Technologies for climate change adaptation: emerging lessons from developing countries supported by UNDP.
Tessa, Bertrand ; Kurukulasuriya, Pradeep
In developing countries, resource-dependent communities are
disproportionately affected, jet less equipped to cope with the adverse
impacts of climate change. Though generally associated with
institutional adjustments, technology transfer, absorption and diffusion
provide outstanding opportunities to increase the resilience of
vulnerable communities and the ecosystems on which they rely to the
risks of climate variability and extremes. In spite of the potential for
technology diffusion as it emerges from the international regime,
scientific evidence suggests that global efforts to transfer
climate-smart technologies needed for successful adaptation in
developing countries have fallen short. This paper examines current
challenges and opportunities related to technology transfer for climate
change adaptation in developing countries, as well as the contribution
of the United Nations Development Programme--Climate Change Adaptation
Team (UNDP-CCA) in promoting technology absorption and diffusion at the
country level.
**********
These days, climate change is one of the most prominent challenges
facing humanity. Recent data released by the National Oceanic and
Atmospheric Administration (NOAA) of the United States suggest that June
2010 was the hottest month of June on record. (1) Resource-dependent
communities in developing countries are disproportionately affected, yet
less equipped to cope with the adverse impacts of climate change. As
extreme weather reaches its peak, the need to adapt becomes an urgent
priority. The transfer of technology--which in the broadest sense
includes not only materials and equipment, but also the technical and
commercial information and human skills needed to properly understand
and use it--is presented as one of the main pillars to increase the
resilience of vulnerable communities and their ecosystems to climate
risks. Yet today, global efforts to transfer and diffuse climate-smart
technologies have fallen short of what is required for significant
adaptation in the coming decades. (2) The experience of the UNDP Environment and Energy Group in promoting the absorption and diffusion
of technology in developing countries can help pave the way for
successful transfer of technology to developing countries.
We begin by elaborating on the opportunities and constraints
associated with the transfer of technology in developing countries, then
go on to present the portfolio of UNDP's projects addressing the
absorption and diffusion of technology in climate change adaptation in
developing countries. Our final section explores the prospects for
scaling up efforts to transfer technology for climate change adaptation
in developing countries.
OPPORTUNITIES AND CONSTRAINTS TO TECHNOLOGY TRANSFER IN DEVELOPING
COUNTRIES
From the United Nations Framework Convention on Climate Change
(UNFCCC) in 1992 to the Kyoto Protocol in 1997 to the Bali Action Plan
ten years later, several multilateral environmental agreements have been
developed to assist developing countries in adapting to climate change;
namely, by facilitating innovation and diffusion of technology that can
bolster the resilience of vulnerable communities to climate change,
variability and extremes. For example, Article 4.5 of the UNFCCC urges
developed countries who are party to the Convention (Annex I countries)
to promote, finance and facilitate the transfer of environmentally sound
technologies and know-how to developing countries. Yet despite their
commitments, the difficulty of fulfilling this critical need has
highlighted the importance of moving toward concrete actions. Today, the
World Trade Organization's (WTO) agreement on Trade-Related Aspects
of Intellectual Property Rights (TRIPS) provides potential opportunities
to speed up the transfer of technology for adaptation. While addressing
some concerns, significant challenges still need to be overcome in
developing countries in order for adaptation technologies to deliver
their full promises.
