br />
scenarios exist and have been considered that could achieve reductions<br />
in CO2-eq emissions of ODSs and alternative gases by 2015<br />
(see Fig. 3) that are significant compared with the reduction target<br />
of the first commitment period of the Kyoto Protocol of 2<br />
GtCO2-eqyr 1 .<br />
We thank Daniel Albritton, Marco Gonzalez, Michael Prather, Madhava<br />
Sarma, Susan Solomon, and Donald Wuebbles for comments and<br />
suggestions on the manuscript. The views presented here are the views<br />
of the authors and do not necessarily represent the views of the<br />
organizations where they are employed.<br />
4818 www.pnas.orgcgidoi10.1073pnas.0610328104 Velders et al.
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22. den Elzen MGJ, Swart RJ, Rotmans J (1992) Sci Total Environ 113:229–250.<br />
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emission profiles for the foam and refrigeration sectors until 2015. Part 1:<br />
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Scenarios (Cambridge Univ Press, Cambridge, UK).<br />
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gas emissions data for 1990–2003 submitted to the United Nations Framework<br />
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39. Ramaswamy V, Schwarzkopf MD, Shine KP (1992) Nature 355:810–812.<br />
40. United Nations Environment Programme (1999) Technology and Economic<br />
Assessment Panel Report of the HFC, PFC Task Force: The Implications to the<br />
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41. United Nations Environment Programme (2003) Technology and Economic<br />
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Nations Environment Programme, Nairobi, Kenya).<br />
42. United Nations Environment Programme (2002) Technology and Economic<br />
Assessment Panel Report of the Task Force on Destruction Technologies (<strong>Ozone</strong><br />
<strong>Secretariat</strong>, United Nations Environment Programme, Nairobi, Kenya).<br />
43. United Nations Environment Programme (2002) Technology and Economic<br />
Assessment Panel Report of the Task Force on Collection, Recovery and Storage<br />
(<strong>Ozone</strong> <strong>Secretariat</strong>, United Nations Environment Programme, Nairobi, Kenya).<br />
44. European Commission (2006) Directive 2006/40/EC of the European parliament<br />
and of the council of 17 May 2006 relating to emissions from air-conditioning<br />
systems in motor vehicles and amending council directive 70/156/EEC.<br />
45. Marland G, Boden TA, Andres RJ (2006) Global, Regional, and National CO2<br />
Emissions (Carbon Dioxide Information Analysis Center, Oak Ridge National<br />
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emcont.htm.<br />
Velders et al. PNAS March 20, 2007 vol. 104 no. 12 4819<br />
ENVIRONMENTAL<br />
SCIENCES
Winners:<br />
Best Newspaper or Magazine Article<br />
‘‘Pour preserver la couche d’ozone et attenuer les changements climatiques nocifs<br />
Planetaires’’ by Hoedanou Kokouvi Yao, Journalist for Togo Presse, published 19 January<br />
2007.<br />
‘‘DENR issues more rigorous penalty against ODS trade’’ by Melody M. Aguiba, Philippines,<br />
published 1 August 2007 at the Manila Bulletin Nation’s Leading Newspaper.<br />
Montreal Protocol 20th Anniversary <strong>Awards</strong> 7
Texte du 19 janvier 2007 Poste Icon 1<br />
Pour préserver la couche d’ozone et atténuer les<br />
changements climatiques nocifs planétaires<br />
Des mesures concomitantes s’imposent à tous les<br />
pays du monde<br />
L’ozone est une couche stratosphérique qui<br />
protège les êtres vivants, des rayonnements<br />
ultraviolets nocifs du soleil. Sa protection est de<br />
facto, synonyme de la protection de la vie sur<br />
terre. Soucieux des dangers de la destruction de<br />
cette couche, déjà entamée par les actions<br />
humaines, la communauté internationale a signé, le<br />
22 mars 1985, la Convention de Vienne pour la<br />
protection de cette couche, suivie le 16<br />
septembre 1987, de la signature du Protocole de<br />
Montréal, qui vise une élimination progressive de<br />
Substances Appauvrissement l’<strong>Ozone</strong> (SAO) d’ici<br />
l’an 2010.<br />
