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The elusive ideal of inclusiveness: lessons from a worldwide survey of neurologists on the ethical issues raised by whole-genome sequencing
BMC Medical Ethics volume 18, Article number: 28 (2017)
The anticipation of ethical issues that may arise with the clinical use of genomic technologies is crucial to envision their future implementation in a manner sensitive to local contexts. Yet, populations in low- and middle-income countries are underrepresented in studies that aim to explore stakeholders’ perspectives on the use of such technologies. Within the framework of a research project entitled “Personalized medicine in the treatment of epilepsy”, we sought to increase inclusiveness by widening the reach of our survey, inviting neurologists from around the world to share their views and practices regarding the use of whole-genome sequencing in clinical neurology and its associated ethics. We discuss herein the compelling scientific and ethical reasons that led us to attempt to recruit neurologists worldwide, despite the lack, in many low- or middle-income countries, of access to genomic technologies. Recruitment procedures and their results are presented and discussed, as well as the barriers we faced. We conclude that inclusive recruitment remains a challenging, albeit necessary and legitimate, endeavour.
Genome Canada and Génome Québec granted support to a research project entitled “Personalized medicine in the treatment of epilepsy” . While the search for epilepsy genes has allowed the identification of several genes in idiopathic generalized epilepsy, as well as in syndromic epilepsies, determining genetic contributions to common epilepsies is challenging and much remains to be learned [2–5]. Next-generation sequencing technologies (NGS), such as whole-genome sequencing (WGS) and whole-exome sequencing (WES), offer a powerful tool in research on the genetics/genomics of epilepsy [5, 6]. Some phases of the project aimed at assessing the clinical utility of NGS as a diagnostic tool, in particular for pharmaco-resistant epilepsies. The project also sought to assess the societal and ethical issues that arise at the juncture of genomics research and personalized treatments. It notably examined neurologists’ views on the use of WGS in their practice, as well as the practical and ethical issues that may surround WGS and the return of its results to patients.
An internet-based survey was conducted to document neurologists’ views and practices on six main topics:
Use of genetic testing (including use of WGS) in clinical practice;
Circumstances in which WGS should be offered to patients;
Concerns about the use of WGS in clinical practice;
Potential benefits of the use of WGS in clinical practice;
Return of WGS results;
Needs concerning training and/or resources in genomics/genetics.
The survey was developed in collaboration with the neurologists involved in the clinical part of the research project. It was shortened and slightly modified after being pre-tested by six other neurologists in Canada. The estimated time to fill out the questionnaires was 15 min.
We invited neurologists from low-, middle-, and high-income countries to participate in this survey. This paper comments on the reasons that led us to attempt to reach for such inclusiveness, the challenges we faced, and the lessons we learned.
Why include neurologists from low- to middle-income countries in such a project?
For a long time, the principles of justice and equity in research ethics have centered on the protection of marginalized and vulnerable populations (such as children, minorities, and pregnant women), yet with a pernicious effect: the protection afforded to vulnerable people has significantly prevented the latter from gaining a fair access to clinical studies . This issue has been debated, particularly in the field of clinical research, where a lack of representation can affect the external validity of results, which in turn may increase health disparities between populations or communities . Fair selection of participants in any kind of research project, clinical or not, is an important ethical requirement. It has become increasingly debated, notably in the field of global health research, which aims to promote greater equity worldwide. As stressed by the Canadian Coalition for Global Health Research, equity cannot be achieved without proactively and intentionally providing opportunities for “other voices” and diverse people to participate in research processes .
Ultimately, in any research project, research ethics boards have to ensure that there is a valid, reasonable, and scientifically grounded reason which justifies the exclusion of individuals from the opportunity to participate in research protocols. Yet, to what extent is such an ethical requirement achievable, or, in certain circumstances, even desirable?
The decision to include neurologists from around the world in our survey resulted from a process with cascading effects, which started with the suggestion, made by our funding agency, to include European neurologists in our survey. The World Health Organization (WHO) regional office for Europe counts 53 countries/geographical areas , among which, several are lower-middle to upper-middle-income areas, according to the World Bank classification . In order to achieve fair inclusiveness in the selection of our participants, the question was raised whether such countries should be included or not, and if so, whether (and why) we could ignore countries in other regions of the world. While we expected that recruiting neurologists in many low- to middle-income countries might be challenging, as neurologic expertise [12, 13] and access to genomic technologies are limited or non-existent in many of the poorest countries, we had no legitimate reason not to try. On the contrary, many factors induced us to include all countries, such as explained below.
The economic and social impact of various neurological disorders such as stroke, Alzheimer’s and Parkinson’s diseases, and epilepsy in developing countries is high [14, 15]. Nearly 80% of the people with epilepsy live in low- to middle-income countries, and three fourths of them may not receive the treatment they need (treatment gap) . Research and innovation gaps between emerging and developed countries are still wide, and most of the developing countries must rely on other more developed countries for funding and developing capacities . The factors that may explain a slow recognition and implementation of improved care for people with neurological disorders in low- to middle-income countries are various, including resources-limited settings, unavailability of medications, lack of epidemiological data, the perception that neurologic disorders are too complex to address, a failure to recognize the cost of inaction, the stigma associated with the disorders, and cultural beliefs about their causation [17–19].