Technology Transfer Opportunities for Climate Change Adaptation in
Developing Countries
TRIPS constitutes the most comprehensive multilateral agreement in
the area of intellectual property rights. The agreement is replete with
technology transfer opportunities for developing countries. In addition
to establishing minimum standards for intellectual property rights, a
central aspect of TRIPS is that it allows countries to position
intellectual property rights in the context of their public policy} In
this respect, several provisions known as TRIPS flexibilities allow
developing countries to overcome the constraints pertaining to the
protection of intellectual property rights, and provide them with
critical policy space, especially for climate change adaptation. (4)
These provisions include exceptions to patent rights and compulsory
licensing. As stated in Article 30 on the "Exceptions to Rights
Conferred," TRIPS does grant exceptions to the exclusive rights
conferred by a patent, assuming that these exceptions do not conflict
with normal exploitation of the patent and do not prejudice interests of
the patent owner, taking into account the interests of third parties.(5)
Such exemptions are particularly pertinent within the context of climate
change adaptation, given the need to adapt foreign technology to local
environment. These exemptions allow companies in developing countries to
invent around patent claims to gain access to environmentally sound
technologies. This has proved important within the context of the
implementation of other multilateral environmental agreements.(6) In the
case of compulsory licensing, TRIPS allows the use of a patented product
or process without the consent of the patent owner, assuming that the
proposed user has previously attempted to obtain authorization from the
patent holder. This requirement is further waived in the case of
national emergency and other circumstances of extreme urgency, or in
cases of public noncommercial use (Article 31.b). (7) Compulsory
licensing can, therefore, be seized to ensure rapid transfer and access
to climate-related technologies for adaptation in developing countries.
In addition to the patent provisions, it is important to mention
the provisions of Section 8 on the "Control of anti-competitive
practices in contractual licenses. (8) As stated in Article 40, WTO
members can adopt appropriate measures to prevent or control licensing
practices or conditions within intellectual property rights that impede
the transfer and the dissemination of technology. Further, Article 66,
specifically designed for least developed countries (LDCs), recognizes
the special needs and requirements of these countries and provides them
with a transition period of ten years, during which they are only
required to apply Articles 3, 4 and 5 of the agreement. During this
period--which has now been extended from 2013 to 2016--LDCs can access a
variety of channels for the transfer of technologies, including
imitation and reverse engineering.
From this perspective, it is clear that TRIPS has the potential to
facilitate the transfer of technology for climate change adaptation in
developing countries. However, given the significant challenges
pertaining to the institutional reform and regulatory incentives needed
both in the countries adopting the technology and in the country owning
it, the process is far from being a cure.
Constraints to Technology Transfer in Developing Countries
In addition to lack of political will from developed countries, the
failure to transfer technology to developing countries stems from
several other factors, including the concerns surrounding intellectual
property rights, the market-driven technology transfer and the weak
capacity of absorption from inadequate institutions and policies. As
stated above, intellectual property rights have been established to
promote the innovation and diffusion of technologies and knowledge.
However, there are circumstances under which intellectual property
rights constitute an obstacle to the transfer of technology. (9) In
fact, patents too broad in scope or level of protection of intellectual
property might prompt owners to limit the availability, use or
development of a process or product, thus hindering the transfer of
technology. In the same vein, weak enforcement of intellectual property
rights can discourage foreign firms from licensing their technologies in
developing countries or from investing in promising domestic enterprises
for fear that competitors will use it. For example, as a result of weak
intellectual property rights regimes in Brazil, China, India and Turkey,
foreign subsidiaries of global wind equipment companies registered very
few patents in these countries, despite their investments in local
manufacturing, research and development. (10) Another concern over the
transfer of the technology is the market-driven approach governing this
process. While developing countries expect significant access to
technologies on concessional or grant terms, developed countries have
primarily focused on markets. Unfortunately, developing and low-income
countries are not attractive markets for entrepreneurs wishing to
introduce new technologies. Moreover, assuming that technologies are
effectively transferred, there is a need for complementary domestic
policies and institutions ensuring that these technologies are
effectively adapted and absorbed. Efficient use of technology requires
prior technical knowledge, skills and resources.
However, developing countries still lag behind the critical mass of
scientists required to efficiently use the technologies acquired. (11)
In the case of climate change, the number of engineers needed to
implement context-specific adaptation technologies is particularly low
in low-income countries. As per the need to design domestic policies
mobilizing technology and fostering innovation, few developing countries
have the technical capacity to handle such an endeavor. In addition,
national research institutes are generally underfunded and research is
not demand driven. For example, investments in agricultural research and
development in developing countries only account for about 27 percent of
global investments, though this figure has been on the rise since 1981.
