APPENDIX 2
Memorandum from Research Councils UK (RCUK)
CONSULTATION BY
HOUSE OF
COMMONS SCIENCE
AND TECHNOLOGY
COMMITTEE ON
RESEARCH COUNCIL
SUPPORT FOR
KNOWLEDGE TRANSFER
Research Councils UK (RCUK) is a strategic partnership
that champions the research supported by the eight UK Research
Councils. Through RCUK the Research Councils are creating a common
framework for research, training and knowledge transfer. Further
details are available at www.rcuk.ac.uk.
RCUK welcomes the opportunity to respond to
this consultation from House of Commons Science and Technology
Committee[1]
This memorandum provides evidence from RCUK
in response to the main topics and questions identified in the
consultation document, in addition to supplementary views from:
Arts & Humanities Research Council
| Annex One |
Biotechnology and Biological Sciences Research Council |
Annex Two |
Council for the Central Laboratory of the Research Councils |
Annex Three |
Engineering and Physical Sciences Research Council |
Annex Four |
Economic and Social Research Council |
Annex Five |
Medical Research Council |
Annex Six |
Natural Environment Research Council | Annex Seven
|
Particle Physics and Astronomy Research Council |
Annex Eight |
Selected highlights of the impact of knowledge transferred from Research Councils' programmes:
DNA finger printing: early Research
Counicl support for Professor Sir Alec Jeffries at Leicester University,
which led to the development of genetic fingerprinting with its
subsequent impact on crime detection.
Satellite control: Software developed
to control space missions such as the Huygens probe to Titan has
underpinned multimillion pound commercial contracts for the company.
Bioprocessing: For the first time
in the world a new technique (developed at a Research Council's
centre), will significantly improve the speed to market of a therapeutic
protein by increasing the capacity of a crucial early stage step
by seven fold.
Terahertz Technology: Research Council
support for teraherz technology played a prominent part in the
creation of TeraView Ltd, the world's first company solely devoted
to the commercial exploitation of Terahertz light. TeraView has
pioneered many applications of Terahertz, eg cancer imaging, and
is constantly exploring new markets, such as drug discovery and
formulation and security screening. TeraView has opened up an
entirely new market segment in pharmaceuticalsthe online
inspection of tablets in a non-invasive manner not possible by
other means. In addition Thruvision, a Research Council spin out,
is aiming to become the leading commercial provider of compact
security screening equipment using terahertz imaging technology
and is generating substantial commercial interest with a range
of security products.
Health impacts: basic research funded
by the Councils has demonstrated the following major health impacts:
Established that smokers lose a decade of life compared
to non-smokers.
Showed that surgery for stroke can halve the risk
of a subsequent one.
Demonstrated that screening for abdominal aortic aneurysms
is cost-effective, saving over 3,000 lives after four years in
the 65-74 age group.
Showed that cholesterol-lowering drugs can reduce
the risks of heart attacks and strokes by at least one-third.
Antibody technology: research in antibody
engineering started in the mid 1970s and resulted in patents covering
a series of inventions during the late 1980s and early 1990s for
making "humanised" or fully human monoclonal antibodies.
These technologies have had a major impact on health and the economy,
with eleven therapeutic antibody products now on the market including
treatments for breast cancer, leukaemia, infant respiratory disease,
asthma, psoriasis, kidney transplant rejection and rheumatoid
arthritis
Economics: The World Bank uses research
funded by the Councils to advise Government's on R&D tax credit
schemes.
Better livestock transport: animal
welfare has been enhanced by determining the environmental features
required to minimise stress in animals during transport. These
findings have been incorporated into EU legislation.
Thames Barrier: providing the data
required to inform decisions on when to raise or lower the Thames
Barrier. The cost of getting this wrong would be £30 billion
and many human lives.
The arts: funding researchers who
co-curated of the National Gallery's successful Raphael exhibition.
Development of Lagan Weir: (one of
the largest civil engineering projects ever to be undertaken in
Northern Ireland): Model tests on the Lagan Weir using research
techniques developed through Research Council research, demonstrated
that Laganside could be developed without the risk of flooding.
This has led to riverside developments up to this date of over
£1,000 million.
ROLE OF
RESEARCH COUNCILS
IN DELIVERING
GOVERNMENT INNOVATION
OBJECTIVES
1. The Government's vision for science and innovation
is that the UK should be one of the most attractive locations
in the world for science and innovation, being a key knowledge
hub in the global economy, with a reputation not only for outstanding
scientific and technical discovery, but also a world leader at
turning that knowledge into new products and services.
2. Research outputs, training and sources of new knowledge
and technology are the raw materials which power successful innovation.
The Government recognises that substantial investments in basic
research are needed to generate this knowledge, partnered with
investment to strengthen links with business and drive innovation,
which will in turn increase UK productivity and attract more inward
investment into the UK. This is reflected in the DTI's Public
Service Agreement Targets for the Science Budget, which are:
Output 1: to maximise the impact of
the investment of the Science Budget on maintaining and improving
the UK's research base.
Output 2: to increase the contribution
made to improving exploitation of the research base to meet national
economic and public service objectives.
3. As well as support for research and training, each
Research Council also has a specific knowledge transfer responsibility
in their Missions. Whilst there are sector specific differences,
and additional responsibilities for CCLRC, ESRC and MRC, the basic
remit is to:
"advance knowledge and technology (including the promotion
and support of the exploitation of research outcomes), and provide
trained scientists and engineers, which have potential to contribute
to the economic competitiveness of Our United Kingdom and the
quality of life, through meeting the needs of users and beneficiaries
(specified industrial sectors)"
4. The Research Councils are committed to playing their
part in achieving the Government's objectives for innovation,
working with other key players including the private sector, HEIs,
RDAs and Government, to build on their successful track record
in supporting knowledge transfer.
THE RANGE
OF RESEARCH
COUNCILS' KNOWLEDGE
TRANSFER ACTIVITIES
5. Each of the Research Councils supports research and
training across a wide range of academic disciplines. There is
strength in the diversity of this system, with each Council providing
a strong focus for their research and user communities. Consequently
each Council has a varied and diverse set of stakeholders and
users, ranging from large multinational companies to SMEs and
from policy makers in Whitehall, the regions and in Europe to
the NHS, the Met Office and museums and galleries.
6. In developing their thinking about knowledge transfer
the Councils have agreed a shared definition of knowledge transfer:
"The UK Research Councils seek to accelerate the two-way
flow of people and ideas between the research environment and
wider economy, and thereby contribute to national prosperity,
the quality of life of UK citizens, and cultural enrichment of
our society. Knowledge Transfer encompasses the systems and processes
by which knowledge, expertise and skilled people transfer between
the research environment (universities, centres and institutes)
and its user communities in industry, commerce, public and service
sectors.
7. The Councils agreed to group these activities under
four non-exclusive headings and to develop their plans and targets
within them:
Co-operation in education and training at masters
and doctoral level.
People and knowledge flow.
Collaborative research with users.
Commercialisation including IP exploitation and
entrepreneurial activities".
8. In delivering their knowledge transfer responsibilities,
each Council has developed strategies, processes and approaches
which reflect the breadth of science and research supported, the
particular characteristics of each Council's user communities
and the size of the Research Council's budgets.
SUMMARY OF
RESEARCH COUNCILS'
SUPPORT FOR
KNOWLEDGE TRANSFER
User and stakeholder engagement
9. Each of the Councils has developed their knowledge
transfer strategies and approaches in consultation with their
major business and research user groups. User input is sought
and accessed through a wide range of mechanisms including:
business and user representation on each governing
Council;
business or user led high-level advisory groups
eg EPSRC's User Panel or BBSRC's Bioscience for Industry Panel;
business and user membership of Councils' peer
review colleges and peer review panels;
Concordat's with Government Departments;
regular dialogue with companies, CBI and trade
associations; and
seminars, workshops and conferences with user
groups.
10. Specific challenges exist in a number of sectors.
For example, the interplay between creativity and technology in
the creative industries requires different knowledge transfer
models than those of traditional manufacturing industries. The
AHRC is leading a Task Group on Research and Knowledge Transfer
within the Creative Industries/Higher Education Forum at the Department
of Culture, Media and Sport. This Group seeks to identify the
challenges and opportunities in knowledge transfer activities
for the creative industries sector. It has facilitated the formation
of strategic partnerships between the research base and creative
industries and has undertaken research to identify and define
appropriate models of knowledge transfer for the creative industries
and the arts and humanities research base. PPARC is different
again. As the areas of science it supports depend on advanced
technologies, PPARC places a strong emphasis on brokering relationships
with industrial sectors which act both as technology supplier
for research programmes, as well as a customer for knowledge transfer.
For example, in preparing for UK participation in the ESA Aurora
programme of Mars exploration, PPARC held a workshop on the technical
and industrial opportunities created by Aurora, and invited proposals
for early stage technology studies.
Collaborative R&D
11. All of the Research Councils support collaborative
R&D with a variety of users including business, charities
and Government Departments. Where appropriate this enables potential
end users of the research to shape the overall priorities and
direction of that research and helps to ensure that the research
base is responsive to the needs of the economy. As well as transferring
outcomes from basic research, such collaboration with business
helps to deliver new knowledge which may benefit future research
and helps companies innovate and may lead to further commercial
opportunities.
12. Individual Council collaborations include:
AHRC has established a strategic R&D collaboration
with BBC New Media. This collaboration brings arts and humanities
researchers together with BBC staff to address R&D needs in
the areas of mobile/portable interactive devices, passive consumption/active
engagement; user generated content and managing media assets.
BBSRC and EPSRC are co-funding a £10 million
research programme in Bioprocessing with 18 companies who are
contributing collectively £1 million. The aim is to address
strategically importance research problems which underpin the
efficient production of biopharmaceuticals which comprise over
one third of all new drugs in development.
EPSRC has established 17 Innovative Manufacturing
Research Centres (IMRCs) representing an investment of £80
million. IMRCs are expected to attract matched funding (mostly
in kind) from industry partners. The IMRCs currently collaborate
with over 1,000 companies, many of them SMEs. A recent review
found a high level of satisfaction for the IMRCs amongst industrial
collaborators, primarily because the significant levels of long-term
funding enable the development of more strategic relationships
and plans, and the ability of the IMRCs to respond quickly to
business needs.
MRC and BBSRC are co-funding, with the Funding
Councils and three pharmaceutical companies, a £12 million
initiative in Integrative Mammalian Biology. The aim is to enhance
research and training in the physiology and pharmacology of animals.
BBSRC has recently announced (September 2005)
a £11 million initiative in the area of Crop Products and
Processes to bring about more effective translation of research
on model species into crop plants. A further £1 million is
available for research in collaboration with industry, in particular,
with breeders of wheat, the most important UK crop.
EPSRC runs the "Ideas Factory" an approach
that brings together multidisciplinary teams of researchers and
users for a week long "Sand-pit" to address significant
business or societal challenges. Topics have included maintenance
and renewal of the buried infrastructure, gun crime, closing the
productivity gap and bridging the digital divide. Successful collaborative
ideas which emerge from the sandpits draw down from an earmarked
sum of £1 million.
EPSRC has developed a number of strategic partnerships
with companies and other organisations, to enable leading researchers
to focus on user led strategic requirements. One is example is
the £30 million strategic partnership between EPSRC and BAE
systems which supports long-term basic research in the aerospace
and defence sector.
The collaboration between the MRC Protein Phosphorylation
Unit and the University of Dundee's School of Life Sciences is
£21.5 million collaboration with seven companies including
GSK, AstraZenca and Pfizer. The research being funded is aimed
at speeding up drug development for major diseases including diabetes
and some cancers and has created 20 new scientific posts.
13. Research Council institutes also undertake a substantial
volume of contract research in partnership with Government, industry
and a range of other users which help to build collaborations
between the private and public sectors. For example:
CCLRC's Space Science and Technology Department
(SSTD) has 80 contracts running with industry, to the value of
around £6 million this financial year. This includes substantial
contracts to supply instrumentation for satellites into industry,
a leading example being a multi-million dollar contract from Lockheed
for a NASA satellite.
The British Geological Survey (BGS) is one of
the organisations involved in monitoring and modelling the distribution
of injected CO2 in the Utsira Sand. The Statoil Sleipner project
was the world's first demonstration of carbon dioxide capture
and underground storage. It is of great interest to the international
community because if the concept can be applied to power stations
it holds out the promise of making deep cuts in global CO2 emissionswithout
having to abandon fossil fuels. The monitoring BGS is undertaking
is to check that the CO2 is behaving as predicted and is not migrating
out of the intended storage site. This type of demonstration will
do much to satisfy future legal verification requirements and
allay public concerns about safety issues.
Centre for Ecology and Hydrology (CEH) scientists
and partners completed the biggest experiment of its kind in the
world, designed to test the effects of growing Genetically Modified
herbicide tolerant crops on biodiversity. The findings of this
research are shaping Government policy in the UK and in Europe
on decisions over commercialisation of a number of crops, and
ensuring that other stakeholders, including UK industry are well
informed. Scientific research of this kind is essential, particularly
given the contentious nature of the debate on Genetically Modified
Organisms (GMOs).
CCLRC commercial interactions include partnership
with Intel to benchmark their processors on a broad spectrum of
scientific applications and with AMD to explore life science applications
of their hardware. Most recently the CSED have partnered AstraZeneca
in a £300K three year contract to undertake high performance
computing simulations for drug formulation.
14. The Councils currently invest £40 million in
the 24 Faraday partnerships. These are alliances of organisations
and institutions, which can include research and technology organisations,
universities, professional institutes, Trade Associations and
companies. Each Faraday Partnership focuses on a technology of
importance to the UK dedicated to improving the competitiveness
of a specific business sector through more effective interaction
between the research base and the industry. The original 24 Partnerships
include more than 300 university teams and 2,500 companies. Faraday
partnerships are now being developed by the DTI into the Knowledge
Transfer Networks scheme as part of the Technology Programme.
The first RC engagement in KTN sponsorship has just been announced.
15. The majority of Councils are, or have been co-funders
of LINK programmes, the Government's principle mechanism for supporting
collaborative research between UK industry and the research base,
prior to the establishment of the Technology Programme. Each LINK
partnership is an alliance of organisations from academia and
business, and more specifically technology translatorspeople
with broad experience of technology transfer who can facilitate
projects between partner members. Examples include:
The Ocean Margins LINK programme, co-funded by
NERC, is designed to focus the research challenges facing the
industry in exploring for, and developing deep-water oil fields.
The Advanced Food Manufacturing programme, co-funded
by BBSRC and EPSRC, is exploring advanced manufacturing techniques
for the food industry, to allow greater process flexibility and
reduced energy use and waste generation.
EPSRC co-funded the Waste Minimisation through
Recycling, Re-use & Recovery programme. This funded research
into the recycling and re-use of materials within processes and
plant and recovery of products and components in a wide range
of processing and manufacturing sectors.
16. The Research Councils have voluntarily contributed
to the Government's Small Business Research Initiative (SBRI)
targets. Following an announcement in the 2005 Budget, the Research
Councils will promote a Small Business Research scheme (similar
to, but distinct from, SBRI). The Councils are committed to spending
at least 2.5% of a baseline of £815 million in 2005-06 on
university-SME collaborations. Allocations have been, and will
continue to be, made throughout the year with Councils advertising
funding opportunities on their individual web sites.
17. On a smaller scale, Councils also wish to encourage
industry awareness and partnership in responsive mode grants.
BBSRC have introduced an Industrial Partnership Award (IPA) scheme,
through which all research proposals that have obtained a10% cash
contribution from industry will be funded provided they reach
a quality threshold.
Cooperative training and education
18. Nearly all the Research Councils run a CASE PhD studentship
scheme and offer other targeted user-relevant training. Collectively
the Research Councils fund some 10,000 PhD students, of whom approximately
25% move into the private sector upon completion of their PhD.
This proportion varies by discipline, for example 48% of all PPARC
students take employment in the private sector, including the
City, major industrial companies and small IT companies.
19. Of the PhD students supported by the Councils, some
3,000 students are being trained collaboratively with industry
through the CASE studentship scheme involving over 500 companies
and users ranging from Reebok UK to BP to County Councils. The
well-established CASE studentship scheme provides PhD students
with training in both an academic and commercial or user environment.
A number of Councils are also working with the RDAs to help bring
these training opportunities to the attention of SMEs.
20. The Councils also support specific training initiatives
such as the Biotechnology Young Entrepreneurs Scheme, which provides
training in commercialisation for postgraduate and postdoctoral
bioscientists. Research has shown that graduates participating
in this scheme are twice as likely to take employment in the private
sector as their peers, and a number have already launched their
own companies.
PEOPLE AND
KNOWLEDGE FLOW
21. Individuals are at the heart of knowledge transfer.
All of the Councils aim to encourage increased levels of university
business interaction and all support the exchange of researchers
between academia and industry and broker partnerships between
business and researchers. For example all fund industry fellowship
(or equivalent) schemes which enable academics to undertake research
in a business environment and which allow private sector researchers
to undertake research or course development work in a university.
22. The Research Councils fund and promote Knowledge
Transfer Partnerships (KTP) to enable collaborative partnerships
between the research base and industry, particularly small and
medium sized technology companies. Under the scheme high calibre
graduates and postgraduates are recruited to work on innovative
projects within industry and are jointly supervised by the participating
industrial and academic partners. The industrial partner gains
access to the latest technology and research developments, whilst
the academic partner benefits from working with business on real
problems and the researcher develops greater business awareness.
AHRC is developing a shorter, more flexible precursor KTP aimed
at small and medium sized businesses and micro enterprises.
23. Research Councils play an important role in providing
knowledge to inform policy development. This is particularly important
in the economic and social sciences where ESRC has strategic partnerships
with ten government departments and all three devolved administrations.
It is also an important component of the activities of BBSRC and
NERC in providing advice on the environment and agriculture to
underpin government policy. For example, the work of the BBSRC
Institute of Animal Health on FMD impacted government policy on
handling the foot and mouth disease outbreak. NERC is leading
the field in farm scale evaluation of GM crops. The arts and humanities
too make a fundamental contribution to key areas of public policy
and wider public understanding. Through enhancing our understanding
of ourselves and our world, the impact is felt in areas of public
policy as diverse as law, ethics, media and communications, ethnicity
and cultural diversity, language and language technologies, and
creativity and innovation. For example AHRC is taking the lead
on a new cross-Council initiative, the focus of which will be
upon the theoretical and empirical knowledge of societies, cultures
and identities based on ethics, religious, historical, linguistic
factors and other socio-economic indicators such as demographics.
By taking this approach, AHRC is ensuring that the causes of terrorism
are addressed by taking account of a broad spectrum of factors,
and that technology is appropriately harnessed to combat and respond
to it.
24. Following SR2004 OST will be providing the Research
Councils with additional funding of £20 million from 2006-07
to enable them to strengthen their delivery of their knowledge
transfer activities. Of the £20 million, £5 million
is earmarked for Councils to increase their knowledge transfer
(KT) capacity. This is being matched with equivalent funding to
the RDAs.
25. Specific Research Council activities aimed at promoting
knowledge flow include:
PPARC runs the Knowledge, Innovation, Technology
and Enterprise (KITE) Club which is an active programme of brokering
and networking to increase the awareness of industry and other
users and the academic community of each other's strengths, needs
and opportunities. This takes place through a programme of visits
and workshops and supports an innovation advisory service to broker
partnerships between researchers and business. Other PPARC activities
include a workshop with BBSRC to link astronomers and biologists
which has led to a series of collaborative projects to transfer
imaging technologies into biological research.
AHRC is launching a new national Research Exchange
Network for arts and humanities researchers and knowledge transfer
professionals. The Network will offer opportunities to engage
and collaborate in the exchange of research knowledge within and
outside academia.
