2008 Barcelona - European Society of Human Genetics
2008 Barcelona - European Society of Human Genetics
2008 Barcelona - European Society of Human Genetics
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EMPAG Plenary Lectures<br />
EPL5.2<br />
the multiplex initiative: a study to determine who seeks free<br />
multiplex genetic susceptibility testing among a healthy<br />
population <strong>of</strong> American adults<br />
C. M. McBride 1 , S. Hensley-Alford 2 , R. Reid 3 , E. Larson 3 , A. D. Baxevanis 1 , L.<br />
C. Brody 1 ;<br />
1 National <strong>Human</strong> Genome Research Institute, National Institutes <strong>of</strong> Health,<br />
Bethesda, MD, United States, 2 Henry Ford Health System, Detroit, MI, United<br />
States, 3 Group Health Cooperative, Seattle, WA, United States.<br />
Genetic tests designed to provide individuals estimates <strong>of</strong> their disease<br />
risk are now commercially available . In theory, this information<br />
can be used to guide risk reduction behaviors . Currently, little is known<br />
about who might avail themselves <strong>of</strong> such testing and how they would<br />
interpret their test results . To understand the impact <strong>of</strong> such testing, we<br />
developed a prototype genetic test including 15 polymorphisms associated<br />
with increased risk for eight common conditions . Healthy adults<br />
ages 24-40 receiving care at a large managed-care organization are<br />
<strong>of</strong>fered testing via Web-based information modules (http://multiplex .<br />
nih .gov) . Individuals opting for testing receive test results by mail, with<br />
telephone follow-up from a research educator; they are contacted<br />
three months after receiving test results for a final telephone survey.<br />
Our study design enables us to evaluate approaches that facilitate decision<br />
making about genetic tests, assess methods for communicating<br />
test results, and explore whether health system factors influence<br />
health outcomes . Baseline surveys have been completed on ~1600<br />
individuals. For most, this is their first experience with clinical research.<br />
The majority <strong>of</strong> those completing the baseline survey are high school<br />
graduates, married, self-report being in excellent or good health, and<br />
are relatively familiar with their family’s health history . So far, 472 individuals<br />
visited the Web site to consider testing; 272 have decided to<br />
undergo testing . Factors regarding reviewing information about testing<br />
on the Web and ultimate uptake <strong>of</strong> testing will be presented . Early<br />
results are already providing insight regarding how healthy individuals<br />
might respond to genetic susceptibility testing .<br />
EPL5.3<br />
Willingness for blood donation for genomic studies: a<br />
comparative study between scientists and the public<br />
K. Muto 1 , A. Nagai 2 , A. Tamakoshi 3 , I. Ishiyama 2 , K. Kato 4 , Z. Yamagata 2 ;<br />
1 The University <strong>of</strong> Tokyo, Tokyo, Japan, 2 Yamanashi University, Yamanashi,<br />
Japan, 3 Aichi Medical University, Aichi, Japan, 4 Kyoto University, Kyoto, Japan.<br />
Objectives: To compare attitudes between scientists and the public in<br />
Japan towards human genomic research and to seek new approaches<br />
for better science communication, we conducted questionnaire surveys<br />
and focused group interviews .<br />
Methods: Self-reporting questionnaires were sent by post to 4,257<br />
scientists regarding molecular biology and human genetics/ genomics<br />
via two academic societies in Japan . They were asked about their<br />
value and risk cognition towards genome sciences, social norms for<br />
accountability and responsibility . We compared these results with the<br />
data we obtained from 2,171 citizens in 2005 .<br />
Results: A total <strong>of</strong> 1,494 completed our questionnaire (586 men and<br />
157 women) . The total response rate was 35 .1% . Both groups support<br />
genome sciences very positively . The main difference was observed<br />
on willingness <strong>of</strong> blood donation for genomic research . 74 .8 % <strong>of</strong> the<br />
scientist group responded that they were willing to donate for genomic<br />
research regarding healthcare, while 39 .3% <strong>of</strong> the citizen group did .<br />
Regarding the conditions for donation, the scientist group responded<br />
that they would donate their blood when they could agree the research<br />
purpose and significance (87.3%). On the other hands, most <strong>of</strong> the citizen<br />
group responded that they would donate if researchers disclosed<br />
personal results (78 .5%) . From the FGI data to students, their understandings<br />
<strong>of</strong> “breach <strong>of</strong> personal information” and “disclosure <strong>of</strong> personal<br />
analyzed data” were obscure and were influenced by the media<br />
which criticized science . Discussion: We need to start discussions on<br />
the process <strong>of</strong> disclosure <strong>of</strong> personal analyzed data to each research<br />
participant for future human genomic research .<br />
EPL5.4<br />
Privatising susceptibility to disease: the need for regulation?<br />
A. J. Clarke1 , I. Frayling2 , M. Arribas-Ayllon1 , S. Sarangi1 ;<br />