(12) Furthermore, provided that adaptation technologies are devised or
adapted to local conditions, communities still do not have access to
credits nor do they have the inclination to invest in new technologies .
(13)
As a result, beyond the opportunities offered by TRIPS
flexibilities, the transfer of technology to developing countries is
limited by significant constraints related to domestic and external
barriers. Multilateral institutions are currently being considered as an
option to support the global effort for the development and diffusion of
climate-smart technologies for adaptation. As a leading multilateral
institution in the area of development, UNDP is committed to scaling up
the diffusion and absorption of technologies in developing countries
through a large portfolio of projects specifically addressing the issue
of technology transfer.
UNDP's PROJECTS IN TECHNOLOGY DIFFUSION AND ABSORPTION FOR
CLIMATE CHANGE ADAPTATION IN DEVELOPING COUNTRIES
The strong commitment of the UNDP Climate Change Adaptation
(UNDP-CCA) group to the technology transfer issue is reflected in its
robust portfolio of twenty-nine projects specifically geared toward the
absorption and diffusion of technology for climate change adaptation in
developing countries. These projects are now being implemented in
twenty-nine countries in Africa, Asia, Europe, the Pacific and Latin
America. The Global Environment Facility (GEF) is the largest funder of
these initiatives, with nearly $66 million in grant contributions.
Adaptation programs and projects being implemented with UNDP's
technical assistance and financing using resources managed by the GEF
aim to achieve the following key results: (a) develop technical
capacities at the national and sector levels to undertake prospective
exercises in order to identify climate change risks and opportunities
and prepare long-term strategies for risk management; (b) internalize climate change risks into planning, budgeting, management and
decisionmaking of key economic sectors; (c) revise and formulate
national and sectoral policies and establish appropriate institutional
support mechanisms; (d) test approaches and technologies for climate
change risk management in key sectors at the national and sub-national
levels; (e) codify and disseminate knowledge and best practices. (14)
In this respect, a project approach is used to promote a
combination of so-called hard and soft technologies for effective and
efficient impacts. Is Technologies are chosen by countries based on
their cost-effectiveness, environmental sustainability, cultural
compatibility and social acceptability. The sustainability of each
project stems from the establishment of institutions to monitor and
evaluate technologies for potential adjustments, course corrections and
feedback. The scope of intervention includes both the human and the
natural systems, with the principal goal of increasing their resilience
to climate change risks. (16) Below is a description of the use of these
technologies in these different systems.
Technology Used for Climate Change Adaptation in the Human System
The transfer of technology in the human system aims to protect
human life by increasing resilience to adverse climate change
variability and extremes. Technologies are primarily used in the context
of adaptation in the following thematic areas: agriculture and food
security, water resources management and disaster risk management.
Agriculture and food security. Fourteen UNDP-supported country
projects promote the adoption and diffusion of technology in the domain
of agriculture and food security. Eight projects take place in Africa,
while four are in Asia and two in the Pacific. Most of these projects
equip and build the technical capacity of key stakeholders and
institutions, specifically technical staff, local farmers,
community-based organizations and NGOs. They also promote agricultural-
and pastoral-resilient techniques and practices, such as dissemination
of stress-resistant crops and rangeland seedlings, promotion of crop
diversification and introduction of pest management techniques. A
typical example is the Community Based Adaptation to Climate Change
through Coastal Afforestation Project in Bangladesh. This project
partners with the Bangladesh Rice Research Institute (BARI) to
demonstrate adaptive technologies in high-salinity areas. Additionally,
it partners with BARI to train staff and farmers in adopting suitable
vegetable and orchard cultivation technologies. These technologies have
already been tested in coastal areas. Other interventions include crop
diversification and the creation of freshwater reservoirs to facilitate
dry season agriculture.