ESRC runs the CONNECT Club which facilitates social
and economic research findings directly to senior policy makers
in central and local government, business and financial sectors
and the voluntary sector amongst others.
Three BBSRC institutes provide bio incubator facilities,
which have been developed with support from the RDAs. The bio
incubator at the Babraham Institute has been particularly successful
with eighteen companies on site.
CCLRC is investing in campus development projects
at its laboratories at Harwell and at Daresbury, which will offer
new environments for collaborative research and people exchange.
Over £50 million has been invested at the Daresbury campus
by the NWDA creating 24,000 sq ft of laboratory space. To date,
seventeen high technology companies have been attracted to the
site with another four planned. A similar development is planned
at the Rutherford Appleton Laboratory at Harwell.
26. OST will be providing the Research Councils with
additional funding of £20 million from 2006-07 to enable
Councils to strengthen their delivery of their knowledge transfer
activities. Of the £20 million, £5 million is earmarked
for Councils to increase their knowledge transfer (KT) capacity.
This is being matched with equivalent funding to the RDAs.
Commercialisation
27. Research Councils delegate the responsibility for
the management and commercialisation of IP arising from the research
funded to the research organisation, usually an HEI. To encourage
universities to build entrepreneurial environment and undertake
the commercialisation of research, the Councils support an increasingly
wide ranging portfolio of activities, including IP awareness training
and enterprise fellowship schemes (eg BBSRC and PPARC in co-operation
with the Royal Society of Edinburgh, fund Enterprise Fellowships
which provide salary and training for individual academics whilst
they commercialise work originally supported by the Research Councils).
28. BBSRC, EPSRC, NERC and PPARC invest in the "Follow
on Fund" which provides funds to enable researchers to demonstrate
the commercial potential of ideas arising from research supported
by these Councils. Proof-of-concept funding allows scientists
the often small amounts of funding needed to demonstrate the commercial
potential of their ideas. For example MRC development gap-funded
work led directly to a substantial collaboration between the MRC
Laboratory for Molecular Biology and Pfizer on G-protein receptors,
an important class of drug targets.
29. Once commercial potential has been demonstrated,
Research Councils can help scientists to develop robust business
plans through the cross-Council Business Plan Competition. This
helps UK based researchers to develop their ideas for commercialising
research outputs by providing training and mentoring in the development
of business plans and entrepreneurial skills. There are examples
of many successful companies which have benefited from taking
part in the competition (Thruvision, Neurosolutions, Orla).
30. Those Research Councils with their own institutes
all have well established means for commercialising and exploiting
the research they fund:
BBSRC formally transfers ownership of IP to its
institutes through the conditions of its grants. This is in line
with government policy and the recommendations of the 1999 Baker
Report to Treasury. In order to encourage management of IP on
a portfolio basis, BBSRC has invested in an exploitation company,
PBL, to handle commercialisation across the four plants and microbial
science institutes. BBSRC's institutes hold 244 patents, have
spun out 13 companies and, over the last four years, have generated
exploitation income exceeding £7 million. Last year BBSRC
institutes were involved in over 200 industrial consultancies
involving some 160 separate companies. The Paracox vaccine, developed
at BBSRC's Institute of Animal Health to control parasites in
poultry, has now yielded over £1 million in royalty income.
CCLRC established Central Laboratory Innovation
and Knowledge Transfer (CLIK) Ltd in 2002 to professionally manage
the commercialisation of CCLRC's IP. To date CLIK has established
six spin-out companies in a wide range of market sectors including
medical diagnostics and industrial sensors. These companies have
already attracted approximately £6 million in external investment
and currently employ 30 people. In addition, CCLRC's Computational
Science and Engineering Department (CSED) is developing its commercial
interests with the establishment of Daresbury Analytical Computing
Services (DAComS) the commercial brand through which it promotes
the commercial exploitation of CSED facilities and software.
Evolutec was spun-out in 1998 to develop some
biopharmaceutical discoveries made by NERC scientists. The development
of the company's platform technology has been based upon the characterisation
of proteins found in tick and other parasite saliva. These proteins
have great potential for medicine as they have evolved over time
to have very specific responses to a host's inflammatory response.
Over-reactions by the immune system, such as certain autoimmune
diseases and allergies, are possible therapeutic targets for the
proteins identified by the company. Evolutec was listed on AIM
in August 2004 with a capitalisation of £12.7 million.
The MRC exploitation company, MRCT, generated
exploitation income of over £20 million in 2004-05 (equivalent
to 9% of research expenditure in MRC institutes and units, which
is more than three times the proportion achieved overall by US
universities). In 2005 MRC received £112 million from a deal
with Abbott to allow them to use MRC-protected technology for
making humanised monoclonal antibodies to produce a drug, HUMIRA,
for the treatment of rheumatoid arthritis. Two of the largest
UK biotechnology companies, Celltech and Cambridge Antibody Technology,
originated as start-ups based on MRC technologies, and fifteen
other start-up companies have been formed which, excluding Celltech,
employ 1,135 staff).
NERC employs a number of "exploitation scouts"
to identify and develop early-stage commercial opportunities and
has put in place a partnership with ISIS Innovation, one of the
UK's leading university technology transfer organisations, to
manage IP arising from four of their main institutes. NERC also
provides its researchers with access to an innovation fund to
help bring commercial opportunities to a point where they can
be successfully licensed or attract external finance to establish
joint ventures or spinout companies. The Innovation Fund enables
researchers to obtain funds for the very earliest stages of a
new business opportunity, supporting, for example, obtaining a
patent or buying advice on market size. A successful example of
commercialisation is Evolutec, a spin out company set up in 1998
to develop therapeutic products based on the characterisation
of proteins found in tick and other parasite saliva, which could
be used to treat certain autoimmune diseases and allergies. Evolutec
was listed on AIM in August 2004 with a capitalisation of £12.7
million.
31. Following the Baker Report in 1999, OST established
a PSRE fund, which provides funding to enable Public Sector Research
Establishments (PSREs) to develop their capacity to exploit their
science and technology potential and to provide seed funding to
support the very early stages of business formation from ideas
emerging out of research. The Research Councils are eligible to
apply to this fund and several have been successful in their bids:
PPARC is using its PSRE3 award of £893,000,
together with funds awarded under previous rounds, to promote
inward knowledge transfer from CERN (the European Laboratory for
Particle Physics), ESA (the European Space Agency) and ESO (the
European Southern Observatory) for the benefit of UK industry.
Two of NERC's Marine Centres have won significant
funding. The National Centre for Ocean Forecasting, based at the
Met Office, has been awarded £568,000 to further research
into forecasting the weather in the oceans. The Sea Mammal Research
Unit (SMRU) at the University of St Andrews won £381,000
to develop new commercial applications for scientific instruments
used to track marine animals and to provide scientific services
to the marine industry.
BBSRC and its institutes were successful in being
associated with over 50% by value of projects funded. The Rainbow
Seed Fund secured £2.5 million to increase the value of the
fund to over £8 million. The Fund provides seed financing
to help the development of ideas originating in partner organisations
to be commercial concepts. Ideas backed by the fund over the last
year by the fund have included new and cheaper techniques to diagnose
breast cancer and a platform for drug development. The Norwich-based
IP management and technology transfer company, PBLin which
BBSRC is a major shareholderhas been awarded £1.9
million to fund market research costs, marketing costs, support
a technology development fund and promote innovation activities
across four BBSRC-sponsored institutes. Genecom is led by the
Roslin Institute, and also covers research at the Institute for
Animal Health and the Moredun Institute.
IMPACT OF
RESEARCH COUNCILS
SUPPORT FOR
KNOWLEDGE TRANSFER
AND PERFORMANCE
MANAGEMENT
32. Working together in cross Council collaboration,
sharing knowledge and best practice, each of the Research Councils
has published a delivery plan for the period 2005-06 to 2007-08,
together with an agreed set of metrics which will be used to assess
progress against the two PSA output measures. The metrics for
output2 "to increase the contribution made to improving exploitation
of the research base to meet national economic and public service
objectives" were published in May 2005. Links to each Council's
output framework can be found via delivery plans located through
the RCUK website at http://www.rcuk.ac.uk/deliveryplan.asp.
33. Data against these metrics will be collected and
published annually. The first reports will be made in June 2006.
Research Councils have attempted to coordinate RCUK data with
HEBI. However the level of aggregation of the HEBI data is too
high to be of specific use to the Research Councils.
34. Each of the Councils also reviews their knowledge
transfer portfolios and various schemes as part of routine management
and evaluation.
35. Evaluating the impact of research on public policy
is more challenging and cannot be addressed with metrics. In addressing
this, AHRC for example is developing new approaches to impact
assessment through a variety of means, including the appointment
of Impact Fellowships.
36. In comparison with the US, UK HEIs generate more
spin-off companies than US universities per £million of research
expenditure. US universities form one spin-off for every £60
million of research expenditure compared with around £17
million per spin-off in the UK. The key role played by the Research
Councils is illustrated in a recent survey by the Royal Society
of Chemistry which showed that 85% of spin-outs from university
chemistry departments were based on Research Council funded work.
37. The Innovation Report recommended that Research Councils'
KT plans and goals for KT and innovation and their interactions
with business should be subject to business led external review.
The aims of this exercise are to:
provide Research Councils and OST with an independent
assessment of the strength and breadth of each Council's current
and planned KT portfolio;
establish a baseline for future assessments;
identify best practice and opportunities for improving
the effectiveness and efficient delivery of Research Council KT
activities (both individually and collectively); and
inform future spending reviews.
38. The review was held in December 2005. A panel of
10 users was assembled from across the Research Councils' user
base including business; information technology; the life sciences;
the creative industries; public sector; DTI; Regional Development
Agencies; and the Scottish Executive. Each Council submitted report
to the panel, setting out the role and responsibilities of the
Council, their strategy for, and funding and delivery of KT. A
team from each Council then met with the user panel to discuss
their KT portfolio. Partnerships UK is preparing the report which
will go to the Director General of the Research Councils and the
RCUK Executive Group. This is expected to the first in a bi-annual
business led review of Research Councils' knowledge transfer activity.
COORDINATION BETWEEN
THE RESEARCH
COUNCILS AND
THE ROLE
OF RCUK
39. Whilst having varied academic and user bases, the
eight Research Councils work together where appropriate across
a range of knowledge transfer activities, through the RCUK Knowledge
Transfer Group (KTG). KTG provides a focal point for sharing information
and good practice on knowledge transfer and a hub for collective
dialogue with external organisations, including the DTI, the RDA
Research Innovation Science and Technology (RIST) Group, PRAXIS
and the Scottish Intermediate Technology Institutes (ITIs).
40. Through KTG the Councils have actively explored opportunities
for cooperation arising from their long term programmes and their
new plans developed in response to the Innovation report. Examples
of joint programmes include the Business Plan Competition, Follow-on-Fund,
Enterprise Fellowships, KTPs and KTNs. RCUK also coordinates the
presentation of the RC programmes to external stakeholders, including
the production of the brochure "Material World: Knowledge
Economy" showcasing the Councils knowledge transfer portfolio.
Attendance at key events is coordinated to ensure an effective
RCUK presence.
41. The Research Councils are represented collectively
on the Government's Technology Strategy Board (by the Chief Executive
of EPSRC), and on a number of official level DTI lead operational
groups. All Councils have benefited from the Research Council
secondment to the DTI (2005) in terms of "joined up"
communication. The Chair of the TSB also meets collectively with
all Council Chief Executives twice a year. The Councils' have
also developed good links with the CBI, working collectively with
their Inter-Company Academic Research Group (ICARG).
42. The Research Councils are actively engaged in the
Government's Technology Programme, and participating in working
groups identifying technology priorities and supporting projects
from the subsequent calls as follows:
April 2004 (EPSRC): Electronics and displays
(EPSRC); Environmentally friendly transport (EPSRC); Inter enterprise
computing (EPSRC); Materials and structures (EPSRC); Renewable
technologies (EPSRC); Sensors and control systems (EPSRC);
November 2004 (EPSRC): Design, Modelling
& Simulation (EPSRC); Pervasive Computing, including Networks
& Sensors (EPSRC); Imaging Technologies (EPSRC); "Smart"
Materials; Bio-based Industrial Products (EPSRC & BBSRC);
Opto-electronic & Disruptive Electronics (EPSRC); Waste Management
& Minimisation (EPSRC); Renewable Energy Technologies (EPSRC)
April 2005 (EPSRC): Advanced Materials
(EPSRC & PPARC); Advanced ManufacturingDirect Write
(EPSRC); Emerging Energy Technologies (EPSRC); Next Generation
Lasers in Manufacturing (EPSRC); Biopharma Bioprocessing (BBSRC
& EPSRC)
Funding decisions for the November 2005
Competition are being considered but Research Council interest
in the following technology priorities:
Regenerative Medicine (BBSRC/EPSRC/MRC);
EnergyLow carbon/Oil and Gas (EPSRC);
Data and Content (EPSRC);
Power Electronics (EPSRC);
Waste Minimisation /Resource Efficiency (EPSRC);
To date, EPSRC has committed approximately £8.5
million funding towards 17 projects. EPSRC plans to commit up
to £10 million pa from 2005-06 across technology areas and
BBSRC has earmarked £2 million for the November 2005 and
April 2006 competitions.
43. The Councils have also developed a joint peer review
process with the DTI which makes it easier for organisations seeking
co-funding, and which enables applicants to use the Councils'
Joint Electronic Submission System.
44. The Research Councils have participated in the launch
events for each of the Technology Programme calls, the Technology
Strategy Stakeholders Information event and the DTI's regional
road shows, aimed at stimulating business interest in the programme.
45. An important area of current RC/DTI engagement is
in the identification of emergent areas of technology or emerging
industry sectors that have the potential to become growth sectors
of the future. The aim is to identify areas with potential (either
from existing Research Council programmes such as Basic Technology
or from discussions with the academic and user communities) where
the community is not at a sufficiently advanced stage to seek
funding through the Technology Programme, or where there is potential
for research to translate across other sectors. Such areas could
be developed further through small scale activities designed to
build up a community and stimulate new business-academic collaborations.
For example support for mini-networks, short feasibility studies
or sandpits in a similar manner to the Ideas Factory.
February 2006
Annex 1: Arts and Humanities Research
Council (AHRC)
RESEARCH COUNCIL SUPPORT FOR KNOWLEDGE TRANSFER
AHRC'S DEFINITION
OF KNOWLEDGE
TRANSFER
1. To exploit fully the new knowledge and learning that
is generated in higher education institutions (HEIs), it has to
be applied to areas of life where it can make a difference. This
is the broad definition of knowledge transfer (KT) that the AHRC
has adopted as the foundation for its KT strategy. This definition
provides a good fit with the AHRC's mission and it also enables
the challenges of the innovation agenda to be met as it:
encompasses business interactions, which are of
importance to the arts and humanities research base, within a
broader concept of knowledge engagement;
encompasses KT which has a business and economic
focus, whilst capturing knowledge interaction with other audiences,
including the public and voluntary sectors. It allows, for example,
knowledge interaction with the museums and galleries and heritage
sectors to be captured, as well as research that informs public
policy and the enhancement of civil society;
includes high-quality KT content for the print,
film, digital and broadcasting media which is derived from arts
and humanities research, as well as promoting the experience of
the outcomes of this research through contemporary exhibitions
and performances. The broader definition thus encompasses public
engagement and understanding.
AN EVOLVING
KT STRATEGY
2. The AHRC was established in April 2005. A predecessor
body, the Arts and Humanities Research Board (AHRB) was in operation
from 1998-2005. The AHRB was funded by the UK Higher Education
Funding Councils and did not have a remit, or funds, to support
and develop KT in the arts and humanities. It was only in the
run-up to achieving Research Council status that attention turned
to developing an AHRC KT Plan and bidding for associated funding.
2005 was the first time that dedicated KT funding become available
and payments in the KT programmes in 2005-06 are forecast at £2,524,000
rising to £5,877,000 in 2007-08an increase of 133%
(see Table One below).
3. The AHRC's 10-year vision is to be recognised as the
premier, innovative supporter of knowledge transfer in the arts
and humanities. To achieve this ambitious goal AHRC's KT strategy
includes specific plans for engagement with the creative industries
and the museums and galleries sectors, plus generic strategies.
STRATEGIES TO
SUPPORT KT AND
THE CREATIVE
INDUSTRIES
4. The UK creative industries (CIs) are a real success
story. They are one of the economy's fastest growing sectors contributing
over £53 billion to the UK in 2002, accounting for 8% of
GDP and growing at an average of 6% between 1997 and 2002double
the rate of the economy as a whole. They encompass areas as diverse
as design and music, computer games and animation, film and new
media, intelligent textiles and fashion. The potential is there
for the UK to become a world-class player, indeed computer games
and new media are already recognised as such. The knowledge that
these industries depend upon for their growth is multi-dimensional
and not driven purely by technology; much of their vitality rests
on the bringing together of the creative and performing arts,
cutting-edge technologies, and innovative forms of business organisation.
5. The interplay between creativity and technology in
these industries requires business models that are quite different
from those of traditional manufacturing industries. Conventional
models of knowledge transfer do not map readily onto the CIs and
it seems to be the case that the character of research and the
structure of these industries require new models to be developed
and facilitated.
6. The AHRC is tackling this issue by leading a Task
Group on Research and Knowledge Transfer that sits within the
Creative Industries/Higher Education Forum at the Department of
Culture, Media and Sport. This Group, chaired by the Council's
Chief Executive, is now in its second and final year of a work
programme that seeks to identify both the challenges and opportunities
in research and development (R&D) activities for the CIs sector.
It has enabled strategic partnerships to be formed between the
research base and the CIs, so as to determine the requirements
of the CIs and facilitate sustainable communication between industry
and the HE sector. The Group has also undertaken research to identify
and define appropriate models of KT for the CIs and the arts and
humanities research base. The objective is to determine what works
and what does not through identifying good practice and barriers
to KT for different CI sub-sectors.
7. Additionally, the Group has identified potential barriers
for the sector within the existing innovation support framework
in the UK. Notably, it is addressing the anomaly that Government
defines R&D for tax purposes as follows: "R&D for
tax purposes takes place when a project seeks to achieve an advance
in science or technology . . . Work in the arts, humanities and
social sciences, including economics, is not science for the purposes
of these guidelines."[2]
This sits at odds with the KT remit of the AHRC, and in turn discourages
businesses in the CIs from drawing on the full potential of the
UK research base. The R&D and innovation needs of the CIs
go beyond the application of new technologies, requiring the development
of new content, narrative and understanding of user interfaces
for example. The CIs sector is forced to absorb the full cost
of such R&D activities at present, and that reduces its ability
to innovate and compete in a global market. Challenging outdated
concepts of R&D, and recommending alternatives, sits at the
heart of the AHRC's KT ambitions.
8. The achievements of the Task Group in its first year
of operation include:
the broadening of the overarching criteria for
Knowledge Transfer Partnerships (paragraph 14 refers) following
recommendations from the Task Group to DTI to improve access for
the CIs to the scheme;
the delivery of workshops and seminars in collaboration
with non-academic partners to bring stakeholders from CIs, HE
and government together;
the development of sustainable relationships with
industry, KT intermediaries, HEIs, RDAs and DAs, government departments
and international agencies to disseminate models and case studies
of good practice in KT;
the initiation of innovative collaborative R&D
partnerships between AHRC and non-academic partners as part of
the development and implementation of the Collaborative R&D
Fund (Annex A refers). One such partnership, for example, is a
new strategic collaborative R&D engagement between AHRC and
BBC New Media.
The work of the Task Group will conclude in summer 2006 when
the Group will make its recommendations to government, AHRC and
other stakeholders.
