This document discusses using intellectual property analysis to inform national green growth innovation strategies. It suggests that IP-based evidence and understanding technology trends, networks, and key participants can help identify areas that may need more policy support to accelerate innovation. It also notes the role that organizations like WIPO and patent offices can play in contributing to national innovation systems and deployments through activities like benchmarking, enabling knowledge transfer, and facilitating patent pools and standards.
12. Chatham House and CambridgeIP have developed a patent
database focused on six Low Carbon energy technologies
A recently completed patent landscaping research effort by CambridgeIP and
Chatham House has sought to identify:
Facts on the ground – to move beyond myths and to practical solutions
Building blocks for technology transfer practices in the low-carbon energy space
1. Biomass to Electricity
Chatham House and CambridgeIP
have developed a unique collection
2. Carbon Capture
of 57,000 patents and related 3. Cleaner Coal
analyses focused on 6 areas of 4. Concentrated Solar Thermal (CST)
energy technology 5. Solar PV
6. Wind
Following the patent landscaping exercise, Ilien Iliev of CambridgeIP
co-authored a report with Bernice Lee and Felix Preston of Chatham
House: Who Owns Our Low Carbon Future?
Full report available for download at Chatham House‟s website:
www.chathamhouse.org.uk
12
13. Informing national strategies: Geographical origins of
assignees indicate innovation strengths & capacities (1)
• Aside from China, patent assignees are predominantly from
OECD economies
Netherlands
100%
90% France
80%
% of all patent filings
Denmark
70%
60% Canada
50% United Kingdom
40%
Republic of Korea
30%
20% China
10%
Germany
0%
Biomass Cleaner Carbon CSP PV Wind Japan
Coal Capture
USA
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19. IP analysis provides information on types of player: The
public sector is a key actor, and its role is likely to expand
• Public-institution owned IP may be the easiest point at which we
can implement innovative licensing practices Unknown
100%
90% University
80%
SME
70%
Patent filings
60% Public
50%
40% Other
30%
20% National
10% Corporation
Multinational
0%
Average Biomass Cleaner Carbon CSP PV Wind
of all Coal Capture
fields Universities own directly a relatively small proportion
of total patents
The „expanded patent footprint‟ is likely to be much
higher: licensed tech & spin-offs
19
20. IP analysis informs understanding market-technology spaces:
Nanotech example
CambridgeIP research reveals:
• Higher inter-relation between patents in nano-field
– Higher patent forward citation rates for patents relative to forward citation rates observed elsewhere
– Rising strength of China: Rise in China patenting rates (accompanied by acquisitions of companies and
technologies by Chinese companies)
– Russia: Russian nanotechnology developments are often be overlooked in the English speaking world. Many
clients have little or no exposure to patent and non-patent literature in Cyrillic. The role of RusNano?
• Patenting rates slow down from 2004 in some nanotechnology sub-spaces, in part
driven by:
– Delays in patent filings (perhaps due to „time to market‟ and other considerations)
– Fewer nano patents granted: Increased sophistication and rigor of the nano-patent examination process
– Lower levels of VC investment: end of the honeymoon?
• Multiple & varied technology areas with inter-dependencies and growing
number of applications
1996: A relatively 2006: An „explosion‟ of
small number of activity across an ever-
IPCs is associated increasing array of
with the industrial applications: no
nanotechnology single „core area can be
field discerned: indicative of a
„raft‟ or a „platform‟
technology entering
maturity
20
21. Example of a national level, technology focused, IP audit:
UK nanotechnology patent audit
Client Profile
Senior executives from a publically funded organisation approached CambridgeIP for assistance in mapping a broad section of the UK
nanotechnology space
Business Situation
• A key driver was the need to inform our clients‟ strategy in this complex and patent intensive space
• Our remit was to assist client executives develop a clear understanding of the existing landscape, identify areas of relative strength &
weakness and existing R&D collaborations, analyse trends and provide statistical information & benchmarking data for use in business
planning and stakeholder reports
Our Approach
• Working with CambridgeIP and senior industry experts we developed and implemented a complex patent search strategy
• Results were analysed using our proprietary tools and methods and a focus area for deep analysis was identified
• A workshop was conducted for client executives with our internal experts, assisting interpretation and dissemination of findings
Results and Benefits
• Identification of fundamental technologies and key actors • Insights into corporate R&D collaborations - identiifying key players in the
• Identification of areas of strength together with technologies applicable to patent space, together with their overlapping relationships
multiple sectors of application for future focus by our client • Independent and fact-based assessments of the client organisations
• Understanding of recent M&A activity with significant impacts on the impact on UK IP assets, valuable in stakeholder reporting
ownership of the UK‟s nanotechnology IP assets
42. UNFCC Provisions (1)
• Article 4.1 (c)
– All Parties, taking into account their common but differentiated
responsibilities and their specific national and regional
development priorities, objectives and circumstances, shall:
– “Promote and cooperate in the development, application and
diffusion, including transfer, of technologies, practices and
processes that control, reduce or prevent anthropogenic
emissions of greenhouse gases not controlled by the Montreal
Protocol in all relevant sectors, including the energy, transport,
industry, forestry and waste management sectors”
42
43. UNFCC provisions (2)
• Article 4.5
– “The developed countries and other developed countries included in
Annex II shall take all practicable steps to promote, facilitate and
finance, as appropriate, the transfer of or access to environmentally
sound technologies and know-how to other Parties, particularly
developing country Parties, to enable them to implement the provisions
of the Convention.”...
