SOC02 - Emerging biomedical technologies: shaping practices and influencing policy
Submitting Institution
University of YorkUnit of Assessment
SociologySummary Impact Type
SocietalResearch Subject Area(s)
Medical and Health Sciences: Public Health and Health Services
Summary of the impact
Professor Andrew Webster's sociological research on developments in
biomedical science has been impactful in shaping regulatory practice and
influencing policy in relation to biobanking, stem cell research and
regenerative medicine. In particular, his research has been used to:
change donation procedures to the UK Biobank; influence regulatory
decisions made by the UK Stem Cell Bank Steering Committee (UKSCBSC);
contribute to regulatory practices associated with clinical trial design
and adoption, and inform the UK government's investment strategy in
regenerative medicine.
Underpinning research
As Director of the Science and Technology Studies Unit (SATSU), Webster
has undertaken a sustained programme of research on the impact of
developments in biomedicine over two decades. The research has focused on
the emergence of biomedical technologies related to biobanking, stem cells
and regenerative medicine. Professor Webster has been at York since 1999.
2:1 Between 2006-8 Webster was contracted by the Wellcome Trust,
acting on behalf of UK Biobank and its Ethics and Governance Council
(EGC), to undertake primary research to examine public attitudes towards
third party access to the bank. The findings showed that potential donors
to biobanks have concerns over security of information. Another concern
expressed by potential donors was the possibility that they might be
contacted in the future by the biobank once they had deposited their
samples. They thought that any re-contact would probably be an indication
of ill health or increased risk of disease.
2:2 Between 2005-9 Webster directed the Economic and Social
Research Council's (ESRC) Stem Cell Initiative, a £3.5m research programme
that examined the social, regulatory and bioethical aspects of this
emerging field. Working in collaboration with stem cell scientists (based
at the University of Sheffield), Webster's own research project focussed
on the scientific and regulatory problems associated with managing live
tissue, and explored how this would impact on stabilising evidence which
is an essential prerequisite for undertaking clinical trials. This work
showed how standardisation of cell batches is especially pertinent to
phase III trials, when variation in cell behaviour must be shown to be
within tolerable limits across multiple clinical sites in order to gain
regulatory approval. These findings had implications for clinical trial
design and showed how trials might usefully be redesigned in order to
incorporate non-trial evidence from hospital treatment. The research also
raised important issues for patient safety and pointed to the need for new
models of monitoring clinical trials.
2:3 In 2008-11, following up on the stem cell work, Webster was PI
for a European Commission social science project on regenerative medicine
(REMEDiE) that examined the socio-economic processes in the translation
from lab to product, including intellectual property rights and business
models. Three clinical and commercial models were identified that
illuminated the strategic choices made by organisations in the wider
context of regulatory environments: (1) a `cells as drugs model', which
adopts the pharmaceutical industry business model and involves the
development of a standardized protocol that can be used as a therapy
across a larger number of patients, and which is therefore potentially of
greater commercial interest and, via economies of scale, available at a
lower delivery cost to health services; (2) a `service clinic model' in
which cell therapies using autologous cell treatments are used on a
patient-by-patient basis (this approach is akin to the way in which IVF
clinics operate) and (3) a `repository model' that depends on the use of
cell storage (cryopreservation) for ready access for patients where a good
match can be found (here the key to successful clinical outcomes and
quality of life has been longer term follow up with patients by both
clinicians and the suppliers). These models of translation from lab to
product have informed the UK's investment strategy into regenerative
medicine (see 4:4 below).
References to the research
Webster, A. (2002) `Innovative health technologies and the social:
redefining health, medicine and the body' Current Sociology, 50:
443-458. DOI: 10.1177/0011392102050003009. This has had 118 citations in
top-ranked journals such as Social Science & Medicine and the
Sociology of Health and Illness. The paper provided a major
statement on innovation in health technology based on the £3m ESRC/
Medical Research Council (MRC) Innovative Health Technologies UK
peer-reviewed research programme that Webster led.
2) Webster, A. Martin, P., Lewis G., and Smart, A. (2004) `Integrating
pharmacogenetics into society: in search of a model', Nature Reviews
Genetics 5: 663-669. DOI: 10.1038/nrg1430. This has had 84 citations
in science journals including, Nature Reviews Drug Discovery and
the American Journal of Pharmacogenomics. The research was
supported by the Wellcome Trust.
3) Webster, A. (2007) `Crossing Boundaries: Social Science in the Policy
Room', Science, Technology & Human Values, 32: 458-478. DOI:
10.1177/0162243907301004. This has had 59 citations in top-ranked journals
including Social Studies of Science, The European Journal of Social
Science, Sociological Research Online. The paper prompted the editor
to commission an exchange of papers by the leading scholars Brian Wynne
(University of Lancaster) and Helga Nowotny (President and Chair of the
European Research Council) with a response by Webster.