STRATEGIES TO
SUPPORT KT AND
THE MUSEUMS
AND GALLERIES
SECTOR
9. The major UK museums are world-leaders and make a
vital contribution to the nation's cultural, educational, social
and economic life. They preserve and make available to the public
collections unsurpassed in range and quality in the rest of the
world. Museums in England alone attract over 77 million visits
a year, and the economic impact of the UK museums sector is estimated
to be at least £2 billion a year.
10. Museums also constitute a critical part of the research
base for a wide range of subjects. Research in museums themselves,
and research in the HE sector which flows into museums, are of
crucial importance in enabling them to present and interpret their
collections to visitors, through publications, and online. Research
also underpins museums' work in education and learning, in inspiring
creativity and innovation; attracting tourists to the UK and supporting
the tourist industry; contributing to social inclusion, and promoting
economic and social regeneration; and generating social capital,
civic, community and national pride, and good citizenship.
11. But there has been up to now no organisation whose
role it has been to support research of this kind. The AHRC is
set to perform this role, having created a funding programme that
will establish the first-ever integrated strategy for the direct
support of research in museums. Our investment will ensure that
UK museums remain world leaders. It will also enhance, through
exhibition and display, communication to a variety of audiences
of the latest advances in understanding arising from recent research
and scholarship.
12. The programme is already underway with a call for
research workshops, announced in October 2005, with the aim of
forming partnerships between specialists in museums, galleries,
libraries and archives, and their colleagues in universities.
These research workshops will provide an opportunity to discuss
major arts and humanities research themes, and to focus more directly
on the work of museums and galleries. The strategy as a whole
will be further informed through consultation with both the museum
and higher education sectors but as the programme is rolled out
over the next three years, it is likely to include support for:
research to underpin permanent and temporary exhibitions and displays;
research in conservation and preservation; the establishment of
networks across the museum and higher education sectors in areas
such as fashion, history of science, archaeology, or photography;
cross-sectoral exchanges and secondments; capacity-building via
the funding of postgraduates in order to increase the supply of
people with appropriate expertise; and research that informs us
how visitors engage with the objects and displays they see, and
what they learn from them, thus improving our understanding of
these matters, the quality of museum displays, and strategies
to enhance the impact of museums.
GENERIC STRATEGIES
TO SUPPORT
KT
Co-operative education and training
13. In 2005 the AHRC made its first awards under a new
Collaborative Doctoral Awards scheme (akin to CASE awards) to
promote partnerships and research collaboration between HEIs and
non-academic partners. The scheme has proved to be of interest
to businesses in the creative industries, media and design companies,
libraries, museums, galleries, heritage organisations, and health
trusts for example. A budget of £500,000 per annum is available
for this scheme.
Supporting people and the knowledge flow
14. The AHRC plans to support individuals in KT as follows:
In September 2005 the Council became a sponsor
of the DTI's Knowledge Transfer Partnership (KTP) scheme. Our
funding remit for the scheme encompasses the whole breadth of
the arts and humanities research base and deliberately seeks to
support knowledge transfer, as opposed to the more restrictive,
traditional term of technology transfer. The community has already
embraced this challenge and high-quality applications have started
to flow with business partners ranging from music publishers to
fashion retailers. The Council has set aside £350,000 per
annum for sponsorship of KTPs.
AHRC plans to produce an annual publication to
show case KTPs in its subject domain, both to act as an exemplar
of good practice, raise awareness of the scheme and to lever more
exchange between the research base and the public and private
sectors.
KTPs can be a large step for a micro-enterprise
engaging with a HEI for the first time (which is a typical descriptor
of a company in the creative industries). In recognition of this
there is scope for a precursor-type KTP scheme of a shorter duration
that requires less financial investment on the part of the company.
Some HEIs have experience of running their own funded schemes
of this kind and report that they act as a successful stepping-stone
to further, sustained engagement with the research base. The AHRC
plans to establish a precursor type KTP scheme to draw SMEs into
engagement with the arts and humanities research base. Consultation
will commence early in 2006, so that applications can be received
before the end of 2006.
Stimulating mobility between HEIs and other sectors
is another means by which the AHRC proposes to facilitate KT.
The plan is to initially pilot such a secondment scheme in the
museums and galleries sector as part of the AHRC's developing
strategy in that area.
In December 2005 a proposal will be put to the
AHRC's Council to support a new scheme called "KT Leave".
The AHRC already runs a highly successful Research Leave scheme
which is unique amongst the Research Councils; it provides three
or four months of salary costs to relieve an academic of all teaching
and administrative duties, and this period of leave is matched
by the HEI, in order to enable the academic to compete a piece
of research. The KT Leave scheme, with a proposed budget of £1.5
million per annum, would fund 80% of the full economic costs of
an individual for between one and three years (but typically one)
so that they could pursue KT activities. We would not be prescriptive
about the activities that could be funded, but they might for
example include:
(a) working-up for wider dissemination existing resources
based on research, such as video or web-based materials (in drama
or dance, for example);
(b) preparation of web-based virtual models/accounts
of sites of archaeological or historical interest as an aid to
actual or remote access to those sites;
(c) preparation of web-based virtual models of exhibitions
and performances;
(d) the preparation of teaching materials (web-based
or textual) for undergraduate or school use;
(e) the provision of periods of leave for academics
to work in academic or non-academic settings in relation to a
particular knowledge transfer purpose.
In each case applicants would have to demonstrate their high
academic standing and that the work in question would represent
the dissemination of cutting-edge, top quality research. Provided
that the Council approves the outline of this scheme, we intend
to consult on its specification early in 2006, so that applications
can be received in the autumn of that year.
Building relationships with user communities
15. The AHRC's KT strategy seeks to ensure that research
in the arts and humanities engages with and informs as wide a
range of "users" as appropriate. To this end activities
include the introduction of a pilot dissemination scheme in 2004
with the aim of stimulating researchers to convey their research
findings to wider audiences than those envisaged at the start
of the project. Awards of £5,000 are available to our research
grant holders to engage in this type of dissemination, which includes
the commercialization of outcomes. The pilot scheme will be reviewed
at the end of 2005 and is likely to be re-branded to raise awareness
of the opportunities it offers and to include within it targeted
funding in support of commercial dissemination.
16. The arts and humanities make a fundamental contribution
to key areas of public policy and wider public understanding.
Through enhancing our understanding of ourselves and our world,
the impact is felt in areas of public policy as diverse as law,
ethics, media and communications, ethnicity and cultural diversity,
language and language technologies, and creativity and innovation.
Metrics are too blunt a tool to capture such impacts and for that
reason the AHRC is developing new approaches to impact assessment
through a variety of means, including the appointment of Impact
Fellowships. One of the three-year Fellowships, for example, is
seeking to improve the quality and reliability of data about the
impact of KT activities between the arts and humanities and the
CIs. The major output of this project will be an intervention
into developing debates about the nature of KT in the arts and
humanities within the context of the CIs and an associated framework
of indicators to measure activity and capture impact. This is
important as KT interactions with the CIs are poorly captured
by standard surveys, and this under-reporting results in the value
of these exchanges being diluted.
Promoting entrepreneurship and the commercialisation of research
17. The AHRC promotes entrepreneurship and supports the
commercialisation of research in a number of ways, including:
In 2006 the AHRC will create a National Research
and Business Development Network for both academics in the arts
and humanities and staff in HEIs who provide KT support for them.
The virtual Network will assist information flows between the
AHRC and HEIs and amongst HEIs. In this way HEIs can help shape
AHRC's KT strategy and good practice can be shared. A Network
Manager has been appointed to start in November 2005.
Co-funding the joint Research Councils' Business
Plan competition. The AHRC made a financial contribution to the
last Business Plan competition that secured entry to it for the
arts and humanities research base for the first time. This community
was very responsive to the challenge of the competition, submitting
32% of all the expressions of interest that were received and
constituting 20% of all those invited to participate in the next
stage of the competition. Five plans were short-listed, with four
of the finalists being from either EPSRC or MRC's research community
and the other from our community.
The introduction of a Collaborative Doctoral Awards
scheme (paragraph 13 refers).
Table One
FORECAST KT PROGRAMME PAYMENTS
Activity |
2005-06 |
2006-07 |
2007-08 |
Postgraduate Collaborative Doctoral Awards |
£395,000 |
£1,066,000 |
£1,929,000 |
Dissemination Scheme | £100,000
| £100,000 | £100,000
|
Sponsorship of DTI's KTP Programme | £350,000
| £350,000 | £350,000
|
"Stepping-stone" KTP scheme | £0
| £208,000 | £250,000
|
Museums and Galleries Research Programme |
£0 | £250,000 | £1,000,000
|
R&D Collaborative Fund | £0
| £300,000 | £625,000
|
KT Research Leave Scheme | £1,500,000
| £1,500,000 | £1,500,000
|
RCUK Business Plan Competition | £25,000
| £25,000 | £0 |
Impact Fellowships | £154,000
| £195,000 | £123,000
|
Total | £2,524,000 |
£3,994,000 | £5,877,000
|
Total planned expenditure on research | £36,658,100
| £49,347,800 | £59,500,300
|
| |
| |
Annex 2: Biotechnology and Biological
Sciences Research Council (BBSRC)
SUPPORT FOR KNOWLEDGE TRANSFER
BACKGROUND
1. BBSRC's budget in 2004-05 was £312 million. Of
this over 50% was spent on research grants and initiatives to
universities, with some 30% of total funding going to eight (soon
to be seven) BBSRC institutes. Support for studentships and fellowships
amounted to some 11% of budget. Available metrics show that the
UK bioscience research base is very strong internationally. BBSRC
recognises that there are major opportunities for the UK to derive
economic and social benefit from our world-class bioscience research
base and in order for this to be realised, it is essential that
knowledge be effectively transferred from the laboratory to potential
users of that knowledge.
2. In broad terms, research and training activities supported
by BBSRC in universities are more relevant to the needs of the
pharmaceutical, biotechnology and chemical sectors. These industries
are R&D-intensive and interact substantially with the science
base. The programmes of BBSRC institutes focus on agriculture,
environment, agrochemical, plant and animal breeding, and food,
with one institute (Babraham) moving more towards biomedical.
In general users in these sectors are less R&D-intensive,
where transfer of best practice is important as well as providing
evidence-based policy for government departments. The BBSRC approach
to knowledge transfer (KT) endeavours to recognise the needs and
characteristics of the various sectors.
3. BBSRC delegates responsibility for the management
and commercialisation of IP arising from the research it supports
to the research generator. For the eight BBSRC-sponsored institutes,
ownership of IP is formally transferred to the institutes through
the conditions of grant. This is in line with government policy
and the recommendations of the 1999 Baker Report to the Treasury.
Recent studies by the National Audit Office recognise substantial
progress has been made by BBSRC institutes in encouraging commercialisation
of research outputs.
4. Whilst details of BBSRC's support for knowledge transfer
are set out in the following paragraphs, the following headlines
are drawn to the Committee's attention:
the pharmaceuticals industry is one of the biggest
investors in R&D in the UK, and the UK biotechnology sector
is second only to the USA. These sectors benefit substantially
from access to high quality research and manpower supported by
the Research Councils;
BBSRC has pioneered a number of novel approaches
to encourage commercialisation and collaboration with industry,
including Young Entrepreneurs Scheme (1996), Business Plan Competition
(1999), Follow-on Fund (2004) and Industry Interchange Programme
(2005);
BBSRC is significantly increasing its support
whereby, in 2007-08, funding for collaborative R&D will double
to £8 million p.a., support for industry partnerships increase
to £4.5 million p.a., and support for KT through a range
of mechanisms increase to £4.9 million p.a. In addition we
will spend some £9 million pa on 600 CASE studentships and
BBSRC Institutes will receive over £12 million p.a. income
from contracts and collaborations with industry;
16 university departments substantially funded
by BBSRC have spun-out 42 companies;
particularly successful university spin-outs arising
from BBSRC-supported research include Oxford Biomedica (LSE-listed),
Inpharmatica, Biotica and NeuroSolutions. The latter company was
established following its successful participation in the 2001
Business Plan Competition and is highly successful with extensive
contracts with pharmaceutical companies;
in the period 2000-04, BBSRC institutes won research
income exceeding £60 million from industry and £14 million
from research charities;
BBSRC institutes hold 244 patents, have spun-out
13 companies and, since 2001, exploitation income has exceeded
£7 million;
last year BBSRC institutes were involved in 200
industrial consultancies involving some 160 separate companies;
the Paracox vaccine, developed at BBSRC's Institute
of Animal Health to control parasites in poultry, has now yielded
over £1 million in royalty income; and
societal impacts are also evident, ranging from
early support for Professor Sir Alec Jeffries at Leicester University,
which led on to DNA fingerprinting with its subsequent impact
on crime detection, through analysis of the FMD virus which impacted
government policy on handling the foot and mouth disease outbreak,
to pioneering cloning studies at BBSRC's Roslin Institute, which
opens up potentially enormous health benefits through therapeutic
applications of stem cells.
BBSRC APPROACH TO
PROMOTING COLLABORATION
AND KT
5. BBSRC aims to optimise the process through which research
leads to benefit for the economy and society providing support
mechanisms for BBSRC-funded scientists in both universities or
institutes at key stages in the commercialisation process. Our
approach is described in subsequent paragraphs under four broad
areas: Collaboration in Research; Collaboration in Education and
Training; Networking through People and Knowledge Flow; Commercialisation.
BBSRC's recent Delivery Plan has set ambitious targets for enhancing
activity in these areas where targets for 2007-08 are highlighted
in bold in the sections below.
Collaboration in Research
6. In 2003-04 BBSRC supported some £12 million of
collaborative research grants, primarily through the LINK mechanism,
involving 55 companies. BBSRC plans by 2007-08 to double its support
for collaborative R&D, where significant progress is already
being made:
A BBSRC Technology Strategy has been developed,
following consultation with industry, identifying eight priority
areas where science activity needs to be enhanced to meet industrial
need over the next 10 years. We will seek to fund collaborative
activity in these priority areas, where progress is already being
made in:
Integrative Mammalian Biology: the
aim here is to reinvigorate research and training involving the
physiology and pharmacology of whole animals. This £12 million
initiative is led by BBSRC and co-funded by MRC and industry (£2
million each) and the Funding Councils (£6 million). Applications
are currently being assessed;
Bioprocessing: bioindustry can benefit
from innovative research into the more effective production and
separation of biopharmaceuticals. BBSRC has been in the lead in
developing the Bioprocessing Research Industry Club (BRIC) with
EPSRC, where eighteen companies are involved contributing £1
million to a £10 million initiative. Calls for proposals
were issued in October 2005;
Crop Products and Processes: there
is much to be gained from more effective translation of research
on model species into crop plants. BBSRC announced a £11
million initiative in this area in September where, to encourage
collaboration with industry, and particularly with breeders of
wheat, the most important UK crop, a further £1 million is
available for research in collaboration with industry.
BBSRC will work with the DTI in the development
of a national Technology Strategy. BBSRC has agreed to partner
with DTI in calls for collaborative R&D proposals in Industrial
Bioproducts (November 2004), Biopharmaceutical Bioprocessing (April
2005) and Regenerative Medicine (November 2005); and
There is much benefit in encouraging industry
awareness and partnership in responsive mode grants submitted
to BBSRC. Therefore we have introduced an Industrial Partnership
Award (IPA) scheme, through which all research proposals that
have obtained a 10% cash contribution from industry will be funded
provided they reach a quality threshold. It is intended that by
2007-08 BBSRC will increase four-fold support for IPAs.
Collaboration in Education and Training
7. At any one time BBSRC supports over 2,000 PhD students,
of which some 30% are in collaboration with industry through CASE
awards. We recognise that trained manpower moving into industry
is a key component of knowledge transfer, where current figures
show 21% of BBSRC-funded postgraduates moving into industry immediately
upon completion of their PhD. We have responded to industry pressures
by:
enhancing stipends in shortage areas such as in
vivo physiology;
introducing an Industrial CASE scheme in which
companies apply for the awards. By 2007-08 we plan to increase
numbers of Industrial CASE Awards by 30% to 120 awards per annum.
We are working with RDAs to enlist their support in bringing opportunities
to the attention of SMEs in their area; and
pump-priming short courses with the aim of providing
update training in new and emerging areas for scientists in industry.
Over the past three years, 37 modules have been funded and, given
the success of the scheme, we are planning to increase funding
by 40% to £280,000 per annum by 2007-08.
Networking through People and Knowledge Flow
8. It is frequently said that the best form of knowledge
transfer is on the hoof and we are therefore keen to encourage
interaction between the science base and industry with a view
to creating permeable boundaries that enable the exchange of people
and ideas. Particular activities include:
in the past Faraday Partnerships (FP) have been
effective in encouraging dialogue between academic and industrial
researchers in particular sectors. For the future DTI is now developing
a similar concept of Knowledge Transfer Networks (KTNs). BBSRC
is playing an active role in interacting with these and will respond
to collaborative research proposals or Industrial CASE projects
emerging from these networks; and
we have supported the movement of scientists between
academe and industry, and vice versa, through sponsorship of the
Royal Society Industry Fellowships (IF) scheme. However we wish
to encourage further interchange to facilitate access to facilities
or to acquire new skills, where interchanges of even relatively
short duration can be of benefit in meeting strategic needs and
providing a base for longer-term partnerships. In September 2005
BBSRC therefore launched an Industry Interchange Programme (IIP)
to encourage such strategic partnering. Providing good proposals
are forthcoming, we plan to support at least 10 awards by 2007-08.
Commercialisation
9. We have developed a pipeline of activities to support
the commercialisation of BBSRC science. We recognise that there
are other players in this space, principally university technology
transfer offices and RDAs, and look to work with these wherever
appropriate. Activities include:
we are keen to enhance awareness of intellectual
property amongst successive generations of BBSRC-supported postgraduate
students and postdoctorals. We therefore co-fund, with local technology
transfer offices, IP awareness events. In 2003-04 we were involved
with 22 such courses in which 890 bioscientists participated.
For 2007-08 we plan to sponsor 30 courses reaching 1,200 individuals;
the Biotechnology Young Entrepreneurs Scheme (YES)
is aimed at enhancing the commercial awareness of bioscientists
at the postgraduate and postdoctoral level. BBSRC launched this
scheme in 1996 and now operate it in conjunction with MRC and
NERC. At its tenth anniversary, this scheme has proved highly
successful, where a recent review highlighted many examples of
the scheme influencing the career paths of participants, including
the launching of their own start-up companies. For 2007-08 we
intend to expand participation by 20%, reaching out to 180 young
bioscientists per annum;
the aim of the Follow-on Fund is to provide proof-of-concept
funding, at around the £60,000 level, to allow the commercial
potential of ideas generated through BBSRC grant funding to be
further explored. This scheme was launched in 2004 with EPSRC
and NERC as partners. In that year we awarded grants of value
£600k. We now plan to provide proof-of-concept funding of
at least £1 million per annum;
the Bioscience Business Plan Competition was initiated
by BBSRC in 1999 and now is run as a cross-Council competition.
BBSRC will continue to support this scheme as long as the need
continues;
we launched an Enterprise Fellowships Scheme in
early 2005, in collaboration with the Royal Society of Edinburgh,
to provide scientists with a potentially commercialisable idea
the time and skills to move forward their idea. In May 2005 we
awarded the first four fellowships. We plan to support at least
10 such fellows by 2007-08;
for many universities access to Seed Funds now
exists at a local or regional level. For our own institutes, BBSRC
has become a partner of the Rainbow Fund, providing support for
up to £250,000 for start-ups arising from our institutes;
for a fledgling company, the nurturing environment
of a bioincubator providing access to skills and facilities can
be highly important. Three BBSRC institutes provide bioincubator
facilities, where the bioincubator at the Babraham Institute has
been particularly successful with eighteen companies on site.