Malheureusement, des preuves scientifiques ont<br />
montré que les mesures prises pour ralentir la<br />
déperdition de l’ozone ont une incidence sur le<br />
réchauffement de la planète. D’où la nécessité<br />
d’adopter des mesures concomitantes pour freiner<br />
les deux phénomènes dans la fabrication des gaz.<br />
Dans cette lutte environnementale, où en est-on<br />
concrètement aux plans international et national ?<br />
Le pari, peut-il être gagné ?<br />
Les chlorofluorocarbures (CFC), les<br />
hydrofluorocarbures (HFC), les hydrocarbures<br />
perfluorés, etc. sont des gaz stables, non toxiques,<br />
ni corrosifs, inflammables et à usages multiples,<br />
indispensables surtout dans la réfrigération, la<br />
climatisation, les aérosols, les solvants, etc.<br />
Cependant, à cause de leur stabilité, ils restent<br />
très longtemps dans l’atmosphère et se propagent<br />
vers la stratosphère, se décomposent pour détruire<br />
les molécules d’ozone qui protègent la planète Terre<br />
et tout ce qui y vit. Ce qui a conduit les<br />
gouvernements à réglementer la production et<br />
l’utilisation de ces produits en vertu du Protocole<br />
de Montréal adopté en 1987. Des amendements dudit<br />
protocole ont permis de les remplacer par de nouvelles<br />
substances en vue d’entreprendre l’élimination<br />
progressive des Substances Appauvrissant l’<strong>Ozone</strong><br />
(SAO). Alors que l’on met au point diverses<br />
techniques pour remplacer ces SAO, il est apparu<br />
que certaines mesures visant à ralentir la déperdition
Texte du 19 janvier 2007 Poste Icon 2<br />
de l’ozone, en particulier le recours aux HFC et<br />
au PFC, ont une incidence sur le réchauffement et<br />
le refroidissement de la planète.<br />
Le phénomène de changements climatiques<br />
Les changements climatiques sont des variations<br />
significatives de l’état moyen du climat ou de sa<br />
variabilité, persistant pendant de longues périodes.<br />
Ils peuvent être attribués à une activité humaine<br />
altérant la composition de l’atmosphère mondiale.<br />
Il a été identifié que les Chorofluorocarbures<br />
(CFC) et les autres Substances Appauvrissant la<br />
couche d’<strong>Ozone</strong> ont un impact négatif sur le<br />
système climatique. Certaines mesures prises pour<br />
ralentir l’appauvrissement de la couche d’ozone<br />
contribuent à augmenter le réchauffement et le<br />
refroidissement planétaire.<br />
Ce réchauffement provoqué par les SAO et le<br />
refroidissement associés à la perte d’ozone surtout<br />
dans les pôles sont deux mécanismes distincts qui<br />
ne se compensent simplement l’un l’autre. Par<br />
exemple, dans les zones tropicales de la Bolivie, les<br />
glaciers-réservoirs d’eau ont commencé à se fondre,<br />
bouleversant la vie des êtres vivants. L’action<br />
engagée au titre du protocole de Montréal pour<br />
l’élimination progressive des SAO doit se<br />
poursuivre jusqu’à enrayer totalement ces<br />
antagonismes.<br />
Solutions envisagées<br />
Il s’avère donc nécessaire de procéder à une<br />
évaluation scientifique des relations entre la<br />
couche d’<strong>Ozone</strong> et les changements climatiques et<br />
de fournir des informations pratiques devant aider<br />
à adopter des solutions de protection de la couche<br />
d’<strong>Ozone</strong> sans altérer le climat.<br />
A cet effet, une conférence internationale sur les<br />
changements climatiques s’était tenue, du 6 au 17<br />
novembre 2006, à Nairobi au Kenya. Le mobile de<br />
cette rencontre était de trouver des mesures ou<br />
des mécanismes d’adaptation au changement<br />
climatique et de la protection de la couche d’<strong>Ozone</strong>.<br />
Pour le président suisse Moritz Leuenberger, en<br />
guise de palliatif, il y a lieu de créer une taxecarbone<br />
fondée sur les émissions de CO2 des<br />
individus et entreprises. « Je propose que nous<br />
considérions une taxe internationale sur le CO2<br />
basée sur le principe pollueur-payeur et dont les
Texte du 19 janvier 2007 Poste Icon 3<br />
revenus seront affectés à des mesures d’adaptation<br />
au réchauffement », a-t-il déclaré, oubliant de dire<br />
que l’appauvrissement de la couche d’ozone<br />
