INTELLECTUAL PROPERTY AND INNOVATION:
TECHNOLOGY TRANSFER CASE STUDIES AND
"LESSONS LEARNED"
COMMUNICATION FROM AUSTRALIA; THE EUROPEAN
UNION; ISRAEL; JAPAN; KOREA, REPUBLIC OF; NEW ZEALAND; SINGAPORE;
SWITZERLAND; THE SEPARATE CUSTOMS TERRITORY OF TAIWAN, PENGHU, KINMEN AND
MATSU; THE UNITED KINGDOM AND THE UNITED STATES OF AMERICA
_______________
1 INTRODUCTION
1. Technology can improve productivity, enhance competitiveness,
promote growth, and contribute to a country's development objectives.[1]
Many countries are therefore motivated to create a marketplace framework that
attracts the voluntary transfer of technology and investment in technological
innovation. At the WTO, this motivation
has yielded papers, interventions, thematic sessions, and other discussions
focused on the relationship between trade and technology. A previous discussion
paper, WTO document _IP/C/W/717,
suggested that these endeavors would be complemented by a discussion of efforts
that have been made to attract investment and technology and what factors made
those efforts successful or unsuccessful, as well as how to ensure an adequate
enabling environment (human capital, infrastructure, legal framework,
macroeconomic conditions) for technology transfer in the host countries. The
paper further noted that it would be helpful to gather Members' insights on how
proposed solutions could replicate specific successes and address specific
failures.
2. Specifically, the previous paper solicited case studies on the
voluntary transfer of patent-protected or trade secret technology from one WTO
Member to another and reflected on the importance of improving absorption
capacities of beneficiary countries by means of appropriate domestic policies
and capacity building. The guiding questions provided in that document looked
to discover what made specific technology transfer projects attractive and
successful in order to guide WTO Council for TRIPS discussions on how Members
can better encourage and incentivize voluntary technology transfer on mutually
agreed terms to address global challenges.
3. This subsequent paper seeks to tie together the discussions that
took place over the course of the year, reflecting on some of the "lessons
learned," themes, takeaways, and other relevant observations from Members'
presentations, to further highlight the factors that make technology transfer
successful.
2 CRITERIA FOR SUCCESSFUL TECHNOLOGY TRANSFER
4. Technology transfer, the way technology diffuses between countries
and how Members can best contribute to such diffusion, has been the subject of
many debates both within and outside the Council for TRIPS. A 2002 WTO
Secretariat note (document _WT/WGTTT/W/1)
surveyed the overall landscape on technology transfer. This note identified two
main channels of technology transfer:
a._
Through the use
of advanced intermediate goods developed abroad.
b._
By learning from
foreign technologies via three channels:
1._
Blueprints – copying and
adapting codified knowledge.
2._
Communication – sharing
tacit knowledge, including learning-by-doing.
3._
Firm interaction –
collaboration between domestic and foreign companies.
5. The ability to successfully transfer technology through these
channels depends on several interrelated criteria. First and foremost is absorptive capacity, which refers to a
recipient's ability to understand, assimilate, and apply foreign technologies.
This capacity is shaped by the level and quality of human capital, particularly the education and skills of the
workforce. A well-educated population is
better equipped to use advanced imported goods, replicate foreign technologies,
and benefit from learning-by-doing.
6. Complementing this is the presence of domestic R&D activity, which not only supports
innovation but also enhances the ability to adapt and internalize foreign
technologies. A dynamic entrepreneurial environment is also
crucial, as it provides the incentives and infrastructure for firms to invest
in imitation, adaptation, and commercialization of new technologies.
7. Labor mobility
plays a key role in spreading knowledge gained through training in
multinational enterprises (MNEs) to the broader economy. When trained workers move from foreign
affiliates to domestic firms, they carry valuable expertise that can raise
productivity across sectors.
8. The strength and design of a country's intellectual property (IP) regime influence both the inflow
and internal diffusion of technology. A robust IP system can attract high-tech
foreign investment while still allowing local firms to learn and innovate.
9. The type and composition of
foreign direct investment (FDI) also matter. Horizontal FDI, which targets local markets,
tends to have stronger spillover effects than vertical FDI, which is often
limited to low-tech, export-oriented activities. FDI that is technologically
intensive and well-integrated with the local economy offers greater potential
for knowledge transfer.