Furthermore, a new biodevelopment building, offering grow-on accommodation
to expanding bioventures, was opened in 2005 and is now fully
occupied; and
BBSRC has assisted small bioscience companies
to expand their research capabilities. Over the past four years
33 SBRI awards have been made to 28 SMEs totalling £6.9 million.
BBSRC INSTITUTES AND
KT
10. The role of BBSRC institutes in KT merits further
explanation:
the BBSRC institutes are significant in size with
annual revenues ranging from £9-31 million, with BBSRC funding
generally below 50%. In line with advice to the Treasury contained
in the 1999 Baker Report, BBSRC delegates responsibility for KT
management to its institutes. Nevertheless, in order to encourage
management of IP on a portfolio basis, BBSRC has invested in an
exploitation company, PBL, to handle commercialisation across
the four plant and microbial science institutes;
BBSRC reviews the performance of its institutes
through a formal knowledge transfer assessment exercise every
four years. In addition progress on KT matters is reported annually
to Council and is a fixture of six-monthly "Business Plan"
meetings;
in 2004 OST operated a PSRE Fund through which
public sector research establishments were invited to bid for
resources to enhance their KT activities. Whilst competition was
strong, BBSRC and its institutes were successful in being associated
with over 50% by value of projects funded; and
BBSRC institutes primarily pursue work relevant
to agriculture and food where they play a substantial role in
the development of evidence-based policy for government departments,
particularly Defra and the FSA. In addition, a key part of knowledge
transfer activity for these institutes is the work they do to
demonstrate and achieve implementation of best practice.
STAKEHOLDER ENGAGEMENT
AND COMMUNICATION
11. BBSRC Council and its advisory Boards, Committees
and Panels are constituted by individuals from a wide range of
backgrounds, with over 20% drawn from user communities, including
experts from the pharma, biotech, chemicals, food and agriculture
sectors. To help us develop and implement our policy relating
to business interaction and knowledge transfer, we are guided
by a Bioscience for Industry Panel comprising industrial representatives,
KT and finance professionals, together with representation from
RDAs and DTI. To improve the quality of our decision making, and
to help foster public trust in science outcomes, Council is advised
via its Bioscience for Society Panel. This includes social scientists,
bioethicists and individuals from a range of NGOs. We use the
media, public meetings and exhibitions, publications, and interactions
with schools to promote awareness of advances in bioscience and
their applications.
12. BBSRC developed its Ten-Year Vision and Strategic
Plan through a series of discussions with stakeholders. We routinely
use a variety of mechanisms to engage stakeholders with new research
opportunities and developments. The outcomes enable scientists
and end-users to reflect on, and respond to, public aspirations
and concerns that might impact on future commercialisation and
uptake of new technologies. Examples of activities include: the
UK's first Consensus Conference, on plant biotechnology, in 1994;
and more recently, discussion meetings, consultations and attitude
surveys on future directions in crop science, livestock genomics,
and research on diet and health. We are also contributing to public
engagement on energy research and on nanotechnology.
13. We are in frequent discussions with trade associations
such as ABPI, BIA and FDS. BBSRC staff regularly visit companies
and contribute to conferences and meetings, including those arranged
by CBI.
RESULTS AND
PERFORMANCE MANAGEMENT
14. In 2005 BBSRC, together with the other Research Councils,
produced a Delivery Plan covering the period to 2007-08. A Performance
Management Framework has been agreed with OST, where we report
progress against a scorecard on a quarterly basis.
15. Evaluation of the outputs from BBSRC programmes is
routine where, for example, for research activity, we have a rolling
series of portfolio and initiative reviews ensuring that we are
able to benchmark and evaluate not only the scientific output
of BBSRC-supported research, but also outputs impinging on society
and the economy. We also collect a comprehensive set of exploitation
metrics from our institutes and leading university bioscience
departments.
16. We regularly review the effectiveness of our KT initiatives,
where recent examples include:
in autumn 2005 we carried out a career tracking
study of "graduates" of our Young Entrepreneurs Scheme.
This revealed that most had substantially benefited from the training
given and where "graduates" were twice as likely to
obtain subsequent employment in industry as their peers, with
significant numbers either working in SMEs or even starting-up
their own companies; and
a review of the 30 teams benefiting from mentoring
in the first two Business Plan Competitions revealed that 10 had
gone on to raise, within two years of participation, over £2
million of risk capital.
Annex 3: Council for the Central Laboratory
of the Research Councils (CCLRC)
RESEARCH COUNCIL SUPPORT FOR KNOWLEDGE TRANSFER
EXECUTIVE SUMMARY
The CCLRC's unique scientific heritage, science facilities,
underpinning technologies and wide base of academic users provide
an exceptional environment for Knowledge Transfer (KT). For the
CCLRC, KT encompasses the systems and processes by which knowledge,
expertise and skilled people transfer between the CCLRC's research
programmes and industry contributing to the creation of wealth
in the UK.
These activities include:
Exploitation: exploiting intellectual
property owned by the CCLRC through licensing, spin-out companies
or direct sales.
Wider access to CCLRC large research facilities: actively
marketing the research capabilities of the CCLRC's major research
facilities to business.
Leveraging knowledge through training: developing
a future capability in Education and Training to leverage the
potential of CCLRC skills and knowledge for the wider economy.
Campus Development: establishing technologically
diverse and vibrant mixed-economy communities obtaining clear
commercial advantage from their co-location with the CCLRC.
INTRODUCTION
1. The CCLRC is one of Europe's largest multidisciplinary
research organisations operating the Rutherford Appleton Laboratory
(RAL) in Oxfordshire, the Daresbury Laboratory (DL) in Cheshire
and the Chilbolton Observatory in Hampshire. The CCLRC manages
fundamental research facilities in neutron scattering, high power
lasers and synchrotron radiation alongside broad science and technology
programmes ranging from space science and high power computing
to particle physics and advanced instrumentation. These facilities
and programmes are operated on behalf of the UK's academic community
and sister Research Councils (RC). The CCLRC differs significantly
from RCs who operate major programmes of research grant funding
and postgraduate training.
2. The large facilities operated by the CCLRC are ISIS,
the world's leading pulsed neutron and muon source, the Central
Laser Facility, the worlds most intense academic laser facility,
and the Synchrotron Radiation Source, a world class facility dedicated
to the exploitation of synchrotron radiation for fundamental and
applied research. The CCLRC's core competencies include the engineering
and instrumentation programmes that underpin its facilities and
research programmesthe CCLRC "makes science happen".
3. Complementing its in-house capabilities the CCLRC
also manages the UK interests in the Institut Laue Langevin and
the European Synchrotron Radiation Facility in Grenoble. On behalf
of the UK government, the CCLRC is also the main shareholder in
Diamond Light Source Ltd.
COLLABORATION BETWEEN
RESEARCHERS AND
PARTNERS IN
INDUSTRY, INCLUDING
THE CREATIVE
INDUSTRIES AND
SMES
4. In 2004-05 the CCLRC collaborated with 1,600 higher
education institutes, government research bodies, industries and
other organizations. Through these interactions CCLRC knowledge
and expertise is transferred through collaborative research, the
supply and use of research facilities or services, the co-development
of CCLRC facilities or technology, or in the provision of training
by CCLRC staff.
The following examples illustrate how the CCLRC's knowledge
and expertise is transferred to the private sector.
CCLRC facility access by industry
5. Industrial usage of CCLRC facilities can be direct,
through contracted research programmes, or more frequently is
indirect through UK academics working on collaborative research
programmes with the private sector.
6. An example of this is the usage of the ENGIN-X beamline
at ISIS which is a dedicated engineering facility optimized for
engineering strain and stress measurements in engineering components
such as turbine blades. Around 50% of the facility time on ENGIN-X
is used for industrial applications. Experimental collaboration
involving Rolls Royce, the University of Manchester and Imperial
College has resulted in neutron strain scanning forming an integral
part of the research programmes that underpin product development
at Rolls Royce.
7. Commercial access to the SRS and other materials characterisation
services at the Daresbury Laboratory are facilitated by Daresbury
Analytical Research Technology Services (DARTS). Through DARTS,
industry can apply the unique capabilities of synchrotron radiation,
and the skills of Daresbury's research scientists, to research
problems in a timely, cost-effective way. The SRS has worked for
22 private sector customers in the last two years, predominantly
from the pharmaceutical sectorfor example AstraZeneca,
GlaxoSmithKline, Avidex Ltd and Vertex Pharmaceuticals Ltd. The
most popular services have been protein crystallography and nanoparticle
size distribution measurements using small angle scattering.
Examples of departmental collaborations with industry
8. The CCLRC's Science and Engineering departments also
have strong links to industry. The Space Science and Technology
Department (SSTD) has 80 contracts running with industry, to the
value of around £6 million this financial year. This includes
substantial contracts to supply instrumentation for satellites
into industry, a leading example being a multi-$M contract from
Lockheed for a NASA satellite. The SSTD has also provided novel
space camera technology for the TopSat spacecraft designed to
demonstrate the capabilities of small satellites for high value
remote sensing missions. Built by Surrey Satellite Technology
Ltd, the mission is managed by QinetiQ Ltd using £12
million of funding from the British National Space Centre and
Ministry of Defence. In addition, the CCLRC provides telemetry
for the GIOVE-A mission, a pilot satellite for the Galileo project,
again built by Surrey Satellite Technology Ltd.
9. The Computational Science and Engineering Department
(CSED) are developing their commercial interests with the establishment
of Daresbury Analytical Computing Services (DAComS) the commercial
brand through which it promotes the commercial exploitation of
CSED facilities and software. Current examples of commercial interactions
include partnership with Intel to benchmark their processors on
a broad spectrum of scientific applications and with AMD to explore
life science applications of their hardware. Most recently the
CSED have partnered AstraZeneca in a £300K three year contract
to undertake high performance computing simulations for drug formulation.
Commercialisation
10. Central Laboratory Innovation and Knowledge Transfer
(CLIK) Ltd, was established in 2002 to professionally manage the
commercialisation of CCLRC Intellectual Property. To date CLIK
has established six spin-out companies in a wide range of market
sectors including medical diagnostics and industrial sensors.
These companies have already attracted approximately £6 million
in external investment and currently employ 30 people. ThruVision,
a recent spin-out company from the SSTD, is aiming to become the
leading commercial provider of compact security screening equipment
using terahertz imaging technology and is generating substantial
commercial interest with a range of security products. Thruvision
won the 2003-04 RCUK Business Plan Competition.
Collaboration with the creative sector
11. The 2 million Euro "Ancient Charm" project
supports scientists to develop new or combine existing research
techniques to investigate objects of cultural heritage. In this
project, ISIS has been used to generate 3D graphic animations
of bronze statues using neutron tomography. Other projects include
authenticity investigations of archaeological artefacts using
CCLRC facilities (ISIS and Synchrotron Radiation Source) to non-destructively
analyse archaeological objects to understand manufacturing techniques,
assess authenticity and develop conservation techniques.
Collaboration with SMEs
12. The CCLRC has strong links with UK high technology
SMEs in the product areas relevant to its technology needs. Key
examples include magnet design and construction (Tesla Engineering
Ltd), solid state imaging detectors (e2v, Applied Microengineering
Ltd), extreme sample environments, (Oxford Instruments), satellite
technology (Surrey Satellites Ltd), micro and nano fabrication
(Xfab, Nanosight Ltd), and micro electronics fabrication.
13. The CCLRC maintains strong links with companies that
have spun out of its technology programmes for example Qudos and
Oxsensis. Where such companies have strong synergies with CCLRC
technology, they co-locate onto CCLRC laboratory sites; four are
currently co-located.
STAKEHOLDER ENGAGEMENT
AND COMMUNICATION
14. The CCLRC sits at the centre of a complex matrix
of stakeholders that includes academia, the private sector, regional
and local government and other RCs. The following examples illustrate
how the CCLRC has engaged with this diverse set of stakeholders.
Private sector engagement
15. The CCLRC hosts industry days to engage with those
industry sectors that can utilise large facilities within their
R&D programmes or supply the high technology components required
for large facilities.
16. Certain industry days are clearly associated with
major procurement programmes for CCLRC facilities. Recent examples
include industry days for 4GLS (a next generation high intensity
light source) in 2004, ISIS Target Station two and the Diamond
Light Source in 2005. The 4GLS industry event, organised and sponsored
by the North West Development Agency (NWDA), attracted over 94
delegates representing 33 firms interested in the advanced technology
required to construct and the scientific exploitation of 4GLS.
In 2005, 100 visitors from a broad range of industrial sectors
attended the Diamond Light Source open day to understand the facility
and its potential to support private sector R&D.
Regional and local government engagementCampus development
projects
17. Over £50 million has been invested in the Daresbury
International Science and Technology Park by the NWDA creating
over 24,000 sq ft of laboratory. To date 17 high technology companies,
with strong synergies to the Daresbury science base, have been
attracted to the site with an additional four already planned.
At the RAL, the Minister for Science has confirmed that the Harwell
site will also be developed into an "International Science
and Technology Campus".
18. Proximity to CCLRC research facilities at the DL
and RAL, for academia in "research hotels" or the private
sector through campuses, are established routes to foster collaboration
and innovation. The CCLRC campus programmes for these laboratories
will be developed coherently and used as models of excellence
for innovation and public sector KT with the RDAs.
Academic engagement
19. The CCLRC has an active Education and Training programme
in which it engages with academia. The CCLRC is an active partner
in a local Centre of Vocational Excellence. In addition, the CCLRC
acts as an industrial partner in the Cooperative Awards in Science
and Engineering studentship scheme. A pilot "Graduate School"
to provide opportunities for research students and participants
from industry to attend work placements at CCLRC research facilities
is currently being established.
20. CCLRC departments engage extensively in the provision
of training courses, summer schools, visiting lecture programmes
and seminars in their specialist areas. The CCLRC collaborated
in training provisions with 92 different Universities during 2004-05,
for example around 25 SSTD staff regularly lecture in HEIs.
RESULTS AND
PERFORMANCE MANAGEMENT
21. The CCLRC, distinct within the RCs in its focus on
facility operation rather than grant funding and training, has
a unique role to play in delivering wider economic value from
the science budget. The contribution of the CCLRC to delivering
the KT agenda is broad encompassing its ambitions in training,
commercialisation, facility utilisation and campus development.
The results of this programme will be assessed through a combination
of the metrics established as part of the OST RC performance management
framework and case studies.
22. The metrics that the CCLRC has established in the
output two metrics framework"Better Exploitation",
as follows:
Interaction with business and public services
| 03/04 | 04/05
| 05/06 to date |
% of major CCLRC facility "beam-time" employed by
| 1% ISIS | 1% ISIS | 1% ISIS
|
private sector directly | 3% CLF
| | |
| 6% SRS |
| 1% SRS |
| | 1% SRS
| |
Number and income from direct private sector users of CCLRC facilities.
| 132
£1.1M | 204
£1.0M
| 232+
£1.0M+ |
% of major CCLRC facility "beam-time" employed by academic/private sector collaborations
Number of academic/private sector collaborations using CCLRC facilities
| Information not historically collected, new data gathering scheme in place with first
results expected in Summer 06.
|
Number of private sector businesses co-located on CCLRC campuses
| NA | NA | 21
|
Number of co-authored publications arising from academic institution/private sector collaboration using CCLRC facilities
| 45 | 80 | 65
|
Turnover and employee numbers for co-located private sector companies on CCLRC campuses
| NA | NA | £2.5M plus
significant V.C.
investment
52 staff
|
Collaborative research |
| | |
Number and value of collaborative private and public sector technology development projects
| 50
£2.54M | 45
£2.45M
| 100
£6.35M |
Commercialisation of research |
| | |
Number of start up companies established per year
| 3 | 3 | 1 |
Number of patent filings per year | 10
| 14 | 6 |
Commercial income (revenue/turnover) of start up companies
| 0 | £550K | Awaiting annual
accounts
|
Income arising from licensing and royalty based
agreements per year
| £40K | £48K |
£34K |
Cooperative training |
| | |
No. of CCLRC sponsored CASE award students |
Unknown | 15 | 12
|
| |
| |
KT expenditure
23. For clearly defined KT programmes the following table
presents an assessment of CCLRC's KT expenditure. Not included
in this assessment are the intangible costs associated with the
activities of the CCLRC's programmes and staff that contribute
to KT, for example, presentation at conferences, informal discussion
with facility users, co-authorship of papers etc. Such contributions
to the CCLRC's KT are believed to be significant and may represent
up to 10% of staff time.
CCLRC financial support for KT programmes/activities £K |
|
Direct KT staff time FTE |
|
2003/04 |
2004/05 |
2005/06 |
2003/04 |
2004/05 |
2005/06 |
Total |
2,000 |
2,000 |
2,300 |
20 |
19 |
22 |
Co-ordination between the Councils and the role of RCUK
24. The CCLRC's facilities and programmes are operated
on behalf of the UK's academic community and Research Councils.
Approximately 30% of the CCLRC's annual income of £155 million
is funded by PPARC, EPSRC, NERC, BBSRC and the MRC. Service Level
Agreements cover the main programmes commissioned by these Councils.
The history of the CCLRC as the central laboratory for the RC
positions the CCLRC as a key partner to collaborate with the RCs
in their programmes.
Examples of collaborative KT programmes with the other RCs include
25. The CCLRC and EPSRC are working together on several
High Performance Computing projects using HPCx. In collaboration
with the U.S. National Science Foundation, Grids from the UK and
USA were linked and supercomputing systems were simultaneously
used to carry out interactive simulations, for example, on DNA
modelling.
26. A collaboration including the CCLRC, the AHRC
Research Centre for Studies in Intellectual Property and Technology
Law and other University groups has established the Digital
Curation Centre to address challenges of digital preservation
and provide research, advice and support services to UK institutions.
Part funded by EPSRC, the Digital Curation Centre will provide
a national focus for R&D into curation issues and promote
expertise in the management of all research outputs in digital
format.
27. The CCLRC established, in 2003, the £1 million
Technology Partnerships Programme with SR02 funding to participate
in the cross-Council programmes on Stem Cells, Brain Science,
and Post Genomics and Proteomics. In collaboration with leading
medical or biological specialists this funding facilitates the
transfer of CCLRC micro fabrication, detector and micro-electronics
technologies to these disciplines.
Annex 4: Engineering and Physical Sciences
Research Council (EPSRC)
RESEARCH COUNCIL SUPPORT FOR KNOWLEDGE TRANSFER
INTRODUCTION AND
BACKGROUND
1. The EPSRC's 10 year vision for Knowledge Transfer
is "that the UK should be as equally renowned for knowledge
transfer and innovation as it is for research discovery".
This vision clearly matches the Government's long-term strategy
for improving the UK economy through investing more strongly in
its knowledge base and translating this knowledge more successfully
into innovation, as set out in the Science and Innovation Investment
Framework (July 04).
2. EPSRC encourages industrial collaboration in all the
activities it supports. Current expenditure promoting Knowledge
Transfer is estimated to be 40% of the total budget. This amounted
to approx. £200 million in 2004-05, broken down broadly into
collaborative research (£132 million), collaborative training
at postgraduate level (£61 million), and other activities
(£1 million). This level of expenditure is expected to continue
over the current spending review until 2007-08. For the years
2006-07 and 2007-08, EPSRC has been allocated an additional £2.968
million from the OST Knowledge Transfer (KT) Fund which will be
used to support specific activities to promote better exploitation
across the EPSRC portfolio.
3. Almost all aspects of EPSRC business have a Knowledge
Transfer (KT) aspect, thus most staff play a role. The Director
of the Research and Innovation Directorate holds prime responsibility
for KT activities across EPSRC. Teams and groups have specific
responsibilities for internal and external facing roles, including
membership of appropriate bodies of Research Councils UK (RCUK),
such as the Knowledge Transfer Group (KTG) and Research Directors
Group (RDG).