provoque un forçage du changement du climat. Alors<br />
que des scientifiques de la NASA et de<br />
l’Administration des études Océaniques et<br />
Atmosphériques (NOAA) ont constaté que le trou<br />
de la couche d’ozone dans la région polaire de<br />
l’hémisphère sud a établi, en 2006, un nouveau<br />
record de superficie et de profondeur.<br />
Pour l’ex-secrétaire général de l’ONU, M. Kofi<br />
Annan, l’engagement des Etats à prendre en compte<br />
le facteur climatique dans leur politique de<br />
développement doit être rigoureux. Les effets du<br />
changement climatique et de la destruction de la<br />
couche d’ozone étant fortement imbriqués, à quoi<br />
servira cet engagement si les substances (produits)<br />
de lutte n’arrivent pas à contenir les deux<br />
mécanismes ?<br />
Le défi au plan international<br />
Au niveau international, des rencontres se multiplient<br />
pour trouver des mécanismes concomitants<br />
d’adaptation aux phénomènes de la protection<br />
d’<strong>Ozone</strong> et les changements climatiques. La plus<br />
récente est la 18 e réunion des parties au Protocole<br />
de Montréal, tenue du 30 octobre au 3 novembre<br />
2006 à New Delhi en Inde. Au cours de ces assises,<br />
les débats avaient porté sur les mécanismes<br />
d’élimination des SAO en stock, au regard des<br />
dispositions du Protocole de Montréal. Les<br />
mécanismes de financement dudit protocole et les<br />
défis auxquels doivent faire face les pays en<br />
développement avaient été aussi évoqués.<br />
Par ailleurs, la réunion s’est penchée sur la<br />
synergie entre le phénomène des changements<br />
climatiques et la destruction de la couche d’ozone.<br />
Cet élan offre une gamme de projets dont<br />
l’exécution permettra de diminuer les effets de<br />
réchauffement planétaire des CFC et de leurs<br />
produits de remplacement. A cet effet, la<br />
communication annuelle des données sur les SAO<br />
s’avère indispensable pour permettre d’apprécier<br />
l’évolution de leur consommation de par le monde,<br />
et d’être fixé sur la quantité mondiale restant à<br />
éliminer.<br />
Le Protocole de Montréal est un défi mondial qui<br />
ne doit pas échouer. Tous les pays du monde<br />
doivent le ratifier et respecter ses clauses, car la
Texte du 19 janvier 2007 Poste Icon 4<br />
protection de la couche d’ozone et le changement<br />
climatique ne doivent pas être une question de<br />
frontières.<br />
La politique nationale<br />
Le Togo a ratifié la Convention de Vienne et le<br />
Protocole de Montréal en 1991. Traduisant sa<br />
volonté de se conformer à ces dispositions, le<br />
gouvernement a pris des mesures pour réglementer<br />
le processus d’élimination des substances altérant<br />
la couche d’ozone et les équipements les contenant.<br />
Des arrêtés ministériels, interministériels, ainsi que le<br />
Règlement Communautaire de l’UEMOA ont été<br />
signés et adoptés, pour harmoniser et réglementer<br />
l’importation, la réexportation, la commercialisation<br />
de ces SAO. Par exemple, l’article premier du<br />
chapitre 1 de l’arrêté interministériel N° 3<br />
MERF/MCITDZF/MEFP du 20 mai 2003 stipule :<br />
« Toute opération d’importation et de réexportation<br />
des substances altérant le couche d’ozone est<br />
soumise à la détention d’un agrément et à l’obtention<br />
d’une autorisation préalable et d’une licence<br />
d’importation ». Par ailleurs, des campagnes de<br />
sensibilisation et d’information du grand public et<br />
des opérateurs économiques ont été organisées,<br />
ainsi que des ateliers de formation des acteurs du<br />
secteur du froid et des agents des douanes.<br />
Malgré ces mesures, des gaz frelatés continuent<br />
de circuler librement sur le marché togolais, et<br />
certains ont été d’ailleurs saisis par l’équipe de<br />
contrôle du Bureau National <strong>Ozone</strong> (BNO-Togo) et<br />
présentés lors d’une conférence de presse, le 27<br />
décembre dernier à la Chambre du Commerce et<br />
d’Industrie du Togo à Lomé.<br />
Au point de presse, le directeur de<br />
l’Environnement, M. Bougonou Djéri-Alassani a<br />
informé les journalistes, le public et les frigoristes<br />