4) Webster, A. (2007) Health, Technology and Society: A Sociological
Critique, Basingstoke: Palgrave Macmillan (shortlisted for Sociology
of Health and Illness 2008 Book Prize). Available on request
5) Webster, A. and Eriksson, L. (2008) `Governance-by-standards in the
field of stem cells: managing uncertainty in the world of `basic
innovation'', New Genetics and Society, 27: 99-111. DOI:
10.1080/14636770802077009.
6) Webster, A. Haddad, C., and Waldby, C. (2011) `Experimental
heterogeneity and standardisation: Stem cell products and the clinical
trial process', Biosocieties, 6: 401-419. DOI:
10.1057/biosoc.2011.17
Citations from Google Scholar, taken on 18/11/2013.
Grant funding on which the papers above are based includes:
1) Webster, A. (PI), `Quality assured science: the role of standards in
stabilising stem cell research', ESRC, £120,000 (2004-07) and the wider
ESRC Stem Cells Initiative Directorship, £437,000 (2005-09).
2) Webster, A. (Coordinator) EC FP7, `REMEDiE', £900,000 (2008-2011).
3) Webster A. (Chair and Grant Holder) `Bio-objects: Governing Matters at
the Intersection of the Society, Politics and Science', FP7 funded
Collaboration in Science and Technology (COST) programme, 300,000 euros
(2011-2014). This was only one of three social science Actions ultimately
supported in 2011 from a competitive field of 400 outline bids submitted
to the Commission.
Details of the impact
Webster's research in the field of biomedicine has been impactful both in
terms of shaping practice and influencing policy in relation to
biobanking, stem cell research and regenerative medicine by ensuring that
a `sociological voice' has been heard. Examples of his impact in these
fields include the following:
4:1 Changing donation procedures to the UK Biobank.
Following on from recommendations in the report by Webster, Public
attitudes to third party access and benefit sharing (2008),
the UK Ethics and Governance Council (EGC) and UK Biobank introduced
significant changes to their practices. As a result of Webster's findings
on public concerns (see 2:1 above) the UK Biobank has since produced
regular biannual reports to the EGC describing their data management
practices and their security systems. UK Biobank also acted on Webster's
recommendation to give more information about its security measures. It
did so by requiring since 2008 that the EGC employ information security
systems in order to enhance its ability to advise on and monitor this
area. In addition, UK Biobank changed its recruitment information for
potential donors to help reassure participants about the scale, form and
robustness of the security of personal biodata. Furthermore, as a result
of Webster's findings about anxieties among donors that they may be
re-contacted by the bank some time after donation, the EGC recommended
that UK Biobank investigate this in a systematic survey of participants
once 500,000 participants had been recruited. Webster's research has
therefore underpinned significant changes in practice that have been of
value to both the bank and to donors and potential donors in terms of
managing expectations and concerns.
4:2 Influencing regulatory decisions made by the UK Stem Cell
Bank Steering Committee (UKSCBSC). Since 2008 Webster has been on
the government's UKSCBSC, responsible for agreeing the deposit of and
access to banked cell lines by researchers. Underpinned by his research
(see 2.3 above) Webster has made a significant contribution to Committee's
decisions on, for example, regulation and intellectual property rights
involving UK and international cases. For example, in February 2011, he
was one of three members of the UKSCBSC responsible for meeting with
representatives of the Bio-Industry Association's Cell Therapy and
RegenMed Advisory Committee who were pressing for a change in the
intellectual property rights of firms. Webster and colleagues advised
against these demands for change because of concerns that this would
restrict public access to stem cell lines for research purposes and reduce
scope for innovation, a position adopted by the UKSCBSC.
4:3 Contributing to regulatory practices associated with
clinical trial design and adoption. As a result of his directorship
of the ESRC Stem Cell Initiative research programme, and his own related
research into regulatory issues associated with clinical trials (see 2:2
above), Webster was invited in 2012 to join a Ministerial Industry
Strategy Group (MISG) established by Sir Alasdair Breckenridge (Chair of
the Government's Medicines and Healthcare products Regulatory Agency).
Webster led the Socio-Economic and Policy Perspective strand at the MISG
workshop which examined the regulatory framework of the stem cell therapy
field. He also co-authored the MISG report, Regenerative Medicine
Regulatory Workshop (2012). This report contributed to the UK
Regenerative Medicine Community's evidence to the House of Lords, Science
and Technology Committee's Regenerative Medicine inquiry (July
2013), which drew on Webster's work on the adoption of stem cell therapies
through `institutional readiness' and the need to rethink the
epistemological assumptions of trialling (p. 1). This finding informed the
Group's recommendation that the full potential of the NHS to support
regenerative medicine needed to be released, for example, through the NHS
National Institute for Health Research (NIHR) being more receptive to
non-conventional forms of data and evidence. This is important in this
context because processes of standardisation using conventional clinical
trials do not apply for research dealing with live tissue. This was
reflected in the House of Lords' report in the recommendation that the
NIHR should create a regenerative medicine stream of its clinical research
network to address `the specific needs of regenerative medicine clinical
trial design' (paragraph 89).