4. In consultation with our relevant strategic advisory
bodies and key stakeholders, we have reviewed and confirmed the
role which EPSRC should play within pathways to better exploitation.
This can be summarised as:
A primary role in enabling the generation of Intellectual
Property (new knowledge) in areas of national importance;
A significant role in Knowledge Transfer and encouraging
enhanced levels of business-university interaction (principally
in partnership with third parties);
A lesser role in the actual exploitation and commercialisation
(ie revenue generation) of research into new products, processes,
systems and services.
5. The global environment for the science base and business
is becoming increasingly competitive and dynamic. The UK must
retain its core strengths and values to remain attractive as a
place to undertake research and innovation. Key to achieving this
will be the development of a strong shared vision with business
and other collaborating sponsors and partners. We are also aware
that many universities are currently re-structuring in response
to this changing situation and the recognition that companies
will increasingly source knowledge which offers the best return
on a global basis. Against this background, the key challenges
for EPSRC are:
To maintain current levels of collaboration whilst
also promoting better quality interactions between business and
academia;
To strengthen our engagement with business and
reach out to a broader cross-section of companies. This should
result in increased business awareness and visibility for the
activities that EPSRC supports;
To stimulate enhanced user demand for research
and subsequent pull-through of research into business.
6. The ways in which EPSRC addresses these challenges
are set out in the following sections.
PROMOTING COLLABORATION
BETWEEN INDUSTRY
AND ACADEMIA
7. Many interactions between business and universities
funded by EPSRC have their origins in "point to point"
contacts between individual researchers and their colleagues in
companies, often SMEs, in which we have had no direct involvement.
Our role here is, nevertheless, to foster and maintain an environment
in which such collaborations are valued and supported. We also
recognise the need to work with intermediary organisations, such
as RDAs, DAs, Faraday Partnerships, who are able to reach companies
that we are unable to reach alone, and are pro-active in promoting
collaboration through a range of instruments as set out below.
Collaborative Research
8. EPSRC funds collaborative research through both responsive
mode and targeted strategic funding, where user collaboration
is often mandatory. Since 1994, the level of such collaborative
activity has increased 3-fold and currently stands at 43% (2004-05
spend). Examples of collaborative research supported:
Innovative Manufacturing Research Centres (IMRCs):
There are 17 IMRCs representing an EPSRC investment of £80
million. IMRCs are expected to attract matched funding (mostly
in kind) from industry partners. The IMRCs currently collaborate
with over 1,000 companies, many of them SMEs. A recent review
found a high level of satisfaction for the IMRCs amongst industrial
collaborators, primarily because the significant levels of long-term
funding enable the development of more strategic relationships
and plans, and allow the IMRCs to respond quickly to business
needs.
A software package developed at one of the IMRCs is being
used as a graphical tool to help designers work logically through
their designs and provide a simple means for them to record their
rationale. It has now been incorporated into the standard Product
Lifecyle management tool set of a leading global engineering company.
The National Technology Programme: EPSRC is a
key funding partner in the Technology Programme and has been working
with DTI on this activity since April 2004. EPSRC plans to commit
up to £10 million pa from 2005-06 to the academic component
of successful science to business projects. To date, we have committed
approx £8.5 million funding towards 17 projects.
Interdisciplinary Research Collaborations (IRC):
These large scale activities involve consortia of academics from
different disciplines and institutions in order to create a critical
mass of expertise able to work together to meet a common challenge.
The EQUATOR IRC involves eight universities and
the Royal College of Art in investigations of technical innovation
in digital and physical life. The consortium has worked in collaboration
with a number of small and large companies within the creative
industries to develop innovative approaches and products, which
are being widely adopted.
9. We recognise the need to respond and adapt funding
models to the needs of different sectors and research communities.
The following activities demonstrate new, flexible approaches:
Design in Technology Research: A pilot scheme
funded by EPSRC and the Design Council to support interaction
between designers and Engineering Advanced Fellows. The scheme
demonstrated how the involvement of designers in the early stages
of technology development can speed up the translation of technology
to the market-place. Six 3-month projects looking at highly innovative
and promising technologies were supported.
The Ideas Factory: This approach brings together
multidisciplinary teams of researchers and users for a week long
"Sand-pit" to address significant business or societal
challenges. Topics have included maintenance and renewal of the
buried infrastructure, gun crime, closing the productivity gap
and bridging the digital divide. Successful collaborative ideas
that emerge from the sand-pits draw down from an earmarked sum
of £1 million.
Collaboration in Postgraduate Training
10. We engage with universities, employers and other
stakeholders in order to understand issues from the supply and
demand sides of postgraduate training. We specifically encourage
the development and supervision of post-graduate training within
a business environment. Our aim is to help create a national workforce
within the engineering and physical sciences to drive discovery
and innovation and make the UK an attractive, and competitive,
knowledge and skills hub within the global economy.
Key features of our 10 year postgraduate training strategy
include:
Attracting sufficient numbers of high quality
students into postgraduate training in EPS to increase the attractiveness
of research careers in the UK;
Making postgraduate training more demand led and
responsive to user needs.
11. Current support for collaborative training is approx.
£60 million pa, largely provided through Collaborative Training
Accounts (CTAs). CTAs are distributed to selected universities
and account for about 40% of overall training provision. CTAs
offer substantial guaranteed funding to universities and encompass
all EPSRC schemes that link training to the workplace. The CTA
mechanism offers great flexibility allowing research organisations
to respond dynamically to the changing needs of industry.
CTAs provide businesses with:
Clear visibility of the skills training on offer
(especially for existing employees to re-enter education at masters
or doctoral level);
Single-point entry into individual universities;
The option of different length relationships;
The ability to leverage their financial input
with that of other public (including RDAs/DAs) and private sector
sponsors.
The CTA mechanism will be reviewed in 2007. Key
aspects of the review will include:
The extent to which individual CTAs have fostered
appropriate people flow in response to user needs;
Adoption of best practice approaches to working
with business.
A student from Newcastle University went on a Research Assistant
Industrial Secondment to an innovative company that supplies films
for speciality packaging, labelling, graphic arts and industrial
products to apply a statistical approach to its polypropylene
film production process. This process is now being managed more
effectively with additional improvements in quality and productivity.
He has subsequently been taken on by the company.
12. Examples of industrial collaboration on training:
Industrial CASE: Industrial CASE is a three and
a half year postgraduate award where the research is driven by
the industrial collaborators. Most Industrial CASE studentships
are supported through CTAs, but in addition to this companies
are now able to bid into a pool of studentships. This is operated
on a competitive basis with a particular focus on innovative SMEs.
The aim of the pool is to open the scheme up to a much wider range
of companies and provide a greater degree of flexibility in the
use of the awards. Intermediary organisations (eg RDAs, DAs, and
Faraday Partnerships) are encouraged to promote the opportunity
locally in order to reach companies not previously known to EPSRC.
Engineering Doctorate (EngD): The EngD is a work-based
alternative to the traditional PhD, where students (known as research
engineers) spend around three-quarters of their time working with
their collaborating company. Industry partners have a key role
in designing projects undertaken, in sponsorship and joint supervision.
People and Knowledge Flow
13. EPSRC believes that one of the most effective forms
of KT occurs through people movement.
Postgraduates: About one-third of all EPSRC research
students' projects involve formal collaboration with industry.
Around 50% of all EPSRC supported PhD students, and about 30%
of research assistants enter the private, government and other
public sectors. We are currently working with a number of Professional
Institutions to improve our understanding of career paths and
impact. CTAs enable postdoctoral research assistants to spend
up to one year within their collaborating companies to embed the
skills, knowledge and technology developed through the project
within the company.
Fellowships: The Industry Fellowships Scheme,
administered through The Royal Society, provides good opportunities
for two-way people flow between industry and academia. Of the
31 Industry Fellows in post over the past four years, 25 have
been within EPSRC's remit. 19 of the Fellows moved from academia
into industry, with the other 12 from industry to academia for
their Fellowship. We will be increasing our annual contributions
to the scheme from £200k pa to £250K pa from 1 April
2006 to 31 March 2009. We also co-fund a number of Post-Doctoral
Research Fellowships with the Royal Academy of Engineering, to
enable high quality engineers to quickly establish research careers.
A Professor from Newcastle University undertook a three year
part-time Industry Fellowship with a leading microchip manufacturing
company, where he was able to access a wider range of resources
and equipment not available at the university. The experience
has provided new technology for the company and further collaborative
research projects between the university and the company funded
by EPSRC.
Commercialisation
14. For the research and training activities we support,
responsibility for Intellectual Property (IP) is delegated to
the funded university. We expect universities to have suitable
mechanisms in place to ensure appropriate exploitation and take-up
of potentially commercial outcomes.
Start-ups: A previous survey showed that some
500 start-up companies had been formed in the past decade that
built on previous EPSRC funded research. Another survey, by the
Royal Society of Chemistry, reported that 85% of spin-out companies
from chemistry departments were based on technology arising from
EPSRC-funded research.
Novel research at Cambridge on molecular materials for possible
use as good semiconductor devices has led to the development of
two highly successful spin out companies, Cambridge Display technology
and Plastic Logic. The research group (under Professor Sir Richard
Friend) has also received world recognition of pushing science
boundaries through a review of their research in "Nature"
(March 2005). Various independent studies have predicted a potential
market size for flexible displays of $10-20 billion by ca 2010.
IP training: We run (currently through Oxford
Innovation) training courses on Intellectual Property for new
academics and research fellows. Industrialists play a key role
and are invited to present case studies.
Integrated Knowledge Centres (IKCs): We plan to
support two pilot "Integrated Knowledge Centres" (IKC)
in 06/07 and 07/08. IKCs will:
combine world class research with strong partnerships
with business;
be established in areas where the research field
is emergent and there are business with the capability to exploit
the resultant knowledge-base to create new market opportunities;
provide a university campus-based environment
to support the full, complex and multi-dimensional KT process;
have considerable flexibility to develop an effective
KT programme matched to the needs of business.
IKCs will engage in generating IP, Knowledge Transfer and
exploitation and, for the first time, our support will provide
some funding towards the costs of management of collaborative,
entrepreneurial and commercial services. EPSRC funding of £7m
over 5 years will be provided for each pilot. IKC teams will be
expected to secure additional funding from business and the RDAs/DAs
are likely to play a significant role.
Funding for commercialisation is also available
through the RCUK Follow-on Fund and Business Plan competitions
in which we take an active part.
STAKEHOLDER ENGAGEMENT
AND COMMUNICATION
15. EPSRC engages with business in a variety of ways,
many of which interplay with each other in order to build up a
rich set of interactions. We see opportunity to increase such
interactions across most of our operations, and to increase the
quality of those where the greatest benefits are likely to be.
Some examples of the types of current interactions with business
and other stakeholders are:
Policy making: Business is well represented on
the EPSRC Council, and its two advisory bodies, the Technical
Opportunities Panel and the User Panel (UP). The membership of
UP is almost entirely from business.
Strategic Advisory Teams (SATs): SATs provide
EPSRC programmes with advice on research and training and 30%
of all SAT members are from industry. We recognise the major importance
of taking account of public opinion in policy and strategy development.
In light of this a new Societal Issues Panel will be established
in 2006.
Peer Review: About 20% of the current EPSRC College
(2003-05) is made up of non-academics, 50% of whom (360 in total)
are from business. Individuals from business also make up about
10% of the members of peer review assessment panels.
16. EPSRC plays a proactive role in raising the appetite
of business for interactions with the science base. Examples of
how we are doing this:
Sector Work: This important EPSRC activity involves14
sector teams, comprising some 60 members of staff. The key aims
of sector work are to:
increase involvement of all users in EPSRCs longer-term
strategic thinking;
develop strategic partnerships between EPSRC and
users;
increase the general awareness of EPSRC amongst
the user community through wider communication and consultation;
stimulate academic-user collaboration on research
grants and training awards;
increase exploitation of research and training
outcomes and knowledge transfer;
build and sustain a better knowledge and understanding
of user needs within EPSRC.
Sector team members have undertaken a variety of "company
placements" with eg Thames Water, Smith and Nephew, IBM,
Rolls Royce, GSK, BNFL and Scottish Enterprise. Sector teams also
visit individual companies to raise their level of engagement
both with EPSRC and the academic base.
The Software, Media and Communications Sector represents a
significant part of our interactions with the businesses in the
creative industries, such as graphic design, computer games, music
technology, broadcasting and publishing.
Company Account Managers: To improve the EPSRC/industry
interface we will assign company account managers to key companies
that are keen to work with us.
Technology priorities: Recently, we developed
a set of sector relevant technology priorities as an initial step
towards producing a technology strategy. The technology strategy
will provide a framework for setting priorities, improve the effectiveness
of business-university research collaboration and optimise our
alignment with the national Technology Programme and other partners
and sponsors.
Strategic Alliances: We have developed a number
of strategic alliances with companies to develop better shared
understanding and greater levels of engagement. By October 2005,
EPSRC had 32 strategic alliances, some of which developed further
into formal funding partnerships, including strategic funding
partnerships with leading companies. We have also co-funded with
industry a number of "star recruits" in areas of identified
business or societal need where there is a current lack of expertise
within the UK academic base.
The virtual centre of excellence in Non-Destructive Evaluation
(established in April 2003) is a strategic partnership between
EPSRC and a consortium of companies. The centre has a core research
element of £1.5 million EPSRC funding for blue skies research
and a further £6 million over five years, of joint EPSRC/industry
funding for more strategic research.
Recent examples of "star recruits" include Chairs
in: "Castings research" (Rolls RoyceBirmingham
University); "Flight deck operation" (Civil Aviation
AuthorityCranfield University); and "Knowledge transfer"
(QinetiqImperial College).
17. EPSRC staff actively participate in relevant industry
bodies such as DTI Innovation and Growth Teams, Leadership Councils,
National Advisory Committees for Aerospace and Defence, Committees
of the Professional Institutions and other organisations, such
as ICARG of the CBI, and also RDA Science-Industry Councils.
18. The EPSRC website hosts a "Grants on the Web"
facility that allows anyone with access to the web to find information
on the research supported, classified by research topic, organisation,
programme, industrial sector or free text search. A number of
publications; "Newsline", "Spotlight" and
"Connect" provide the external community with regular
progress updates on funding opportunities, policy directions,
and case studies of the outcomes and impacts of successful research
and training activities.
RESULTS AND
PERFORMANCE MANAGEMENT
19. We have developed an internal performance and risk
management system using a balanced scorecard approach. The scorecard
contains all of the key performance indicators for EPSRC, including
those for knowledge transfer, and integrates them with the council's
strategies, risks and information on the resources available to
deliver. It is planned that the system will become operational
from 1 April 06.
20. As part of the performance and risk management system
we have established a set of performance metrics to monitor progress
against the PSA Output 2 target "Better Exploitation".
These were agreed with the RCUK Knowledge Transfer Group and approved
by OST. The broad headings against which performance will be measured
are:
Interaction with business and public services;
Collaborative Research;
Commercialisation of Research;
People Exchanges between the Science and Engineering
Base and Users.
Both the scale of the activity and quality of the activity
will be measured by the indicators used. As well as monitoring
current activities, the downstream outputs and impacts of our
investments will also be monitored and assessed.
21. Examples of how EPSRC is monitoring the success of
its investments:
Collaborator Survey: It is important that we understand
the value that companies get from collaborating on research and
training activities. We are currently developing plans for a pilot
survey to engage directly with industry partners to gauge levels
of collaborator satisfaction on the research grants that we support.
Timeline Case Studies: Timeline case studies are
being developed looking at how the outputs of previously funded
EPSRC research have been taken-up into industry. This will help
towards providing a qualitative measure of value for money of
the research supported.
SUMMARY
22. EPSRC has a strong and multifaceted Knowledge Transfer
portfolio. The levels of engagement and partnership with business
and other partners is high and significant, and in some cases
particularly deep through formalised strategic alliances and funding
partnerships. The current Delivery Plan 2005-06 to 2007-08, maintains
our commitment to a strong and vibrant Knowledge Transfer activity,
responsive to the needs to business and society in helping to
create the conditions for improving prosperity and quality of
life in the UK.
Annex 5: Economic and Social Research
Council (ESRC)
RESEARCH COUNCIL SUPPORT FOR KNOWLEDGE TRANSFER
EXECUTIVE SUMMARY
1. This paper explains the mission of the Economic and
Social Research Council (ESRC), its strategic drivers, and the
contribution that Knowledge Transfer makes to achieving the organisation's
mission.
2. A brief explanation is given of the establishment
of the small Knowledge Transfer Team following an internal reorganisation;
its staffing complement; and the resources it has been allocated.
3. The achievements of Knowledge Transfer are reported
in the context of the organisation's Knowledge Transfer Strategy
that was approved in April 2004. The strategic actions which have
yielded many positive outcomes since that date will be developed
and expanded, particularly after additional OST funding becomes
available from 1 April 2006.
4. Plans for the future are succinctly summarised using
the five headings shared by all Research Councils in the Output
2 framework.
ORGANISATIONAL CONTEXT
5. The ESRC's mission is to:
Promote and support, by any means, high quality
basic, strategic and applied research and related postgraduate
training in the social sciences.
Advance knowledge and provide trained social scientists
who meet the needs of users and beneficiaries, thereby contributing
to the economic competitiveness of the United Kingdom, the effectiveness
of public services and policy, and the quality of life.
Provide advice on, and disseminate knowledge and
promote public understanding of, the social sciences.
6. The ESRC conducted a major national consultation in
2004, within and beyond the social science community. This activity
followed the appointment of a new Chief Executive, Professor Ian
Diamond, and a significant internal reorganisation.
7. At that time the ESRC adopted four key drivers that
influence the way it operates: Research; Capacity; Engagement;
and Performance. Of these, Engagement is the most relevant to
Knowledge Transfer as it "emphasises the importance of promoting
social science and engaging in dialogue with stakeholders to apply
research to policy and practice and increase its relevance to
potential users".
8. Drawing on last year's consultation, the ESRC has
prepared a strategic plan in which one of its strategic objectives
is "to engage with stakeholders by a full range of knowledge
transfer and communication activities". The plan identifies
strategies and sets out goals that will be achieved by 2010.
9. The implementation of the ESRC's Knowledge Transfer
Strategy will contribute significantly to the achievements of
those goals.
KNOWLEDGE TRANSFER:
STAFFING AND
RESOURCES
10. The Knowledge Transfer Team was a new entity created
in the 2003 re-organisation, although it did not become operative
as a unit until 26 January 2004. The team is located within the
Communications and Information Directorate, alongside and interacting
with the Communications, Evaluation and E-Business teams.
11. There are 4.8 FTE staff (of whom 3.6 are policy managers,
and 1.2 support personnel). The Team also supports a 0.5 Research
Co-ordinator on behalf of the Local Authority Research Council
Initiative (LARCI) which provides policy and practice relevant
research from most Research Councils for application in over 400
local authorities.
12. Two further staff will be added from 1 April 2006.
13. In 2004-05 the Team's budget for knowledge transfer
activities was £300,000. This was increased to £620,000
in 2005-06. In addition, the ESRC made a contribution of £15,000
to LARCI in both years.
14. Media and public relations, some events, some publications
and the interactive portal are funded separately. In addition,
the ESRC's centres and programmes as well as grant holders have
a small percentage of their budget for communications, dissemination
and knowledge transfer activities. It is estimated that £1.5
million would be spent annually in this way.
15. It is also recognised that the teaching function
carried out by academics is an important means of knowledge transfer,
although it is not a focus of this paper.
16. All studentships have a knowledge transfer function,
but there are several schemes where this is particularly emphasised.