qu’un appareil de test est disponible à la douane,<br />
au niveau du syndicat des frigoristes et au Centre<br />
National de Perfectionnement Professionnel. Suivant<br />
toujours ses explications, les gaz autorisés sont<br />
R134 a, R404a et R600a.<br />
Pour le coordonnateur du BNO-Togo, M.<br />
Domèpha Kossi Amona, il est indispensable de<br />
renforcer la campagne nationale du public, notamment<br />
le milieu scolaire, et de doter suffisamment les<br />
douaniers des moyens efficaces de contrôle pour
Texte du 19 janvier 2007 Poste Icon 5<br />
qu’ils soient en permanence sur le terrain.<br />
L’exécution des derniers projets du Plan de Gestion<br />
des Fluides Frigorigènes et la mise en œuvre du<br />
Plan d’élimination des SAO ne sont pas du reste.<br />
C’est pourquoi, dans sa communication lors de la<br />
18 e réunion des Parties à New Delhi, le ministre<br />
Okoulou-Kantchati de l’Environnement et des<br />
Ressources forestières a attiré l’attention des<br />
responsables du Secrétariat du Fonds Multilatéral<br />
sur la nécessité de renforcer ce Fonds et de le<br />
maintenir au-delà de 2010, afin « d’éviter à l’humanité<br />
un péril, aux conséquences imprévisibles, et de<br />
garantir aux générations présentes et futures, un<br />
environnement sain ».<br />
Les efforts déployés pour la sauvegarde de la<br />
couche d’ozone sont louables, quand bien même<br />
la lutte n’est pas encore gagnée. C’est une<br />
course de longue haleine. Les échéances fixées dans<br />
le cadre du Protocole de Montréal pour le gel et<br />
la réduction de la production et de la consommation<br />
des SAO sont respectées. Les pays développés qui<br />
sont les producteurs et les plus gros consommateurs,<br />
ont mis fin à l’utilisation de ces substances, sauf<br />
pour des cas exceptionnels, notamment la fabrication<br />
des produits pharmaceutiques qui nécessitent des<br />
dérogations spéciales.<br />
Pour les pays en développement, la promotion<br />
de partenariat entre les parties et l’amélioration<br />
des capacités de lutte de ces pays sont indispensables<br />
pour la victoire finale. Ceci à travers une<br />
collaboration sincère entre les différents acteurs.<br />
Vincent K. HOEDANOU
DENR issues more rigorous penalty against ODS trade<br />
By Melody M. Aguiba<br />
August 1, 2007<br />
The government is issuing rigorous penalty regulations against illegal trade of ozone<br />
depleting substances (ODS) in an aim to totally eliminate consumption of ODS in<br />
anticipation of the ozone’s healing.<br />
The Department of Environment and Natural Resources (DENR) is expected to issue the<br />
Omnibus Guidelines that will impose penalties on the sale, storage, possession, use,<br />
manufacture, transport, and trading of ODS.<br />
Katherine D. Pine, officer of the Philippine <strong>Ozone</strong> Desk-Project Evaluation and Monitoring<br />
Office, said the guidelines may be released this month.<br />
“Even possession of the substances will be penalized under the guidelines. We hope this<br />
will address illegal trade,” she said in an interview.<br />
The Philippines has a commitment by 2010 under the 189-party Montreal Protocol to<br />
totally eliminate consumption of ODS particularly the most popular chlorofluorocarbons<br />
(CFC), also called freons used in refrigeration, air-conditioning, and foams.<br />
Penalties to be imposed under the guidelines include confiscation and up to P50,000 fine,<br />
depending on the number of offense, for ODS importation without DENR permits and for the<br />
sale and use of small disposable containers of less than one kilo with CFCs.<br />
For back conversion or the charging with CFC a system designed for non-CFC, up to<br />
P50,000 fine will be slapped on violators.<br />
The DENR has embarked on a more intensive elimination of ODS as these substances are<br />
also greenhouse gases that contribute to the global warming threats. Besides, experts<br />
predicted the ozone’s healing perhaps in the middle of this century with ODS phase-out<br />
commitments.<br />
DENR just put up in Muntinlupa pilot Refrigerant Reclamation Facility where traders and<br />
end-users of CFCs can turn over their used refrigerants.<br />