10. Trade composition is another factor—imports of technologically advanced intermediate
and capital goods from innovation-rich countries carry higher potential for
spillovers. However, the benefits depend
on the importing country's ability to use and learn from these goods.
11. Effective communication channels
are essential for transferring tacit knowledge, which cannot be codified or
reverse-engineered. Person-to-person contact, training, and expert services
help bridge this gap.
12. Finally, partnership agreements,
such as licensing, franchising, and joint ventures, can be powerful mechanisms
for technology transfer. These arrangements often involve direct sharing of
know-how and training, and their success depends on the absorptive capacity of
the local partner and the legal environment that governs IP.
3 TECHNOLOGY TRANSFER—"LESSONS LEARNED"
13. Over the course of the year, the Members of the WTO Council for TRIPS
have shared practical examples, with a strong focus on IP, in order to gain a
better understanding of how voluntary technology transfer happens. The case
studies yielded some important "lessons learned" that may be helpful
to both providers and recipients of such technology transfer in the future.
Factors that contributed to successful transfers included:
1._
Willingness to
tailor the technology transfer to the local environment, and for a deep
understanding of the local context from entities transferring the technology.
2._
An evaluation of
readiness of the recipient of the technology transfer, including the
possibility of a gap assessment, with respect to current capabilities,
scientific and technical expertise, infrastructure, human resources, procedures
and operations, documentation, record keeping, and in-person support. This would likewise include evaluation of the
need for any specialized experience and capability, such as complex and sterile
manufacturing, as applicable. This could also include action by the recipient country
in response to a gap assessment, including by building infrastructure, training
and hiring staff, and otherwise preparing to more effectively absorb the
technology.
3._
Clear
identification of the technology involved, as well as any IP rights associated
with it that may need to be licensed. In addition, ensuring appropriate
enforcement of IP rights and enhancement of systems for combatting counterfeit
products resulting from the technology transfer.
4._
Advance
consideration of what would be required for long-term sustainability of the
proposed technology transferred, including through robust governance and policy
frameworks for IP rights, sustainable market demand, and the availability of
robust infrastructure and a skilled workforce.
5._
Funding streams,
ideally from multiple sources, and budget processes.
6._
Adequate supply
chain capacity for the technology transfer and future sustainability.
7._
Voluntary
collaboration in order to facilitate open communication between the technology
owner and recipients, leading to successful partnerships.
8._
For the recipient
country, the importance of a sound investment climate for technology transfer,
and confidence in regulatory, legal, and other policy frameworks.
9._
Clearly defined
objectives, outcomes, and measurable indicators of success for the technology
transfer.
4 GUIDING QUESTIONS
14. The discussions of technology transfer in the Council for TRIPS have
demonstrated real-life examples of how voluntary technology transfer works in
the real world.
15. Are there additional successful technology transfer projects to or
from companies, government authorities, or other entities in your territory
that you can share with the Members of the Council for TRIPS?
16. If so, for these projects, please provide the information suggested
in the Guiding Questions found in WTO document _IP/C/W/717
regarding technology involved in the transfer, the parties and factors
involved, the IP involved, and the results, successes, and challenges.
17. To the extent that you have already shared the details of technology
transfer projects, are there lessons learned, takeaways, or particular factors
that made those projects successful?
18. Based on our discussions in the Council for TRIPS, other WTO bodies,
and any other experiences, please share your insights or expertise regarding
the following questions:
·_
What are some
recommendations for those entities seeking to transfer technology to a
recipient partner?
·_
What are some
recommendations for those entities seeking to receive technology?
·_
Are there
particular policy measures a recipient country can pursue that can lead to more
effective technology transfer?
·_
What is the
importance of IP in technology transfer?
·_
What factors can
help create an "enabling environment" for effective absorption of
technology?
·_
What are some of
the benefits of technology transfer for both transferor and transferee?
·_
What can Members
learn from our discussions to better encourage and incentivize technology
transfer to address the challenges facing the world today and in the future?
__________
[1] See, e.g., Comm'n from the African Group, Policy space for industrial development – a case for
rebalancing trade rules to promote industrialization and to address emerging
challenges such as climate change, concentration of production and digital
industrialization at ¶ 25,document _IP/C/W/695
(1 March 2023).