The ESRC currently allocates £2.7 million to CASE, and £831,000
to Knowledge Transfer Partnerships. £25,000 is allocated
to the Business Plan Competition and a similar amount for students
who spend three months during their doctorates in a placement
scheme operated in conjunction with the Parliamentary Office of
Science and Technology.
17. From 1 April 2006, the ESRC will receive about £147,000
for each of two years from the Research CouncilRegional
Development Agency Capacity Fund; and a total of £1.244 million
for the same period from the OST allocation.
IMPLEMENTING THE
ESRC'S KNOWLEDGE
TRANSFER STRATEGY
18. This section of the paper explains the context in
which the strategy was developed; its rationale; its implementation;
and achievements. It will evolve in response to changing circumstances'
but has an evidence base through stakeholder consultation and
engagement.
BACKGROUND
19. The ESRC has been influenced by several key reports:
Lambert Report on "business-university collaboration"
Innovation Report on "Competing in the Global
Economy".
Government's "Science and innovation investment
framework 2004-14"
20. ESRC accepts the imperatives for Research Councils
set out in these reports to increase:
Rate of knowledge transfer
Interaction with business
Amount of collaborative research
The ESRC's stakeholder engagement consultations
and surveys.
DEFINITION
21. For the ESRC we regard knowledge transfer "as
involving processes of translation and transformation where there
is an interdependence between knowledge and practice (including
but not limited to business processes, technological development,
policy development and implementation, and the delivery of services)
that occur in organisational and institutional settings in which
social networks are important".
22. Consequently the ESRC places an emphasis on facilitating
and mediating processes that allow new knowledge to be generated,
interpreted and utilised in a range of social and economic settings.
THE ESRC KNOWLEDGE
TRANSFER STRATEGY
23. Following consultation, the ESRC's Knowledge Transfer
Strategy was approval by Council in April 2004. The full document
sets out: Context; Definition; Vision; Values; Mission Statement;
Strategic Delivery Actions; Specific Actions; and Challenges.
24. In this paper the focus is on the achievement of
the Strategic Delivery Actions, each of which is considered in
turn.
ENGAGING ACTIVELY
WITH ESRC'S
KEY STAKEHOLDERS
25. Rationale: Our stakeholders form vital strategic
alliances with the ESRC as generators, interpreters, consumers,
disseminators, funders or stimuli of new knowledge through research
and its application. Our stakeholders include those in the public,
private, community and voluntary sectors as well as those in academic
institutions.
26. Achievements: We have transformed informal links
with several Government departments into strategic partnerships
with 10 Government departments; all three devolved administrations
in Northern Ireland, Scotland and Wales; and the National Council
for Voluntary Organisations (NCVO).
27. Formalised annual meetings are held at which each
partner's organisational context is reviewed; relevant research
identified and foreshadowed; past agreed actions reviewed; and
future collaborative actions identified. Ongoing dialogue is maintained.
28. Outcomes include:
Jointly-funded studentships
Public policy seminars (for which the Government
agency is invited to identify a topical policy which is addressed
at a seminar by selected researchers and a publication prepared
by a science writer).
29. Topics have included: School leaving age influences;
Road Pricing; Obesity; Demographic changes in Scotland; Productivity;
Corporate governance; Poverty and income distribution in Northern
Ireland:
Research methods workshop
Research brokering to identify expertise
Distribution of research findings
30. We have engaged with the business sector by:
contributing to the research councilCBI
led consortiumICARG
sponsored students on knowledge transfer schemes
to work on projects in business or undertake research in these
organisations
engaged in bi-lateral discussions with several
large corporations to identify and apply research that is relevant
sponsored seminars and workshops for business
sectors eg insurance; financial services; health; banking
organised seminars on economic trends or work
futures that provide a context in which businesses operate
held discussions with businesses on dataset and
other research resource requirements
31. We have strengthened relations with regional authorities
by:
Co-organising a national conference on "Regional
Policy" with the Association of Regional Observatories
Co-organising a national conference on "Skills"
with the ARO
Organised a seminar on "Regional Funding"
that drew on Treasury and DTI input
Contributing directly to events organised by RDAs
32. We have provided the support and base for the establishment
of a 0.5 Research Coordinator who draws on the resources of most
Research Councils to respond to the policy needs of local authorities
through LARCI for which the principal sponsors are the ESRC and
the Local Government Association. Four seminars have been held,
including Transport, Ageing, and Education, a quarterly newsletter
produced, and a website managed as well as providing a brokering
service for local authorities.
33. We have signed a formal concordat agreement with
NCVO as a key umbrella organisation for community and voluntary
organisations. A new research programme has been launched, Non-Governmental
Public Action, and award holders introduced to how to engage in
knowledge transfer activities. A public policy seminar was held
at NCVO on "Charitable Giving and Donor Motivation".
34. In addition to the ESRC's consultation survey among
its stakeholders which argued for more responsive mode funding
and greater user engagement, the Knowledge Transfer and Communications
Teams combined to conduct a survey among stakeholders that asked
them their perceptions of the services provided. The findings
of this survey have generated a management plan for future engagement
activities.
MANAGING KNOWLEDGE
TRANSFER SCHEMES
35. Rationale: These schemes make a significant contribution
to three key elements of ESRC's Strategic Frameworkthey
generate new research, they help build capacity and they epitomise
engagement as they prompt interaction among multiple institutions.
36. We have actively promoted these schemes. For example,
by initiating a publicity campaign applications for CASE awards
increased by over 50% and the number of awardees increased from
70 to 85 in 2005. For example, the number of Knowledge Transfer
Partnership applications exceeds the funding available.
37. We contribute actively to the Knowledge Transfer
Partnerships Management Board and have used this setting to develop
co-sponsored arrangements to increase the number of Associates
in social science activities. ESRC served on the judging panel
for the KTP annual awards.
38. We have contributed staffing and financial resources
to the cross-Research Council Business Plan Competition.
ORGANISING KNOWLEDGE
TRANSFER EVENTS
AND PROCESSES
39. Rationale: To respond to the reality that people
learn in different formats and at varying stages, we organise
a variety of processes and activities that facilitate interactions
between researchers, practitioners; policy makers and other users.
40. We have organised public policy seminars, conferences,
workshops, colloquiaIn addition to those identified in
the section on "Engaging with stakeholders', "Making
the Connections: Governing in Partnership for Sustainable CommunitiesWales
Approach to Public Sector Reform"; and "The Commission
for Africa and the G8: Towards a New Policy for Tertiary Education
and Capacity Development in Africa."
41. ESRC has established an interactive portal that allows
those who use it to access a wide variety of research findings,
identify expertise, and engage in discussions on-line.
42. We co-sponsored and helped organise a national conference
on "Social Policy and Social Care" that drew international
and UK researchers, policy makers, and practitioners from diverse
social care settings.
43. We collaborated with the Communications Team to organise
and then assess the effectiveness of Social Science Week, a focused
service of 48 events in June 2005 that highlighted the contribution
of social science research to the UK's economic and social well
being.
PROVIDING LEARNING,
TRAINING AND
DEVELOPMENT OPPORTUNITIES
44. Rationale: We create opportunities for our stakeholders
to learn new ideas and approaches as well as update their knowledge.
45. We commissioned and managed the development of a
new major web-based resource, the Knowledge Transfer Guide which
serves as a companion to the Communications Toolkit. The KT Guide
draws on research to identify the important principles of knowledge
transfer; explains different methods and approaches; and presents
case studies of best practice. Opportunity is given to those who
access the resource to engage with others to benefit from exchanging
experiences.
46. We organised two workshops, "Getting Research
into Practice," for those on funded ESRC programmes. The
workshop content included the principles of knowledge transfer,
alternative means of user engagement, evidence from research and
input from policy makers who draw on research as well as researchers
who have actively engaged in policy development.
47. ESRC organises workshops for researchers to engage
with the media; politicians on contemporary social and economic
issues; and research on political processes.
OFFERING A
HIGH QUALITY
BROKERING SERVICE
48. Rationale: In addition to the formal/semi-formal
systems and processes identified in previous sections, Knowledge
Transfer also facilitates a central role in enhancing networks
and satisfying its stakeholders by providing advice, sources of
information, summaries of research, identifying expertise and
making available research reports.
49. We have maintained a broad knowledge of ESRC research
and national developments so that we can provide a high quality
brokering service of informal advice.
50. More formally, the ESRC Council approved the appointment
of two types of knowledge brokers. One will work with the Communications
Team and provide a conduit between researchers in an area of common
interest and audiences by using the media and publications as
key vehicles. The other will be associated with the Knowledge
Transfer Team and will be intermediary between researchers, business
and policymakers in regional settings.
ASSESSING THE
CONTRIBUTIONS RESEARCH,
KNOWLEDGE TRANSFER
SCHEMES, EVENTS
AND OTHER
ACTIVITIES MAKE
TO KNOWLEDGE
TRANSFER
51. Rationale: Given our commitment to the utilisation
of knowledge, we believe that is it important to assess the impact
of the activities we support and organise so that we can improve
our processes as well as judge the value of what we do.
52. We have followed up over 100 end-of-award reports
considered 9-12 months earlier by the Evaluation Team. We look
for evidence of user engagement during the research enterprises,
how it evolved, and its impact and best practice examples. Worthwhile
case studies are identified and commissioned to provide training
resources or are linked to the Knowledge Transfer Guide as a model
to others.
53. We have, with Communications, conducted a survey
of Social Science Week participants in 2004 and 2005 not primarily
to evaluate individual events but to understand how the research
findings that are presented are utilised by attendees. They are
also followed up 10-15 weeks after Social Science Week and asked
what they did with the contacts they made and the new information
they gained. Findings have influenced advice to event organisers.
PLANNING AHEAD
54. Whereas the previous section drew on the ESRC's Knowledge
Transfer Strategy to highlight the achievements in this area over
the past 18 months, the next section uses the Output 2 Framework
to summarise plans for the next three years.
INTERACTION WITH
BUSINESS AND
PUBLIC SERVICES
55. Active concordats will be expanded (more activities
with existing partners) and new partners added eg DfID, FCO, ONS,
RDAs, strategic alliances with umbrella organisations in the business
sector; and specific companies will be developed. The April 2006
staff appointments will have this activity as a primary focus.
56. Alliances with RDAs will be strengthened, in part
using the RC-RDA Capacity Fund and the ESRC brokers' scheme.
57. Knowledge transfer activities with local authorities
will be enriched based on a business plan that is being jointly
funded by ODPM and LARCI.
58. Interaction with the community and voluntary sector
will increase, building on the concordat signed with the NCVO,
and accessing funds from the Big Lottery Fund.
59. The number of public policy and business-oriented
seminars and workshops will double.
60. Our Impact Grants Scheme has been introduced as a
pilot to provide resources for centres and large grants to undertake
knowledge transfer activities to facilitate the utilisation of
their research findings.
61. User representation on ESRC bodies and external ESRC
representation will increase. The Communications and Information
Committee (CIC), a sub committee of the ESRC Council, which advises
on Knowledge Transfer and Communications activities, should be
an exemplar.
COLLABORATIVE RESEARCH
62. As required by the Innovation Report, the amount
of collaborative funding that the ESRC will generate will increase.
The ESRC has established a Venture Fund which is designed for
this form of funded research.
63. Initial projects include demographic trends in Scotland
and preventative public health research.
64. The number of jointly funded research projects will
also increase. Potential partners are seeking opportunities
to fund research jointly with the ESRC.
COMMERCIALISATION OF
RESEARCH
65. The ESRC will organise workshops, either on its own,
or with partners (eg AURIL) to develop the entrepreneurial and
commercialisation skills of its researchers.
66. The ESRC will sponsor research and make its findings
readily available on spinout companies and other commercialisation
processes.
67. Knowledge Transfer is planning a weeklong residential
course on entrepreneurship for its studentships holders, jointly
funded with RDAs and the Scottish Executive, and facilitated by
the Cambridge-MIT consortium.
68. Knowledge Transfer will continue to co-sponsor with
other Research Councils the Business Plan Competition that provides
business development skills for teams who have a potentially commercial
idea that they wish to develop.
CO -OPERATIVE
TRAINING
69. One of the reviews that the ESRC is currently conducting
is on the effectiveness of its knowledge transfer schemes, particularly
CASE, Knowledge Transfer Partnerships, jointly-funded studentships
with Government departments as well as the knowledge transfer
function of standard studentships. Initial findings suggest that
those schemes which emphasise interaction between business and
academics through doctoral students or graduate associates are
seen as being worthwhile and beneficial by all parties involvedemployers,
academics and graduates. If these findings are confirmed in the
final report, the ESRC would look to expand those schemes that
are effectively fulfilling their purpose.
70. Knowledge Transfer will continue to monitor the impact
of these schemes and collect case studies of good practice so
that all parties can maximise the benefits they get from being
involved.
PEOPLE EXCHANGES
BETWEEN THE
SCIENCE BASE
AND USER
ORGANISATIONS
71. The ESRC has introduced a research brokers' scheme
to appoint intermediaries to facilitate interaction between those
who apply research findings and those who generate new knowledge.
72. The ESRC has approved a Placement Scheme whereby
researchers will spend time in a Government department providing
the research evidence that can be drawn on to develop or review
policies. As well, Fellows on this scheme will be expected to
run workshops on the research methods in which they gave expertise.
73. Should this scheme be successful, Government employees
will be supported to spend time with ESRC researchers in academic
units to work on policy-relevant research projects.
74. Placement Schemes will then be extended to the business
and voluntary sectors.
75. Knowledge Transfer will continue to give recent graduates
workplace experience following introduction of a new scheme in
August 2005.
Annex 6: Medical Research Council (MRC)
RESEARCH COUNCIL SUPPORT FOR KNOWLEDGE TRANSFER
INTRODUCTION
1. The mission of the Medical Research Council (MRC)
is:
To encourage and support high-quality research
with the aim of improving human health.
To produce skilled researchers, and to advance
and disseminate knowledge and technology.
To improve the quality of life and economic competitiveness
in the UK.
To promote dialogue with the public about medical
research.
2. The 50+ years since the discovery of the structure
of DNA have seen extraordinary advances in basic biomedical science
and its application to tackling medical problems. The MRC has
been at the forefront throughout that time. Our achievements include
major impacts on health and the development of new breakthrough
technologies applied by industry (see below), as well as fundamental
insights into biological systems.
3. Some impacts of MRC research on health:
Establishing that smokers lose a decade of life
compared to non-smokers.
Showing that surgery for stroke can halve the
risk of a subsequent one.
Demonstrating that screening for abdominal aortic
aneurysms is cost-effective, saving over 3,000 lives after four
years in the 65-74 age group.
Showing that cholesterol-lowering drugs can reduce
the risks of heart attacks and strokes by at least one-third.
Saving NHS resources and lives, by showing that
corticosteroids in severe head injury do more harm than good.
4. Some examples of MRC activity leading to the use of
new technologies in industry and healthcare
Funding the initial research behind the MRI scanners
now present in every main hospital.
Developing "humanised" monoclonal antibodies,
now used by industry as the basis of a whole new class of antibody-based
treatments.
Funding many technological breakthroughs (eg DNA
and protein sequencing, DNA chips and phage display) that have
underpinned the genome programme and the biotech industry.
Creating 16 start-up companies employing over
1,000 people.
5. The next decade will see two main thrusts. Firstly,
advances in knowledge at the molecular level will rapidly be extended
to a more integrative scale: increasing understanding of how cells,
organs and organisms function, grow and developin health
and disease. The emphasis will be on multi and inter-disciplinary
approaches. Secondly, there will be a far greater focus on translating
the results of such work into improved healthcare, products and
services. Increased understanding of the social, behavioural and
psychological factors involved in ill-health will result in new
approaches to promoting public health.
6. The MRC Delivery Plan describes how we will use our
resources during the current Spending Review period (2005-062007-08)
to contribute towards achieving the Government's objectives for
the science budget, set out in targets for the OST and in the
Science and Innovation Investment Framework. The Plan explains
how the MRC will help implement the Government's medical research
agenda, as well as the MRC's own vision and strategic priorities,
accelerating the pace with which MRC research helps to achieve
national health and economic goals (see below).
MRC FUNDING AND
STRATEGY
7. The Council believes that the particular challenges
in delivering a broad research agenda with the ultimate aim of
improving human health require the following range of approaches
to research funding in MRC:
Intra-mural supportMRC Units and Institutes
located in/closely integrated with research-intensive universities
and, where appropriate, hospitals
Extra-mural supportwith research funding
for researchers through a range of grant schemes, and
Personal award (Fellowships, studentships) for
research training and career development.
8. MRC retains the Intellectual Property rights for research
within its own Units and Institutes, but for extra-mural research
the Host Institution manages these rights.
9. MRC funding was £435.5 million in 2004-05 with
the following distribution by scientific area:
39% molecular and cellular medicine
15% physiological systems & clinical sciences
17% neurosciences and mental health
16% infections and immunity
13% health services & public health
7. MRC priorities include:
Clinical Research and Public Health
Infections and Vaccines
Maintaining health of disciplines
THE CLINICAL
RESEARCH AND
PUBLIC HEALTH
AGENDA
11. Clinical research is at the heart of the MRC's mission
to promote research that will improve and maintain health. We
have a long history of supporting a wide range of clinical research
and of training future leaders of clinical research. Clinical
research (see Figure) is designed to answer questions about human
diseaseits causes and origin, prevention, diagnosis, outcome
and treatment. It is first and foremost about people and is pivotal
to a continuum that extends from the laboratory, to patients,
and through them to the health of the whole population. And the
flow is not only one-way. It is becoming increasingly clear that
just as basic science can lead to better patient care, so studies
in people can provide key insights for basic science.
12. The MRC is active in relevant areas of basic, translational
and clinical research, and is well placed to play a big role in
this new push to improve health. Our public health research looks
at the wider influences on physical and mental well-being and
ill-health; for example, the biological, socio-economic, lifestyle
and environmental factors at play throughout people's lives. It
includes all aspects of health promotion, disease prevention and
healthcare provision. A key aim is to understand how and why ill-health
varies within the population, and how to improve public health
through interventions and improvements that address these inequalities.
A call for proposals in methodology including research which develops
knowledge about how to implement research findings in policy and
practice was issued in December 2005. The MRC conducts a wide
portfolio of clinical trials across the spectrum of disease and
tests new approaches to prevention, diagnosis and treatment.
13. The MRC has been allocated £25 million new money
during the SR2004 period to take forward the clinical and public
health research agenda, and will be redeploying a further £37
million of its existing funds from 2005-06 onwards to this end.
Therefore the MRC expects to allocate an extra £62 million
to drive forward the clinical and public health agendas, raising
its annual spend from £127 million per annum to about £162
million per annum by 2007-08, as described in its Delivery Plan.
14. The MRC's strategy for strengthening translation
of basic research into direct clinical and economic benefits is
to:
Increase support for experimental medicinepatient
and volunteer studies based on the latest basic knowledge. A call
for proposals in experimental medicine was issued in September
2005 and focused on the early testing of novel treatments or interventions
in human participants.
Raise funding for clinical trials and other population
level studies; for example, on interactions between environment,
behaviour and predisposition to disease.
Promote translational research approacheswhere
there is a vigorous exchange of ideas, methods, people and priorities
between basic and clinical sciences. A Call for Centre Grant applications
to strengthen translational research in the UK was issued in January
2006. The MRC will create a new cadre of research translators
to further promote knowledge transfer.
15. The Government has asked the MRC and the Health Departments
to build on their existing partnership and further accelerate
the translation of basic research results into improved health.
As well as participating in the UK Clinical Research Collaboration,
MRC and the Health Departments have set up a Joint MRC / HDs Health
Research Delivery Group (chaired by Sir David Cooksey) which aims
to provide enhanced strategic co-ordination between the public
funders of medical research.