The facility enables CFC’s recovery and thus stops its release to the atmosphere which is<br />
believed to have caused the large ozone hole atop the Antarctic, allowing harmful ultraviolet<br />
rays to pass through and potentially cause skin cancer and eye cataract on human.<br />
Teresita A. Peralta, POD chief, said DENR is also engaging pharmaceutical companies like<br />
Glaxo Smithkline and United Laboratories in a dialogue on the elimination of the use of CFC<br />
in metered dose inhalers (MDIs). CFCs are used as propellants in sprays for the release of<br />
medical treatments used by asthma or pulmonary patients.<br />
Except for suspected cases of ODS smuggling, the country has achieved a certain success in<br />
its ODS elimination. Importation of CFCs in 2006 hit only 681. MT, half of its 1, 60 MT<br />
allowable use. With such reduced import (as the country only imports and does not<br />
manufacture CFC), the country is confident of totally effacing CFC use by 2010.<br />
To further curb ODS smuggling, DENR partnered with the Bureau of Customs, Philippine<br />
National Police-Maritime Group, Philippine Navy, Philippine Coast Guard, Philippine Ports<br />
Authority, and the Subic Bay Metropolitan Authority.<br />
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But since smuggling occurs due to traders’ and users’ preference to use CFC which is<br />
cheaper than non-ODS alternatives, Montreal Protocol proponents had financed shifting to<br />
these alternatives.<br />
Peralta said the Multilateral Fund financed the country’s ODS elimination program with a<br />
total of $11. 71 million as assisted by the World Bank and the Swedish International<br />
Development Cooperation Agency.<br />
Out of a targeted voucher issuance of ,000, DENR had so far released 2,500 vouchers that<br />
enabled ODS users to shift to more nature-friendly substances.<br />
The vouchers enabled enterprises engaged in refrigeration and air conditioning (RAC) and<br />
mobile air conditioning (MAC), which take up the substantial 75 percent in CFC<br />
consumption, to buy systems using CFC alternatives up to a grant of P120,000.<br />
The grant includes purchase of CFC recycling machine, recovery cylinder, vacuum pump,<br />
portable leak detector, vacuum meter, electronic weighing scale, nitrogen regulator with<br />
gauges, and electronic thermometer.<br />
Earlier, DENR penalized at least two companies for CFC illegal trade. Violating company<br />
Fairweather Sales was ordered to re-export CFCs while Britches Trading is re-auctioning<br />
seized CFCs.<br />
Government has been monitoring CFC importation as against consumption in order to<br />
monitor smuggling.<br />
It is now verifying whether the reduced number of registered companies engaged in ODS<br />
trade (since certain consumption is still allowable for CFC up to 2010 while other ODS use<br />
has further extension beyond 2010) in 2007 reflects the real situation.<br />
Under the proposed guidelines, DENR can impound ODS upon reasonable ground<br />
involving the trade, storage, possession, manufacturing, and transport without a permit or a<br />
Chemical Control Order from DENR.<br />
People obstructing arrest, subpoena, or prosecution of violators and the failure to report<br />
records required under Republic Act (RA) 6969 or the Toxic Chemicals, Hazardous, and<br />
Nuclear Wastes Control Act will also be penalized.<br />
The P50,000 fine will likewise be slapped on the use of CFC 11 as blowing agent for foam<br />
manufacturing, intentional release of ODS when servicing equipment, flushing with ODS,<br />
and hampering the entry of authorized representatives in premises storing ODS.<br />
The use of CFCs in mobile air conditioners initially in vehicles registered since 1999 and<br />
then on all vehicles by 2012 will be fined with up to P50,000.<br />
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For Further information Contact:<br />
The <strong>Ozone</strong> <strong>Secretariat</strong><br />
P.O. Box 30552-00100 Nairobi, Kenya<br />
Tel: (254) 762 3885 / 48<br />
Fax: (254) 462 4691 / 2 / 3<br />
E-mail: ozoneinfo@unep.org<br />
Web: http://ozone.unep.org or<br />
www.unep.ch/ozone