4:4 Informing the UK government's investment strategy in
regenerative medicine. Data and findings from the REMEDiE project
(see 2.3 above) mapped the current activity in the field across Europe to
identify the scope for the commercial development of regenerative
medicine. The sociological research has illuminated the strategic
challenges and choices that commercial companies face in relation to
regulation when making decisions about future investments. This work has
been directly drawn upon by the House of Lords' Regenerative Medicine
inquiry (July 2013) and the Department for Business, Innovation and
Science's (BIS) report Taking Stock of Regenerative Medicine in the
United Kingdom (July, 2011). In particular the project
underpinned the report's development of an integrated `national strategy
focussing on improving the delivery, infrastructure, regulation and uptake
of cell therapy and regenerative medicine' (p. 45). This is being advanced
through the government's investment strategy by the Technology Strategy
Board's (TSB) Cell Therapy Catapult (www.catapult.org.uk),
established in 2012 to bring together businesses, scientists and engineers
to transform ideas into products and services to generate economic growth.
The REMEDiE report (http://www.york.ac.uk/satsu/remedie/reports/)
has also been utilised in the subsequent development of regenerative
medicine strategy in the UK. Based on his research expertise, Webster was
invited to become a member of the Research Councils UK's (RCUK) Key
Opinion Leaders group during 2011, with a Senior Scientific Officer at the
MRC commenting that the REMEDiE report provided `an excellent
foundation for many of the issues we need to consider under the Forward
Look exercise'. This group met at a workshop to identify the future
priorities for regenerative medicine research and development, taking into
account current activities, opportunities, and scientific, clinical and
commercial relevance.
This exercise led to the RCUK/TSB's A Strategy for UK Regenerative
Medicine 2012. Webster drafted the specific social science
components that problematize conventional trial design (see 2:2 above) and
regulatory pathways that are now in the document (p. 17). Commenting on
Webster's contribution to the strategic plan for regenerative medicine, a
Senior Scientific Officer of the ESRC has said: "This [social science
input into the Strategy for UK Regenerative Medicine] was always going
to be tough, because social science was seen as a `small player' in a
field of voluble and powerful big clinical and biological players.
However, Andrew managed to get key aspects of social science included in
the policy document. This was facilitated by his ability to provide
inputs in a way that policy makers can actually use... I then asked him
to take forward one of the outputs of the strategy, a workshop in an
area of social science interest, thus his contribution spanned right
though from drafting the strategy through to practical implementation of
aspects of it."
In 2013 Webster's work in this field was sufficiently well recognised for
him to be invited to organise a House of Commons Workshop on regenerative
medicine for the All-Party Parliamentary Group of MPs for Social Science
and Policy in order to a) demonstrate how social science can engage with
complex bioscience issues and b) to inform MPs of future challenges,
especially in regard to clinical trials evidence, design and patients'
long-term safety.
In summary, Webster's long standing engagement in a range of policy fora
has ensured that those involved in the regulation of, and investment in,
new biotechnologies take into account the wider socio-political processes
which shape their emergence and are sensitive to the implications of their
use in practice.
Sources to corroborate the impact
- Webster et al, (2008) Public attitudes to third party access and
benefit sharing: their application to UK Biobank (online)
http://www.egcukbiobank.org.uk/stellent/groups/egc/@msh_grants/documents/web_document/wtx052208.pdf
(4:1)
- Minutes of the UKBiobank EGC: http://www.egcukbiobank.org.uk/stellent/groups/egc/@msh_grants/documents/web_document/wtx052638.pdf (page 3) (4:1)
- Council Secretary, UKBiobank EGC, Wellcome Trust, London (4:1)
- Director, UK Stem Cell Bank (4:2)
-
Regenerative Medicine Regulatory Workshop, MHRA, London, 30th
October 2012. Available here: http://www.mhra.gov.uk/home/groups/comms-
ic/documents/websiteresources/con282165.pdf (4.3)
-
House of Lords Science and Technology Select Committee Regenerative
Medicine Enquiry — Submission of written evidence from UK Regenerative
Medicine Community. Written evidence available to panel on request
(4.3)
-
House of Lords Science and Technology Committee, Regenerative
Medicine report, HL Paper 23, (July 1 2013). This report also
cited the REMEDiE project several times, see paragraphs 36-8. (4.3; 4.4)
- Department for Business, Innovation and Skills (July 2011) Taking
Stock of Regenerative Medicine in the United Kingdom, p. 45; see
also pp 23-26 and p. 40. http://www.bis.gov.uk/assets/biscore/innovation/docs/t/11-1056-taking-stock-of-regenerative-
medicine.
Further corroboration can be provided by the Private Secretary to the
Secretary of State at the Department of Business, Innovation and Skills
(4.4)
- Testimony from Senior Scientific Officer, Head office, Medical
Research Council (4.4)
- Medical Research Council, (2012) A Strategy for UK Regenerative
Medicine, London. See p. 17. http://www.mrc.ac.uk/Utilities/Documentrecord/index.htm?d=MRC008534
(4.4)
- Testimony from Senior Scientific Officer, ESRC (4.4)