16. The Joint Health Delivery Group, as part of its work,
is developing an overarching strategic plan for working with industry,
from pre-competitive preclinical research through to large scale
clinical trials. Care is being taken to co-ordinate, and not duplicate,
effort with the activities of UKCRC on clinical trials in this
area.
BIOMARKERS INITIATIVE
17. The shift towards a more holistic approach to the
study of health and disease, as exemplified by systems and integrative
biology, provides new impetus for developing the science of biomarkers.
Dramatic advances in "-omics" technologies have led
to high expectations for the emergence of a new range of biomarkers,
providing deeper insight into the behaviour of disease and response
to drugs, which will allow quicker development of novel therapies
of proven benefit. A UK conference on Biomarkers, sponsored by
the MRC is being held in January 2006 to address the extent to
which this expectation can be met and identify how the UK can
best contribute to the international research effort in this area
through capitalising on its infrastructure and scientific strengths.
Participants will be drawn from academia, the pharmaceutical industry
and drug regulation, covering a variety of cross-cutting medical
disciplines.
Commercialisation of R&D
18. MRC collaborates with industry on a broad basis and
takes a proactive approach to engaging industry through our affiliated
companyMRC Technology (MRCT). MRCT is responsible for exploiting
the intellectual property rights (IPR) from research in MRC research
establishments (institutes and units). MRC's objectives in technology
transfer are:
to work through the mechanism, and with the partner(s)
judged most likely to develop MRC technology into products and
services useful to Society;
to maximize the contribution to national wealth
creation and UK industrial competitiveness;
to maximize income to the MRC in the medium-to
long-term.
19. Between 1987 and 2004, MRC received over £102
million income from exploitation of its IPR, and granted around
457 licences. MRC's commercial income was £28.5 million in
2004-05. Expenditure on commercialisation was £9.3 million.
This level of licence income is equivalent to 9.17 per cent of
research expenditure on MRC institutes and units which, on the
basis of the most recent comparative figures available, is more
than three times the proportion achieved overall by US universities
and around 15 times the level in UK universities.
New class of pharmaceuticals
20. MRC research in antibody engineering started in the
mid 1970s. MRC patents cover a series of inventions from the MRC
Laboratory of Molecular Biology during the late 1980s and early
1990s for making `humanised' or fully human monoclonal antibodies.
These technologies have had a major impact on health and the economy
in the last decade. Eleven therapeutic antibody products are now
marketed arising from MRC patented technologies (antibody humanisation
and phage display), including treatments for breast cancer, leukaemia,
infant respiratory disease, asthma, psoriasis, kidney transplant
rejection and rheumatoid arthritis. 32 more products are in late
stage (Phase II and III) clinical trials.
21. In late 2005, MRC signed one of the biggest deals
to come out of breakthroughs by UK scientists. It involves a drug
created using patented antibody technology derived from research
at the Laboratory of Molecular Biology and the Scripps Research
Institute in California. The drug, HUMIRA(r), is so far used to
treat rheumatoid arthritis, early rheumatoid arthritis and psoriatic
arthritis. The American pharmaceutical company, Abbott has agreed
to pay money in lieu of the future royalties the MRC, the Scripps
Research Institute and Stratagene would have received on sales
of HUMIRA(r). The MRC has received £112 million as a result
of this deal.
MRC Start-up Companies
22. Two of the largest UK biotechnology companies, Celltech
and Cambridge Antibody Technology originated as start-ups based
on MRC technologies and fifteen other MRC start-up companies have
either merged with others prior to listing or have attracted substantial
venture capital or corporate financing as private companies.
23. In March 2005, Ardana Bioscience Ltd, became the
first MRC start-up company since Cambridge Antibody Technology
(CAT) to be floated directly on the London Stock Exchange, although
some other listed biotechnology companies such as Vernalis and
BioFocus derive in part from MRC start-ups which merged with other
entities. The listing raised £21 million before expenses.
Ardana, a biotechnology company based in Edinburgh, was created
in 2000 on the basis of licences and options to intellectual property
arising in the MRC Human Reproductive Sciences Unit. Although
Ardana subsequently acquired rights to nearer to market products
from other companies, it continues to develop earlier stage technologies
arising in the Unit and, prior to listing, agreed a revised and
more focussed option agreement with MRC that will take effect
in July 2005. Under the agreement MRC received further shares,
a royalty provision and funding for additional research in the
Unit.
24. The number of employees in MRC start-up companies
(excluding Celltech) was 1,135 at March 2005.
MRC Development Gap Funding
25. Following a successful pilot scheme, MRC in 2003
approved a £4.5 million proof of concept fund managed by
MRCT to support further research and reduction to practice on
initial results with commercial potential that arise in MRC establishments.
The research is project-managed to deliver to commercially relevant
targets. Through this mechanism, MRC is able to develop its intellectual
property into more robust and commercially attractive opportunities.
The earliest projects are now complete or nearing completion and
efforts are underway to partner or license the IPR generated.
A symposium for project leaders was held in September 2005.
26. The Development Gap fund has also been used to leverage
interest in speculative research, with potential commercial application,
from industry. One example of this is a three-year collaboration
between MRC Laboratory of Molecular Biology and Pfizer the world's
biggest pharmaceutical company on the three-dimensional structure
of human G protein coupled receptorsa class of drug targets
that have been key to advances in the search for medicines to
treat conditions where medical need remains high.
MRC Drug Discovery Group
27. MRCT's own dedicated applied research laboratories
have helped bridge the gap between basic research and the needs
of industry. The MRC is also creating a Drug Discovery Group to
identify and progress MRC research offering starting points for
drug discovery, to aid translation of basic science and improve
commercial exploitation. The group is being built on existing
strengths within MRCT, which already has a group of scientists
who screen potential drugs at its laboratories in Mill Hill, north
London. A significant group of medicinal chemists will be recruited
and the biology group will be expanded, with the objective of
creating an enhanced screening capability and `hit to lead' chemistry
to help accelerate the translation of MRC's cutting edge biology
into innovative new therapies. The Group's remit will span the
entire range of research fields funded by the MRC, including potential
drug targets in neglected diseases and prospective targets currently
regarded as too high-risk by the pharmaceutical industry. As with
MRC's investment in antibody humanisation, the DDG is a long-term
strategic investment and healthcare and economic benefits are
expected in a 10-15 year timescale.
COLLABORATIONS WITH
INDUSTRY
28. In addition to work carried out within MRCT's laboratories,
MRC Institutes and Units are encouraged to engage in collaborative
research with industry. A striking example is the collaboration
between the MRC Protein Phosphorylation Unit, and the University
of Dundee's School of Life Sciences with six of the world's major
pharmaceutical companiesAstraZeneca, Boehringer Ingelheim
International GmbH, GlaxoSmithKline, Merck Co, Inc (of Whitehouse
Station, NJ, USA), Merck KGaA (of Darmstadt, Germany) and Pfizer.
In 2003 the companies agreed to provide further funding of more
than £15 million over five years to investigate two classes
of enzymes, termed kinases and phosphatases, which have become
some of the most important classes of drug target in the pharmaceutical
industry. Overall the collaboration will have provided funding
in excess of £21.5 million over ten years and supported the
creation of over 20 new scientific posts within the specially
created Division of Signal Transduction Therapy. Novel pathways
and targets have been dissected and a number of patent applications
licensed by MRC to partners within the consortium and more widely.
MRC SHOWCASE DAYS
29. MRC and MRCT are planning a series of theme-based Showcase
Days to improve communication between MRC-funded scientists (intra-
and extramural) and Industry. The objectives are to strengthen
links in the UK bioscience community and to develop new collaborative
research programmes between academia and Industry.
OTHER INTERACTIONS
WITH COMMERCIAL
USERS
30. MRC also contributes to knowledge transfer through:
Sponsorship of LINK programmes (most projects
supported are university-based). MRC is a co-sponsor with BBSRC
and DTI of the Applied Genomics LINK Programme.
Collaborative Studentship Awards.
Industrial Collaborative Studentship awards.
Encouragement of industrial consultancies for
MRC staff within guidelines and where approved by management.
Financial support to, and assistance with managing,
the joint Research Council Business Plan Competition and the Biotechnology
Young Entrepreneurs Scheme.
Support of MRC Conferences with academic/industrial
participation.
Training by MRCT staff in Intellectual Property
and commercialisation for newly appointed MRC scientists in units
and other seminars given by MRCT staff to University postgraduates.
MRCT staff making a major contribution to the
Praxis training programme for technology transfer professionals.
PEOPLE AND
SKILLS
31. The MRC's priorities in research training include
implementing relevant recommendations of the Roberts Review concerned
with enhancing the attractiveness of research careers and the
standard of training. MRC funds about 400 new PhD students each
year. The MRC is also increasing flexibility in the provision
of postgraduate training through Doctoral Training Accounts (DTAs).
In integrative physiology/pharmacology, which are priority areas
for strengthening, MRC is partnering a consortium of pharmaceutical
companies which has set up a fund to support in vivo research
and training at PhD and postdoctoral level.
OBJECTIVES AND
DELIVERABLES
32. Progress against the specific objectives in the MRC
Delivery Plan will be reported in the form of a Balanced Scorecard
and monitored using an agreed cross-Council Output Framework.
This is in addition to existing channels of accountability, including
the Annual Report to Parliament and the Annual Review. Summary
deliverables in relation to Knowledge Transfer are:
Over SR2004: a significant reprioritisation of
MRC spending, with increased funds for clinical and public health
research and training; increase external income from collaborative
research with users; increase income from exploitation, patenting
and licensing; establish new Drug Discovery Group.
Medium term: increase in the volume of MRC-supported
translational research, experimental medicine and research in
population health sciences; increased recruitment to MRC trials;
closer working with industry; increase translation of basic MRC
science into healthcare improvements; transfer of MRC drug discovery
programmes for neglected diseases to public-private partnerships
or other vehicles to progress treatments to clinic; delivery of
high-quality research reagents back to MRC scientists.
Medium and long term: As tokens of industrial
satisfaction, we expect to be able to demonstrate specific industry/MRC
partnerships including industry-funded academic consortia, and
matched investment; also approval of new drugs by the US Food
and Drug Administration and the Medicines and Healthcare products
Regulatory Agency, which will benefit industry and health in the
UK. At steady state, the Drug Discovery Group will evaluate 12
new targets, translating ultimately into one high-quality lead
molecule each year.
Long term: a major impact on diseases of significant
health burden.
Annex 7: Natural Environment Research
Council (NERC)
RESEARCH COUNCIL SUPPORT FOR KNOWLEDGE TRANSFER
INTRODUCTION
1. NERC is one of eight Research Councils. It supports
research and training in its four wholly owned research centres
(British Antarctic Survey, British Geological Survey, Centre for
Ecology and Hydrology and Proudman Oceanographic Laboratory),
15 collaborative centres, UK universities and, in the case of
one scheme, supports research in companies. Its budget is approximately
£350 million per year.
2. NERC recognises knowledge transfer as a complex two-way
process and that it should be integrated into the whole research
process, from the early stages of project identification and definition
to the final stages of completion and dissemination.
3. NERC has a very broad range of users, spread across
diverse industry sectors. These include a wide range of major
UK and international companies, plus SMEs. In addition to this
direct KT business interaction, NERC also has a broad range of
other user interaction, such as peer reviewing (over 11% of our
Peer Review College are from user organisations) and representation
on NERC advisory and decision-making bodies. The industry sectors
that NERC contributes to are significant: the environmental technologies
and services sector in the UK alone is worth £15billion (source:
JEMU 2002).
4. More significantly, NERC science plays a key "public
good" role, providing vital science advances for developing
environmental policy, regulation and management. Government Departments
and Agencies, such as DEFRA and the Environment Agency, are key
NERC science users.
NERC KNOWLEDGE TRANSFER
STRATEGY
5. NERC's knowledge transfer strategy has four main components:
Involve users in planning, implementation and
review;
Fund the best knowledge transfer ideas across
the NERC remit;
Integrate knowledge transfer within strategic
science programmes;
Promote entrepreneurship and commercialisation
of research.
6. Underpinning these strategic objectives is a range
of schemes and initiatives, for example our annual call for knowledge
transfer (see Box 1). This call will be flexible enough to support
the best KT ideas. NERC will continue to work through the RCUK
KT Group to coordinate support where it matches the needs of our
user community. To provide a baseline for current knowledge transfer
and business interaction activity we have developed a suite of
metrics, agreed by OST, which will be used to measure progress
towards our objectives.
Box 1 Knowledge Transfer Call
NERC has a unique approach to knowledge transfer across the
research councils, in that it runs a specific annual call for
knowledge transfer proposals. The first two calls, in 2004 and
2005, have invited applications in three categories: networks
with users; collaborative research; and "good ideas".
Recent awards include: support for people in key knowledge transfer
positions, such as facilitators; special publications and websites;
developing collaborations with local authorities; new research
collaborations with users that should result in the application
of research. In each of our first two calls we have committed
over 31.5 million.
From the end on 2005 NERC will focus collaborative research
within its existing research grant schemes and closing dates.
We will continue to support an annual call, focusing on providing
support for improving the application of scientific research within
NERC's remit.
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NERC RESEARCH AND
COLLABORATIVE CENTRES
7. NERC's Research Centres provide a unique opportunity
for all aspects of knowledge transfer: they provide a national
capability to provide reliable and independent policy advice to
Government. One example is the Centre for Ecology and Hydrology's
lead role in the farm scale evaluation of GM crops. The skills
and capabilities that exist in our research centres play a vital
part in the UK economy: a recent survey estimated that the value
added of national output that the British Geological Survey (BGS)
contributed to was in the range £34 billion£61
billion, between 5-8% of the UK value added. Links with key users
are extensive: for example, the Proudman Oceanographic Laboratory
is a partner with the UK Meteorological Office in the National
Centre for Ocean Forecasting (NCOF), whose mission is to establish
ocean forecasting as part of UK "infrastructure".
PLANS FOR
KNOWLEDGE TRANSFER
8. NERC is implementing plans for knowledge transfer
using the agreed RCUK framework:
collaborative research;
cooperative training and education;
people and knowledge flow; and
A cornerstone of the plans is the development of a brokerage
unitsee box 2.
Box 2 Brokerage Unit
NERC's Knowledge Transfer Advisory Group (KTAG), composed
of industry representatives, policy-makers and members of NERC's
major decision making groups, have endorsed the view that for
NERC to increase its rate of knowledge transfer, support for a
range of schemes and mechanisms is required to cover the breadth
of knowledge transfer; but that more is needed if a sea change
in the rate of knowledge transfer is to be achieved.
Whilst the Research Councils have identified four main categories
of knowledge transfer, knowledge flow underpins all activities.
Knowledge transfer is a 'contact sport' requiring extensive interpersonal
exchanges to achieve successful outcomes. There is increasingly
a clear need to provide a stronger link between the academic and
user communities. NERC has also funded some specific projects(eg
the Cambridge Institute for Aviation and the Environment, funded
in the first KT call), however, a NERC KT unit covering the broad
NERC remit, acting as an advanced signposting service for both
the academic and user communities to contact each other, is a
significant missing link in our KT portfolio.
The establishment of a NERC brokerage unit would be a unique
UK-wide service for the environmental sciences. The concept of
the unit is being developed by KTAG over the next six months,
with the intention that the unit be operational by April 2007.
It could have the following characteristics:
(i) Actively use information from successful grant applications
on potential users, to develop these links (two-thirds of NERC
blues skies grant holders indicate their science is relevant to
policy);
(ii) Act as the home for science to policy and science
to industry facilitator posts;
(iii) Develop good working relationships with the NERC
science and user base, to ensure good take up of service.
The benefit of such a KT unit providing a brokerage service
would be:
(i) Help in the identification of user needs;
(ii) Help to infolin policy and policymakers and scientists
of policymakers needs;
(iii) Promote awareness and take up of KT delivery rechansms,
including those supported by NERC;
(iv) Help to enhance business involvement in R&D;
(v) The development of more commercially valuable ideas;
(vi) Take forward some KT activities following on from
directed programmes once the programme officially finishes;
(vii) Increase leverage of NERC funds by obtaining co-funding
from users;
(viii) Potential, via cogent use of existing IT systems
to undertake KT "mining", to identify possible user
applications of research and take these forward, in collaboration
with researchers and HEls' business development staff.
A close relationship will be developed with Higher Education
Innovation Fund (HE activities. There is a clear opportunity for
ITERC to proactively develop improved mechanisms for the take
up of NERC science, that can work with, not duplicate, infrastructure
beingsupported elsewhere.
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(a) Collaborative research
Key target: (i) Increase the number of co-funded collaborative
research grants to 6% by 2007-08
9. NERC will increase the amount of research that we
fund as collaborative with user involvement. Our new Partnership
Research Grants scheme will give NERC increased flexibility to
support collaborative research whilst remaining under the umbrella
of a State Aids-approved product. We are using the same closing
dates and moderating panels for this new initiative as our responsive
mode grants. The first closing date is 1 December 2005.
10. Our research centres engage with users via significant
amounts of commissioned research (£27.6 million in 2003-04),
which reflects the skills and expertise that they have. They have
developed stable funding models that require a balance of science
budget and commissioned research money. There are no plans to
increase the proportion of external research income to alter this
balance.
11. There are also considerable opportunities for better
knowledge transfer between NERC and the full and corresponding
members of the Environmental Research Funders' Forum (ERFF). ERFF
are exploring science priorities in the areas identified by their
SWOT analysis: this should inform potential areas for collaborative
research with government departments and public sector organisations.
12. NERC is running a project to help identify its technology
priorities to feed into the national Technology Programme. This
should report in the first quarter of 2006.
(b) Cooperative training and education
Key targets: (i) Increase CASE studentships; (ii) Enforce
CASE studentship target; (iii). POST secondments
13. NERC is committed to supporting excellent postgraduate
training via the MSc, MRes and PhD studentships. The main KT routes
that NERC supports are through user-relevant MSc courses and CASE
and Industrial CASE (Cooperative Awards in Science and the Environment)
PhD studentships.
14. NERC supported 307 CASE and 78 Industrial CASE studentships
in 2003-04, spending nearly £4.5 million. Over 120 organisations
are collaborating directly in NERC-supported PhD training. We
are:
Expanding our Industrial CASE annual competition
to include public sector partners, in recognition of the important
role that NERC science plays in public good and policy development.
We will increase the number of places supported in the call by
up to 50%.
Enforcing a minimum of 30% of NERC algorithm studentships
to be CASE awards. Departments not meeting this target will be
penalised.
Currently undertaking a zero-based review of NERC
support for MSc courses for the next five years. There will be
considerable user involvement in the process, with user relevance
an assessment criterion and user membership on the review panels.
Continuing to offer four secondments per year
to spend three months at the Parliamentary Office of Science and
Technology (POST) writing briefing notes for parliamentarians,
and investigating similar placements in the Scottish Executive
and the Welsh Assembly.
(c) People and knowledge flow
Key targets: (i) Development of a Brokerage Unit; (ii) Increase
support for networks, Knowledge Transfer Partnerships and facilitators.
15. NERC undertook a user survey in 2004; one of its
main outcomes was the importance of formal and informal links
between scientists and users. A number of our major Directed Programmes
have started to employ facilitators to increase knowledge transfer.
We are currently advertising for a science to policy facilitator,
and we will also explore partnership arrangements for more industry-focused
facilitators with R/DAs. We have also supporting facilitators
within some of our major directed research programmes and in the
annual KT call. NERC will increase the number of facilitators
to actively link our research with firms and help them identify
the potential in a range of NERC research projects and programmes.