• Article 4.7
– “The extent to which developing country Parties will effectively
implement their commitments under the Convention will depend on the
effective implementation by developed country Parties of their
commitments related to financial resources and transfer of
technology...”
43
44. Stern Review: Chapter 16, page 351 (a)
• Information is a public good. Once new information has been created, it is virtually
costless to pass on. This means that an individual company may be unable to capture
the full economic benefit of its investment in innovation. These knowledge
externalities (or spillovers) from technological development will tend to limit
innovation.
• There are two types of policy response to spillovers. The first is the enforcement of
private property rights through patenting and other forms of protection for the
innovator. This is likely to be more useful for individual products than for
breakthroughs in processes or know-how, or in basic science. The disadvantage of
rigid patent protection is that it may slow the process of innovation, by preventing
competing firms from building on each others‟ progress. Designing intellectual
property systems becomes especially difficult in fields where the research process is
cumulative, as in information technology.
• Innovation often builds on a number of existing ideas. Strong protection for the
innovators of first generation products can easily be counterproductive if it limits
access to necessary knowledge or research tools for follow-on innovators, or allows
patenting to be used as a strategic barrier to potential competitors. Transaction
costs, the equity implications of giving firms monopoly rights (and profits) and further
barriers such as regulation may prevent the use of property rights as the sole
incentive to innovate. Also much of value may be in tacit knowledge („know-how‟ and
„gardeners‟ craft‟) rather than patentable ideas and techniques.
44
45. Stern Review: Chapter 16, page 351 (b)
• Another broad category of support is direct government funding of innovation,
particularly at the level of basic science. This can take many forms, such as funding
university research, tax breaks and ensuring a supply of trained scientists.
• Significant cross-border spillovers and a globalised market for most technologies offer
an incentive for countries to free-ride on others who incur the learning cost and then
simply import the technology at a later date9. The basic scientific and technical
knowledge created by a public R&D programme in one country can spillover to other
countries with the capacity to utilise this progress. While some of the leaning by
doing will be captured in local skills and within local firms, this may not be enough to
justify the learning costs incurred nationally.
• International patent arrangements, such as the Trade Related International Property
Rights agreement (TRIPs10), provides some protection, but intellectual property
rights can be hard to enforce internationally. Knowledge is cheap to copy if not
embodied in human capital, physical capital or networks, so R&D spillovers are
potentially large. A country that introduces a deployment support mechanism and
successfully reduces the cost of that technology also delivers benefits to other
countries. Intellectual property right issues are discussed in more detail in Section
23.4.
• International co-operation can also help to address this by supporting formal or
informal reciprocity between RD&D programmes. This is explored in Chapter 24.
45
46. Stern Review: Chapter 24, page 10
• In many cases intellectual property rights are not the key barrier to transfer of
technology.
• Within international debates on climate change there has been a particular focus on
the role of intellectual property rights (IPR) as a barrier to the international diffusion
of technologies. In principle, patents that protect IPR and reward the innovator are
important as they provide an incentive to invest in developing new products. Weak
IPR may deter domestic firms in developing countries from purchasing technologies
as their competitors may be able to copy them without paying. Companies with
advanced technologies often cite insufficient IPR protection in developing countries
as a barrier to technology transfer, and suggest stronger protection, for example by
full implementation of the TRIPs agreement, would help them deploy advanced
technologies. Increasing the incentives for mitigation (for example by introducing a
carbon price) increases the value of patents for low-carbon technologies and acts as
a stimulus to investment in innovation in this area. The benefits of having an
intellectual property (IP) regime do not imply that such rights should be increased
without limit, especially if they reduce the beneficial effects of product market
competition.
• Patents can also be seen as creating a short-term monopoly and thus limiting
efficient diffusion whilst the owner enjoys monopoly rents
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