1 2 Cardiff University, Cardiff, United Kingdom, University Hospital <strong>of</strong> Wales, Cardiff,<br />
United Kingdom.<br />
As genetic technologies continue to reach new areas <strong>of</strong> healthcare,<br />
there are concerns whether genetic services might be compromised<br />
by consumer-oriented practices, especially promoted via TV or the<br />
internet . The marketing <strong>of</strong> genetic testing as capable <strong>of</strong> shaping lifestyles<br />
through the forecasting <strong>of</strong> future health may promise consumers<br />
more than the science can deliver, emphasising the supposed<br />
‘benefits <strong>of</strong> knowing’ while downplaying the potential hazards. From<br />
the pr<strong>of</strong>essionals’ point <strong>of</strong> view, the marketing <strong>of</strong> commercial genetic<br />
services may misrepresent the complexity and uncertainty <strong>of</strong> genetic<br />
risk, obscuring reality with the fog <strong>of</strong> marketing . To illustrate our point,<br />
we consider a recent reality-based TV programme, broadcast in the<br />
UK, that documented the experiences <strong>of</strong> four ‘celebrities’ who consented<br />
to testing in a private London-based practice . Our analysis <strong>of</strong><br />
the programme’s transcript will show how interactions with the clients<br />
departed from established protocols <strong>of</strong> pr<strong>of</strong>essional practice in several<br />
ways: overestimating clinical validity, underestimating the clinical uncertainty<br />
and the possibility <strong>of</strong> problems from test results, and practicing<br />
inappropriately directive (`promotional’) counselling . How should<br />
the genetics services community in Europe respond to such developments?<br />
Our findings emphasise the already well recognised need for<br />
the development <strong>of</strong> regulatory and legislative approaches to monitor<br />
and/or prevent such practices . We consider several strategies for establishing<br />
standards <strong>of</strong> pr<strong>of</strong>essional practice . One important concern<br />
is to ensure that too heavy-handed an approach does not inhibit the<br />
appropriate development <strong>of</strong> genetic services <strong>of</strong>fered in good faith by<br />
non-specialist health pr<strong>of</strong>essionals .<br />
EPL5.5<br />
Gene patents and diagnostics: numbers don’t count<br />
N. Berthels1,2 , B. Verbeure1 , E. van Zimmeren1 , G. Van Overwalle1 , G. Matthijs2<br />
;<br />
1 2 Centre for Intellectual Property Rights, KULeuven, Leuven, Belgium, Center<br />
for <strong>Human</strong> <strong>Genetics</strong>, KULeuven, Leuven, Belgium.<br />
Gene patenting is allegedly abundant and hampering access to genetic<br />
testing . This was given pro<strong>of</strong> when Myriad <strong>Genetics</strong> exerted its<br />
exclusive rights to BRCA1/2 . The case highlighted problems <strong>of</strong> patenting<br />
and licensing <strong>of</strong> genes and methods for genetic diagnosis, and<br />
laboratories’ ignorance to patents, infringement, and risk for being litigated<br />
. In practice, laboratories usually lack legal expertise to engage<br />
in patent analysis and licensing negotiations . Patent abundance could<br />
create ‘patent thickets’, e .g . when many patents owned by several patent<br />
owners relate to a single test, and complicate licensing .<br />
We aim at elucidating the patent situation in genetic diagnostics . Detailed<br />
patent landscape analyses <strong>of</strong> triplet repeat expansion diseases<br />
- Fragile X, Huntington disease, spinocerebellar ataxia, Friedreich<br />
ataxia, myotonic dystrophy, Kennedy disease - show patents’ validity<br />
in time and territory, scope <strong>of</strong> protection, and, where possible, licensing<br />
mode. Both in Europe and US, disease-specific patents are<br />
granted, and applications under examination . Moreover, the patent<br />
situation <strong>of</strong> these diseases is complicated by ‘generic’ patents relating<br />
to their shared etiology . Broad in scope, these patents could also be<br />
overlooked in disease-specific patent searches because <strong>of</strong> their nondisease-specific<br />
nature.<br />
In Europe gene patenting seems less abundant than proclaimed,<br />
in contrast to the US where patent thickets, and overlapping patent<br />
scope, are observed . Gene patent families not always have a <strong>European</strong><br />
equivalent, or the <strong>European</strong> patent has lapsed in most, or all,<br />
countries . Despite low gene patent numbers in Europe as observed in<br />
this study, caution should remain towards broad patents and potential<br />
restrictive licensing conditions .<br />
EPL6.1<br />
Psychosocial impact <strong>of</strong> X-linked carrier status: Experiences <strong>of</strong><br />
Female Adrenoleukodystrophy carriers<br />
J. Bowen 1 , R. Mountford 2 , L. Kerzin-Storrar 3 ;<br />
1 Sheffield Clinical <strong>Genetics</strong> Service, Sheffield Children’s NHS Foundation<br />
Trust, Sheffield, United Kingdom, 2 Department <strong>of</strong> Medical <strong>Genetics</strong>, Liverpool<br />
Women’s NHS Foundation Trust, Liverpool, United Kingdom, 3 Regional Genetic