The user survey stressed the importance of formal and informal
means of communication between potential users and the research
community (for engagement at all stages of the research process)
we intend to increase our communication with potential users through
increasing our support for our networks scheme. These approaches
will be maximised by working closely both with the range of channels
there are in universities, RDAs, trade associations and professional
bodies.
16. NERC has been a sponsor of the national Knowledge
Transfer Partnerships scheme for over 10 years. We intend to increase
our support for this scheme, and have been doing so via three
main routes: by developing a strong working relationship with
Momenta, who manage the scheme; raising awareness of NERC with
KTP project offices (mostly based in universities); and increasing
awareness of the scheme with academics that work within our remit.
Box 3 gives details of our plans.
Box 3 Knowledge Transfer Partnerships
NERC's current support for this scheme, one of DTI's business
support products, is about £100k pa. To help stimulate awareness
of the scheme NERC will:
Increase its level of support for KTP, conditional
on the quality and relevance of proposed projects to NERC's mission;
Continue to probote the scheme, via specific KTP
awareness-raising seminars, and using RDAs to promote via their
environmental technology clusters.
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17. To encourage the two-way flow of people between the
research community and industry, NERC is a sponsor of the Royal
Society Industry Fellowship schemefor more details see
www.royalsoc.ac.uk/funding/.
18. NERC has good working relationships with its sister
Research Councils. We will use these strong links to work collaboratively
with other councils where a common agenda exists: for example
working closely with EPSRC on developing good links with the Environment
Industries Unit and with ESRC and others for the Local Authority-Research
Council Initiative (LARCI).
(d) Commercialisation
Key targets: (i) 26 new commercialisation ideas; 16 applications
to the Innovation Fund; two patents filed; and seven deals agreed
from NERC Research Centres in 2005-06; ( ii) Business Plan Competition,
Follow-on Fund, commercialisation awareness-raising events.
19. NERC is committed to ensuring that its science is
fully exploited. This has two facets: for the science in our four
wholly owned research centres, NERC retains the intellectual property;
and for the science we support in our collaborative centres and
UK universities, the intellectual property is transferred to the
host institution, which is in a better position to exploit the
science. The Higher Education Innovation Fund (HEIF) and its precursor
funding activities support this latter activity.
20. NERC ensures that the science undertaken in its own
research centres is exploited where appropriateNERC employs
some 2600 staff, of which 60% are active scientists. NERC employs
Exploitation Scouts to identify and develop early-stage commercial
opportunities and intends to extend this network by creating additional,
part-time roles. In 2005 NERC developed a strategic partnership
with ISIS Innovation, one of the UK universities' leading technology
transfer organisations, to increase the rate of commercialisation
from our four research centres.
21. NERC researchers have access to an Innovation Fund,
to help bring commercial opportunities to a point where they can
be successfully licensed or attract external finance to establish
joint ventures or spinout companies. The Innovation Fund enables
researchers to obtain funds for the very earliest stages of a
new business opportunity, supporting, for example, obtaining a
patent or buying advice on market size. It also provides up to
£100k to further develop selected opportunities to bring
them to the point where they can be licensed or attract external
finance. NERC researchers also have access to the Rainbow Fund,
a seed fund set up with CCLRC, DSTL, PPARC and UKAEA. The fund
has £4 million to provide financial support to the earliest
stages of new commercial opportunities.
22. NERC also encourages commercialisation in its broader
academic community. This will be strengthened in the following
ways:
NERC will continue to support the Research Councils'
Business Plan Competition, working with the other Research Councils
to develop partnerships with RDAs.
NERC, together with BBSRC, EPSRC and PPARC run
the Follow-on Fund, to increase the level and accelerate the rate
of commercialisation of research ideas arising from research community
by providing funds to enable these ideas to be brought to a stage
where commercial opportunities (eg. licensing, seed or equity
funds) can be secured. Since it started in 2004 NERC has supported
seven projects.
Support for the BBSRC-led Young Entrepreneurs
Scheme (YES).
Specific events: With the DTI/Defra Environment
Industries Unit and EPSRC we are holding a commercialisation conference
in November 2005 to raise awareness of the environmental technologies
sector, currently a rapidly expanding market.
SCIENCE TO
POLICY AND
ENVIRONMENTAL MANAGEMENT
23. One of NERC's key areas for knowledge transfer is
contributing to policy development and environmental management.
In 2005 NERC published a new booklet "Science to Policy:
Taking part in the process" http://www.nerc.ac.uk/publications/scienceintopolicy/science-into-policy.pdf
to help NERC staff and the academic research community to: a)
recognise the relevance of science to policymakers; b) identify
opportunities, routes and good practice to influence policymakers;
and c) communicate science in an accessible way.
24. NERC will focus its future science to policy activities
in the following ways in the next few years:
Implementing guidelines on engaging users at all
stages of science, from the inception of new science ideas through
to the completion of directed science programmes, and broadening
this out to other areas of NERC activity.
Increasing support for the secondment scheme for
PhD students to work at POST.
Employing a new science to policy facilitator,
to help promote the take up of NERC science.
Developing ways of synthesising the outputs of
blue skies research to make them more accessible to policymakers/other
end users.
Holding more seminars bringing together scientists,
policymakers and environmental managers in particular science
areas.
Holding issue-based meetings with government departments
and other public sector bodies to explore how NERC improve its
supply of scientific evidence to inform policy development.
Developing best practice in communicating our
policy-relevant science to policymakers.
INCREASING OUR
INTERACTION WITH
BUSINESS
25. NERC has a complex set of interactions with business.
Its Research and Collaborative Centres undertake a broad range
of interactions that reflect the needs of their own business plans.
For two-way interaction between NERC and large firms with an in-house
capacity a direct linkage is normally appropriate, whereas for
smaller firms the channels may be opened up by; facilitators,
the use of intermediaries, university technology transfer companies
and business development teams, the RDAs and devolved administrations.
26. NERC ensures that public and private sector users
are engaged in the development and running of major directed programmes.
Following a recent transfer of funding from DTI, NERC is now responsible
for a major space programme, and works directly with space supply
and service industries, public sector and commercial customers
to deliver its programmes, and a broad range of wider benefits.
WORKING WITH
THE REGIONS
27. NERC recognises the increasing importance that the
RDAs and Devolved Administrations (DAs) play in knowledge transfer.
NERC is in a strong position to increase its interaction with
these organisations due to the distributed nature of the NERC
Research Centres across the UK. NERC will continue to develop
these working relationships through its Research Centres, with
support from NERC Swindon Office. RDAs are potentially very important
for some industry sectors, particularly those composed of predominately
SMEs, as the RDA sector groups may be in a stronger position to
access these companies. One example is the environmental technologies
and services sector: not only is this is an important business
sector for NERC but it is also identified by all the RDAs as a
priority for the economic prosperity of their regions.
EVALUATION
28. NERC is committed to ensuring that its investments
have an impact on society and the UK economy, and has agreed a
range of metrics with OST to measure the exploitation of our investments.
In addition, to better understand NERC's impact, we are currently
running a study to better measure our economic impact. This is
being done by using 10 representative case studies and using methodology
that conform to the HM Treasury guidelines on appraisal and evaluation
in Government, to ensure that the outcomes of the study are realistic
and fully justified.
Annex 8: Particle Physics and Astronomy
Research Council (PPARC)
RESEARCH COUNCIL SUPPORT FOR KNOWLEDGE TRANSFER
INTRODUCTION
1. PPARC's primary goal is to deliver a approx. £300
million programme of basic and fundamental science in particle
physics, astronomy, particle astrophysics and solar system science.
Given the dependence of these areas of science on advanced research
facilities, to achieve its science goals PPARC must develop advanced
technologies. This technology is the key interface PPARC has with
suppliers or developers of technology for its programme as well
as with other users who can benefit from using PPARC technology
in other contexts (referred to as knowledge transfer or "KT").
The whole programme of industrial engagement and knowledge transfer
is therefore built upon maximising this technology dialogue.
2. Early involvement of companies in technology
development often places them in an advantageous position when
it comes to competing for contracts for the construction of facilities.
There is a close relationship between technology development for
the PPARC programme, KT, and contract return as illustrated by
the diagram:
STRATEGY OVERVIEW
3. PPARC Council approved, in 2004, a strategy
which features some key PPARC distinctionsnotably a strong
emphasis on brokering relationships and recognition that industry
needs to be treated as a supplier of technology for the PPARC
programme as well as a customer of knowledge transfer. Industry
is attracted by the prospects of better contract return and increased
KT potential leading to new market opportunities.
4. The strategy can be stated as follows:
To support UK academic and industrial
leadership in the PPARC programme through technology development.
To spread PPARC technologies to broader
market areas (industry and public sector including other academic
disciplines) through industry and interdisciplinary collaborative
research.
To support entrepreneurial activity
in the PPARC community.
5. There are a number of additional elements
to this strategy which include:
long term science and technology
planning;
brokering (particularly to manage
"non-traditional" sectors);
providing flexible and evolving funding
streams focused on desired outcomes;
single branding (for all knowledge
transfer, innovation, technology and enterprise activities) through
the PPARC "KITE Club";
a partnership mentality (utilising
other schemes as appropriate, co-ordinating activities); and
stimulating UK contract return.
PROGRAMME OVERVIEW
Collaborative research for technology development
for the PPARC programme
6. PPARC has implemented a programme of
engagement with industry involving:
Identification of future science
priorities by Science Committee.
Identification of the technologies
required to achieve the science goals.
Promotion of the technology plans
and opportunities to industry and other potential technology development
partners.
Creation of a new funding line for
technology development across the whole PPARC programme which
is open to funding any entity, including industry, which can demonstrate
the ability to achieve the necessary technological performance.
This may involve collaborative funding or full funding where it
is justified by the return to PPARC. Where collaborations involve
SMEs, this will count towards the Small Business Research (SBR)
target.
Promoting the formation of consortia
to undertake R&D for the programme with direct funding to
industry for the work they undertake. Calls may be targeted to
specific areas.
Collaborative research for knowledge transfer
7. The PPARC Industrial Programme Support
Scheme (PIPSS) has been refocused on knowledge transfer and mobilisation
and extended to include a wide range of types of funding support.
It has recently received State Aids approval, enabling PPARC to
fund industry. This mitigates the risks inherent in commercial
organisations comprehending new and novel technologies and helps
to ensure that publicly funded technologies are as widely exploited
as possible. Increasingly PIPSS will be used as a brand to identify
PPARC's contributions to schemes involving other partners as appropriate
including Follow-on Funding, Knowledge Transfer Partnerships and
Discipline Hopping awards.
Training
8. A study of the career paths of PPARC
PhD students (DTZ Pieda Consulting July 2003) reported that 48%
of PPARC PhD students end up in the private sector. Skills developed
during a PPARC PhD, such as technology, maths and computing, team
working, and international cooperation are highly desirable in
a range of sectors including the city, major industrial companies
and small IT companies. This is independent of whether the PhD
had a collaborative component. PPARC is committed to increasing
its volume of PhD training with a range of goals including increasing
the supply of highly trained staff to other employers. By 2007
it will have increased its student numbers by 50% (from 2003)
giving a total stock of 850 p.a, providing an increased number
of students to the open market. PPARC also supports up to 10 CASE
students per year, with the CASE Plus option of a fourth year
in the sponsoring company.
People and knowledge flow
9. PPARC supports an active programme of
brokering and networking to increase the awareness of industry
and other users and the academic community of each other's strengths,
needs and opportunities. This takes place through a programme
of visits and workshops under the auspices of the KITE (Knowledge,
Innovation, Technology and Enterprise) Club. It is supported by
a contractor appointed to bring both technical and commercial
experience into the programme (the KITE Club Innovation Advisory
Service). These activities create an interactive environment which
underpins all the other activities. The contract was retendered
in 2005, and the new 3 year contract will double activity by 2007.
The brokering programme is enhanced by support from the OST PSRE
(Public Sector Research Exploitation) line to enable equivalent
work to be undertaken with CERN (the European Laboratory for Particle
Physics). PPARC has been successful in bidding, under PSRE3, to
extend this activity to its other major international research
programmesESA (the European Space Agency) and ESO (the
European Southern Observatory). PPARC also supports schemes to
support movement of people between sectors such as Knowledge Transfer
Partnerships (KTP) and MRC Discipline Hoppers.
Commercialisation
10. Most exploitation of PPARC research
is through existing companies. A new "PIPSS Fellowship"
is being developed for staff wanting to increase their work with
industry. However, PPARC also provides support for members of
its academic community who wish to commercialise their research
through the creation of spin-out companies. PPARC/Royal Society
of Edinburgh Enterprise Fellowships are awarded to individual
young researchers seeking training in venture creation and time
to develop their research into commercial propositions. The Rainbow
Seed Fund is available to staff at the UKATC and CERN for the
commercialisation of work developed from these organizations in
the Public Sector Research Establishment (PSRE) context. PPARC
is also a sponsor of the Research Councils Business Plan Competition.
Interactions with business
Supply contracts
11. PPARC, together with UKTI, funds an
Industrial Liaison Officer to promote contracts at CERN and ESO
to UK companies, and is working closely with BNSC to promote contracts
at ESA. A wide range of companies have been made aware of the
opportunities for contracts, but UK industry has not been particularly
successful in its tendering, and the UK return coefficients are
poor. This is in part due to economic conditions, and in part
because companies are poorly prepared in the underpinning technology
development. PPARC has promoted the development of a strategy
for industrial engagement in Research Facilities with other stakeholders,
and has recently agreed with DTI and others to extend the Sensors
Knowledge Transfer Network with a specific workpackage on Research
Facilities. This and the strategy of early industrial engagement
in R&D through PRI are addressing this concern but the impact
on supply contracts is still some way off.
PPARC interaction with business and public services
12. PPARC Council has members from industry
and DTI to ensure input from these perspectives. There are also
industrial members on the Education, Training and Careers Committee.
Industrialists are involved in the peer review of projects with
a collaborative component to assess the industrial component and
the overall technical objectives.
Interaction with RCUK
13. PPARC participates in joint programmes
with other Councils, such as the Research Councils Business Plan
competition, the Rainbow Seed Fund and the Follow-on Fund, where
these deliver a generic opportunity to the research community.
For some activities, demand is low but the Council, nonetheless,
wishes to ensure that its research community has access to services
and funding.
Other Interactions
14. PPARC will continue to seek contributions
from third parties towards its research programme and KT activities
in addition to collaborative grants. This may include joint funding
from another government department (eg MoD Joint Grants Scheme
or DoH funding), from an RDA associated with a major research
centre (eg the Cockcroft Centre), or from an international partner
for a UK-led technology initiative (eg MICE). PPARC is also in
active discussions with DTI, in the context of the Government's
Technology Strategy, concerning industrial engagement in research
facilities and advanced instrumentation. In addition to the workpackage
on Research Facilities referred to above, a further workpackage
on Advanced Instrumentation will also be implemented in the Sensors
KTN to help coordinate the instrumentation industry which is widely
recognised as being fragmented.
RISKS AND
CHALLENGES
15. A fundamental risk with this strategy
is that industry is not under PPARC control. Even with the enhanced
exposure of our plans and needs to industry, and their engagement
in early stage technology development, this may not lead to their
participation in project development and supply. There has been
a significant example in the past where a major supplier has changed
their commercial goals and withdrawn from the science sector despite
significant technology development and relationship building.
This can be addressed by detailed exposure to all the issues at
an early stage, so that as industry progresses with projects they
are fully aware of the nature of the requirements. Joint funding
with DTI, helping the industry to embed the technology in their
core competencies for other markets, will also help to strengthen
their potential. There are plans within the proposed new workpackages
of the Sensors KTN to gather evidence through an international
comparison of Government support for prototyping.
16. There is also a risk of a lack of enthusiasm
from academics, who might consider their priority to be delivering
the science programme. PPARC has surveyed the community and found
that there is a strong will for further engagement with industry
and other partners. Groups do need support in interacting with
industry and developing partnerships, and this is being addressed
by growth in the brokering programme and greater flexibility within
PIPSS to meet the needs of the academic and industrial communities.
17. The strategy involves industry having
access to funding for new projects from the earliest stage, so
its success depends upon there being sufficient funds through
the PPARC Grant in Aid and successive Spending Reviews to fund
new projects. Although PPARC aims to enhance contract return to
the UK, the ultimate decision is outside of PPARC control, being
normally subject to international competitive tendering.
18. PPARC does not own IP from R&D conducted
in support of its programme, instead it resides with the originators
of the research. PPARC therefore has no control over the management
of IP and negotiations concerning IP. With much of our research
being conducted in large international consortia, there are frequently
complex IP ownership and sharing agreement issues. PPARC aims
to promote best practice in IP management and encourages consortia
to establish appropriate IP agreements.
19. With the rising profile of KT, it is
a continuing challenge to better co-ordinate PPARC support for
KT with that of other organisations eg RDAs and HEIs.
PERFORMANCE MANAGEMENT
Collaborative R&D
21. By focusing PIPSS solely on KT we are
able to report separately on collaborative R&D oriented towards
KT and collaborative R&D for the PPARC science programme.
The new PRI mechanism which funds industry direct will make funding
industry more transparent; sub-contracting through grants to HEIs
meant that PPARC did not readily have access to all the information.
22. We will continue to measure the value
of collaborative research supported through PIPSS and outcomes
through final reports.
Training
23. Since a high proportion of PPARC PhD
students enter a career in industry and employers value their
skills it is felt inappropriate to consider only collaborative
schemes such as CASE and CASE Plus when considering knowledge
transfer. Instead we will focus on the wider cohort of PhDs. The
introduction of formal Performance Management has led PPARC to
commit to regular repeat career path surveys (the next due in
2008) and to include an additional assessment of employer satisfaction.
Commercialisation
24. PPARC will continue to review its involvement
and investment in a number of activitiesmany of which are
jointly funded (Research Councils' Business Plan Competition,
PPARC/RSE Enterprise Fellowships, PPARC Encouraging Enterprise
course, RCs Follow-on Fund). It is necessary to adapt with the
changing funding scenes in eg RDAs. PPARC will continue to follow
up the outcomes on the percentage leading to spin out and licensing.
People Exchange
25. PPARC will continue to measure its investment
in the programme of brokering events and to analyse attendance
at these events and evaluation questionnaires. PPARC will apply
more rigour in tracking subsequent funding applications. PPARC
will also continue to monitor funding through schemes such as
KTP, Discipline Hopperboth total investment and outcomes
through final reports.
Other industrial interaction
26. PPARC will measure UK contract return
through the UK Industrial Liaison Officer for CERN and also ESA
and ESO using appropriate PPARC staff contacts. We are doing this
already but will want to collect data in a more uniform way where
possible using common timeframes, currencies etc.
FUNDING
New OST funding
27. PPARC is using the new funding awarded
by OST in the Spending Review to enhance specific elements of
the programme. The capacity building funds are contributing to
the expansion of the brokering programme. The funds for KT and
interaction with industry are being applied equally to the KT
and technology development funding lines with the aim of increasing
the number of KT collaborations with industry and increasing the
direct funding to industry for technology development for the
PPARC programme.
Activity |
2005-06 |
2006-07 |
2007-08 |
PIPSS/other KT |
1,549 |
2,017 |
2,051 |
Programme Technology Development* |
250 |
849 |
987 |
Commercialisation |
61 |
69 |
75 |
Brokering |
344 |
512 |
522 |
Funded by:
Baseline |
2,204 |
2,404 |
2,592 |
OST additional award |
| 1,043 | 1,043 |
TOTAL | 2,204 | 3,447
| 3,635 |
*to be supplemented with funding from the grants line rising to >£2 million.
| | | |
1
http://www.parliament.uk/parliamentary-committees/science-and-technology-committee/scitech011205b.cfm Back
2
Guidelines for the Meaning of R&D for Tax Purposes, DTI
, HMT and HMR & Customs p1 and p3. Back
|