Water resources management. Thirteen projects under implementation
focus on the adoption and diffusion of technologies in the area of water
resources management. As in the previous intervention area, the majority
of these projects take place in Africa (in this instance seven) with
four in Asia, one in Latin America and one in the Pacific. These
projects aim to enhance the capacity of communities and relevant
institutions to integrate climate change into water resource management.
In this respect, they introduce, demonstrate and promote integrated
water resources management practices, such as changing crop patterns,
selection of drought-tolerant crops, drip and borehole irrigation, and
water conservation techniques such as rainwater harvesting. A key
example of this is the Adaptation to Climate Change through Effective
Water Governance project being implemented in Ecuador. The project
supports the incorporation of water-saving technologies for irrigation,
such as drip irrigation and adjusting timing and volumes of water
application in irrigated land. It also supports agricultural practices
leading to efficient use and conservation of water, such as change in
crop patterns, selection of drought-tolerant crops and improved land
management techniques.
Infrastructure/Disaster risk management (human system). Nine
projects promote the diffusion and absorption of technologies with
regard to risk management. These projects are more evenly distributed
geographically with four in Asia, three in Africa and two in the
Pacific. The projects build the technical capacity of communities and
institutions to design and develop infrastructure systems that help
withstand increasing variability and intensity of climate hazards. An
illustrative case is the Promoting Climate-Resilient Water Management
and Agriculture Practices project in rural Cambodia. The project
conducts measures to reduce vulnerability of infrastructure to the
impacts of climate change by constructing irrigation canals and dykes,
as well as security hills to help prevent flooding.
Technologies Used for Climate Change Adaptation in the Natural
System
Technologies used in the natural system aim to protect the
biological and physical environments from the adverse impacts of climate
change. In the case of UNDP-CCA projects financed by the GEF-managed
funds, these technologies are used in the areas of biodiversity and
ecosystem management, sustainable land management and disaster risk
management.
Climate-resilient ecosystem management. Four projects specifically
address technology absorption and diffusion of biodiversity and
ecosystem management. Asia holds two projects; Europe and Latin America,
one each. The majority of these projects build the capacity of key
stakeholders, while identifying and disseminating suitable technologies
for the protection and conservation of biodiversity and diverse
ecosystems. The principal ecosystems discussed here are forest, wetland
and coastal ecosystems. A typical example is the Adaptation to Climate
Change Impacts in Mountain Forest Ecosystems projects in the
South-Eastern region of Armenia. This project trains foresters to
conduct early identification and localization of pest invasion and to
use environmentally sound aerial pest control techniques, with a focus
on the use of a biological treatment that acts on leaf-eating insects
without damaging biodiversity.
Sustainable land management (SLM). Six projects address the
diffusion and absorption of technologies for sustainable land
management. Four of these projects occur in Africa and two in Asia.
These projects enhance the technical capacity of key stakeholders,
specifically farmers and pastoralists, to identify, disseminate and
implement sustainable land management techniques to restore degraded
soils, stabilize land and improve agriculture productivity. A key
example is the Adapting to Climate Change through the Improvement of
Traditional Crops and Livestock Farming project in Namibia. The project
identifies and disseminates cost-effective, innovative and appropriate
SLM techniques, which integrate environmental and economic benefits.
Moreover, the project strengthens the technical capacity of service
organizations and improves livestock rearing through integrated pasture
and animal bio-capacity management techniques.
Disaster risk management (natural system). Two projects, based in
Egypt and in Albania, specifically deal with the absorption and
diffusion of disaster management techniques as they pertain to the
natural system. In Egypt, the Adaptation to Climate Change in the Nile
Delta through the Integrated Coastal Zone Management project assists the
government in implementing the national Integrated Coastal Zone
Management (ICZM) plan by installing a set of innovative shoreline
protections. This project is implemented following the so-called living
shorelines approach, which focuses on an innovative set of bank
stabilization and habitat restoration techniques to reinforce the
coastline, minimize coastal erosion and maintain coastal processes. The
project in Albania promotes the use of efficient technologies to assess
vulnerability to environmental changes. This involves training key
stakeholders in the use and application of models such as DIVA, an
interactive tool that enables users to simulate socioeconomic change and
adaptation on natural and human coastal systems.
Assessment of Technology Transfer Within the UNDP's Portfolio
of Projects and Lessons Learned
The UNDP-CCA is currently assisting sixty non-Annex I countries to
adapt to climate change. As mentioned, twenty-nine non-Annex I countries
have at least one project incorporating the issue of technology
transfer. Africa, with twenty-three interventions, is the mainstay of
technology transfer interventions, followed by Asia with sixteen
interventions, and the Pacific Region with five (Figure 1). Asia can be
considered the only region with all kinds of interventions. The absence
of technology transfer interventions in the area of natural resources
management is remarkable in Africa. The agriculture sector receives the
most interventions. Notwithstanding, such interventions are absent in
Europe and Latin America. Interventions in technology transfer for water
resources management occur in all regions with the exception of Europe.
[FIGURE 1 OMITTED]
Three GEF-managed United Nations Framework Convention on Climate
Change (UNFCCC) funds are used to channel on-the-ground funding: the
Least Developed Countries Fund (LDCF), the Special Climate Change Fund
(SCCF), and the GEF-Strategic Priority on Adaptation Trust Fund
(SPA-TF). As a whole, technology transfer is given a high priority
within the UNDP-CCA financing portfolio. Almost every funding
mechanism--LDCF, SCCF, SPA-TF--allocates funding to each technology
transfer intervention area, as shown in Figure 2. LDCF is the most
important provider of funding with the highest contribution in the areas
of agriculture and food security, and to a lesser degree in the areas of
disaster risk management/infrastructure and water. We can also notice
that in the areas of natural resources management and water, the
totality of the LDCF envelope is allocated to technology transfer. This
holds true for the SPA-TF in the areas of agriculture and food security,
water and disaster risks management/infrastructure, and for the SCCF in
the area of disaster risk management/infrastructure.
[FIGURE 2 OMITTED]
Africa receives the highest level of funding, representing
approximately 61 percent of the total budget allocated to technology
transfer, followed by Asia, which receives 23 percent--as highlighted in
Figure 3. The least funded region in this respect is Europe, with only 2
percent.
As a whole, the UNDP-CCA gives special consideration to the
transfer of technology within its portfolio of projects. Almost every
funding mechanism addresses the transfer of technology in a specific
intervention area, and the majority of funding mechanisms allocates the
totality of its funding to projects incorporating technology transfer
interventions. The most important provider of funding is the LDCF, and
the best-served area is agriculture and food security. Africa and Asia
are the most well- provided regions in terms of number of interventions
and allocation of funding. The reason for this is not that they are more
vulnerable than other regions, but rather that their need for technology
diffusion and absorption for climate change adaptation is greatest. In
the perspective of the GEF-5 (2010-2014), the UNDP-CCA deserves some
adjustments, especially in the regional distribution of specific
technology transfer interventions. We find striking that some regions
with a large number of biodiversity hotspots, such as Africa and the
Pacific, receive no technology transfer interventions in this area that
are financed by earmarked resources for adaptation. Furthermore, funding
mechanisms such as SCCF and SPA-TF will need additional allocation and
attention in order to feed into every technology transfer intervention
area.
RECOMMENDATIONS FOR SCALING UP TECHNOLOGY TRANSFER AND DIFFUSION IN
DEVELOPING COUNTRIES
The successful transfer of technologies for adaptation to climate
change will require significant institutional change, with supportive
policies to address the constraints over their integration into
developing countries. In this respect, international measures can aid
national efforts in creating both institutions as well as the proper
environment for successful technology diffusion and absorption in
developing countries.
Policy Recommendations for Multilateral Institutions and Developed
Countries
The role of the international community is essential to ensuring
the transfer of technology to developing countries. The desired
contributions of the international community can be summarized as
follows:
Increase voluntary contributions to the various adaptation funds.
Substantial funding is required in order to stimulate technology
transfer in developing countries. Funding is necessary to build human
and institutional capacities, to conduct research and to create
incentives for innovation that are relevant to adaptation in developing
countries, including technology transfer. The planned resource
allocation efforts of US$500 million over the next four years sought by
major multilateral funding institutions such as the GEF are
significantly short of seriously addressing the urgent challenge of
adapting to climate change). (17) The donor community must come together
to make the necessary funding available for developing countries to
adapt. Failing to do so is likely to impose costs--including opportunity
costs--that are several orders of magnitude larger than the costs of
adaptation.
Transfer climate-smart intellectual property rights to the public
good domain. The transfer of climate-smart intellectual property rights
to the public domain is considered to be a critical measure for
inclusion in TRIPS. It constitutes an efficient solution to address the
laxity and inertia in the compliance to international binding
agreements.
Formulate appropriate policy instruments. Developed countries need
to formulate national policies that, on the one hand, do not reduce
incentives to license technology in developing countries and, on the
other hand, do not prevent foreign firms from licensing publicly funded
adaptation technologies.
Recommendations for Developing Countries
Complementary domestic policies in developing countries are
essential to promoting technology transfer and ensuring that it is
effectively adapted and absorbed. In this respect, the role of the
state, private sector and other institutions is fundamental. Their
actions need to target the following realm:
Strengthen skills and knowledge. Skills and knowledge constitute
the backbone of any technology absorption process. They can be acquired
by investing in institutions and programs using knowledge infrastructure
such as universities, schools, extension services, research and
development institutions and laboratories. These investments will enable
both the public and private sectors to efficiently use climate-smart
technologies and to make scientific-based decisions.
Increase funding amount and efficiency. Funding from multilateral
institutions alone will not ensure efficient transfer and absorption of
technology for climate change adaptation. Funding from both the public
and private sector will be necessary in order to finance research,
development, demonstration and dissemination, absorption in firms,
technical consulting and training. In the same vein, shifting from
guaranteed to competitive funding will increase their efficiency, and
with it the efficiency of institutions.
Increase cooperation between research institutions, the public and
the private sectors. A united effort can guarantee effective technology
transfer and absorption. Bridging institutional divides will be
fundamental to fostering knowledge exchange and experience-sharing.
Institutional cooperation was one of the keystones of the Asian Green
Revolution and is today regarded as a keystone of China's
breakthrough.
Improve the business environment. A suitable business environment
provides the ingredients necessary for climate-smart technology transfer
and diffusion. This entails eliminating barriers to technology transfer,
namely tariffs and other trade barriers that increase the domestic price
of climate-smart technology or render them cost-ineffective. Regulatory
incentives and public support programs need to ensure that the market
functions properly and that firms do not face unnecessary risks.
Moreover, a well-functioning financial sector, coupled with
macroeconomic stability, can guarantee access to credits by vulnerable
communities, while simultaneously providing additional foreign
development investments (FDIs) to accelerate technology transfer and
absorption.
CONCLUSION
The United Nations Development Programme and other multilateral
development organizations are working intensively to promote pro-poor
and pro-growth adaptation that encourages climate-resilient economic
development and sustainable livelihoods. In the case of UNDP this is
done by supporting the integration of climate-related risks and
opportunities into national planning and poverty reduction, especially
to address the needs of poor and vulnerable populations. Technology
transfer plays a pivotal role in adaptation, particularly at the
community level. It is evident from UNDP's experiences to date in
assisting countries to adapt that technology transfer cannot be promoted
or sustained in a policy vacuum. It is equally important to enhance the
policy and regulatory environment in order to facilitate and sustain
technology transfer and demonstrate technologies, which, in turn,
increases uptake and absorption.
Business-as-usual development is clearly not sustainable in the
context of the reality of climate change. In order for it to be
successful, development must be pursued with programs resilient to
anticipated long-term climate change. This new reality has implications
for the way we think about and rely on technology to support resilience.
There is not only a need for technological solutions, but there is also
a need for strengthening the absorptive capacity of the public and
private sectors so that they can properly absorb, employ and improve the
most appropriate technologies. In this respect, multilateral
institutions can help, but not without complementary actions from the
public and the private sectors in both developed and developing
countries. This entails a fundamental change in the way technology is
produced and disseminated, with the public sector providing the
appropriate regulatory framework and creating the necessary business
environment, and the private sector providing matching funding. As
pointed out by the UNFCCC expert group on technology transfer,
technology for adaptation to climate change is not a panacea, but it
constitutes a pillar of a broader framework of integrated solutions.
(18)
NOTES
(1) Promode Kant, "Time Now for Taking Adaptation
Seriously" (Institute for Green Economy (IGREC) Web Publication 8,
26 July 2010), http://igrec.in/time_for_taking_adaption_seriously.pdf.
(2) World Bank, "Development and Climate Change," (World
Development Report, The World Bank, Washington DC: 2010); Antoine
Dechezlepretre, Matthieu Glachant, and Yann Meniere, "The Clean
Development Mechanism and the International Diffusion of Technologies:
An Empirical Study," Energy Policy, Elsevier, 36, no. 4 (2008),
1273-83.
(3) Center for International Environmental Law (CIEL),
"Climate Change and Technology Transfer: Principles and Procedures
for Technology Transfer Mechanisms under the UNFCCC" (report of the
Meeting, Center for International Environmental Law, Poznan, Poland:
2008), 4.
(4) International Centre for Trade and Sustainable Development (ICTSD), "Technologies for Climate Change and Intellectual
Property: Issues for Small Developing Countries" (Information
Notes, no. 12, October 2009), 5, http://ictsd.org/downloads/2009/10/
technologies-for-climate-change-and-intellectual-property.pdf.
(5) Agreement on Trade-Related Aspects of Intellectual Property
Rights (TRIPS), Part II - Standards concerning the availabilitv, scope
and use of Intellectual Property Rights, 332,
http://www.wto.org/english/docs_e/legal_e/27-trips.pdf.
(6) ICTSD.
(7) TRIPS, 333.
(8) Ibid., 337.
(9) Dominique Foray, "Technology Transfer in the TRIPS Age:
The Need for New Types of Partnerships Between the Least Developed and
Most Advanced Economies" (ICTSD Intellectual Property and
Sustainable Development Series, issue paper no. 23, Geneva, Switzerland,
May 2009).
(10) Ibid., World Bank (2010).
(11) Ibid.
(12) Ibid.
(13) United Nations Framework Convention on Climate Change
(UNFCCC), "Technologies for Adaptation to Climate Change"
(UNFCCC Climate Change Secretariat, Bonn, Germany: 2006), 38,
http://unfccc.int/ttclear/pdf/tech_for_adoptation.pdf.
(14) United Nations Development Programme (UNDP), "Advancing
Climate Change Adaptation in Developing Countries: an Overview of the
UNDP-GEF Adaptation Portfolio (UNDP Bureau for Development Policy, New
York, NY: July 2010), 2,
http://www.undp.org/gef/documents/publications/EFS_Adaptation.pdf.
(15) "United Nations Framework Convention on Climate Change
(UNFCCC)," http://unfccc.int/adaptation/adverse_effects/items/4973.php, accessed 15 October 2010.
(16) UNFCCC, 2006, 10.
(17) Ibid., 10.
(18) Ibid., 15.
Bertrand Tessa is a graduate student at the Yale School of Forestry
and Environmental Studies. Pradeep Kurukulasuriya is currently the
senior technical advisor for climate change adaptation in Energy and
Environment/Environmental Finance with the Energy and Environment Group
(EEG) and the Bureau of Development Policy (BDP) at UNDP.
Figure 3: Distribution of Funding for Techonology transfer per region
Africa Asia Europa Pacific South America
61% 23% 2% 8% 6%
Source: Advancing Climate Change Adaptation in Developing Countries:
An overview of the UNDP-GEF Adaptation Portfolio 2010
Note: Table made from pie chart.