Researchers and international organizations have thus been calling for greater recognition from health agencies and more collaborative research to address the management of epilepsy in the developing world [13, 18]. According to WHO, projects that aim to reduce the treatment gap and morbidity of people with epilepsy, train health professionals, and develop models integrating epilepsy control into local health systems are ongoing in many countries . This also includes projects involving the use of technology that may not be accessible in the poorest countries, such as is the case for the development of a mobile application to help “non-doctors” to diagnose (or prevent them from misdiagnosis of) epileptic seizures .
At the same time, the involvement of low- to middle-income countries in genomic research has been much debated, with explicit calls for the development of strategies at the local, national, regional and global levels, to encourage the production, dissemination, and use of genomic knowledge more equally, as well as to mitigate a genomic divide between developed and developing countries . Debates have focused on clinical research, addressing, in particular, ethical challenges, such as priority setting, capacity building, community engagement, informed consent, ethical review, management of samples, and benefit-sharing (e.g., [22–25]) There are obvious ethical benefits to conducting genomic research on diseases affecting people in low- to middle-income countries, so as to reduce global health inequalities [22, 26]. This is particularly true in genetic research, where the findings resulting from studies conducted on specific populations, such as Caucasians, may not be relevant for other populations . Although one may think that access to genetic technologies may not be affordable to the majority of populations in most low- to middle-income countries without international collaboration, progress has been made in this regard and ongoing genomic projects are conducted in a number of these countries [26–28].
Finally, several authors have stressed the importance of genetics in neurological disorders in the developing world (e.g., [29, 30]). An example of active research is the H3Africa project that focuses on the study of the complex interplay between environmental and genetic factors, which determines disease susceptibility (including hereditary neurological disorders) and drug responses in African populations . In this context, the inclusion of neurologists located in low- to middle-income countries in a study aimed at assessing their views on the use of genomic technologies in their practice makes sense, independent of their actual access to these technologies. Anticipation of the ethical issues that could arise from the use of genomic technologies in low- to middle-income countries is crucial to envision their future use, develop sound partnerships, capacity building, and benefit-sharing which are sensitive to the local context and acceptance. For instance, our survey covers ethical issues, such as the need for resources, or still greater concerns about increased risks of stigma resulting from individuals’ genotyping. It is clearly worth exploring the perceptions of genetic testing in countries where neurological diseases are often stigmatizing conditions, when they are explained in terms of traditional beliefs [18, 32]. In such a context, presuming that neurologists in low- to middle-income countries would have little to say about the use of genomics technologies, notably because of a lack of access or expertise, is unacceptably paternalistic and biased.
Recruiting neurologists worldwide: practical challenges
Our survey focused on the clinical use of WGS, so we could not limit ourselves to researchers. While email addresses of researchers can often be found on the internet through their publications or the website of the organizations they are affiliated to, public access to email addresses of physicians, whatever their specialty is seriously limited. One solution to also reach practitioners whose email addresses were not publicly accessible was to contact medical associations, colleges of physicians, and neurology associations/societies worldwide asking them to help us disseminate our invitation (which contained a hyperlink to the web-based survey) among their neurologist members. Procedures are further described in Table 1 legend. We identified 238 medical associations/colleges of physicians in 215 countries/geographical areas. Personalized emails were sent to 214 medical associations. These emails included the name of the contacted organization, its country or geographical region, a description of our study with a hyperlink to the survey, an estimate of the time needed to fill out the questionnaire, and a request to forward a letter of invitation to any neurologist members. Our emails stressed that access to, and expertise in, genetic technologies were not required to participate. A vast majority (91%) did not respond to our initial emails. Also, the initial reminders did not improve our response rate. Therefore, this recruitment procedure was abandoned before all reminders were sent. Thereafter, we focused exclusively on neurology associations.
We identified 190 neurology associations in 215 countries or geographical areas (Table 1). Email addresses could not be found or were invalid for four of them. Personalized emails and reminders were sent from September to December 2014. We attempted to contact the heads of these associations directly whenever possible, rather than using generic association accounts (see legend of Table 1, letter c). Sixty-five percent of these associations never answered, despite reminders and/or personalized emails to their board members. The 53 associations that agreed to help us were mainly located in Europe and South American countries. Despite the dissemination of our invitation by 53 associations, participation rates remained low (see Table 2). We subsequently sent personalized direct invitations and reminders to 830 neurologists whose email addresses were accessible on neurology association websites (such as board members or other contacts provided), as well as to 581 corresponding authors in clinical neurological research and 260 epileptologists, who were identified on the website of the International League Against Epilepsy (ILAE) (see Table 3). The survey was online for approximately nine months and was closed in May 2015. Our final sample was composed of 204 neurologists located mainly in Europe, South America, Central America, and the Caribbean (see Tables 3 and 4).
Response rates to Web surveys vary widely and depend on a variety of factors (e.g., characteristics of the audience, purpose of the survey, perceived benefit from participating in survey, incentives, length, convenience) . Achieving high response rates when surveying physicians has always been a challenge [34, 35], as shown by the examples below. Helman and colleagues sought to determine why NGS was not broadly used by pediatric neurologists by surveying members of the Child Neurology Society during the 2015 Annual Meeting of the Society . While the participation in the meeting was evaluated to be 1000 members , only 67 of them completed the survey (i.e., 6.5%). In 2012, Machini and colleagues sought to survey health care professionals who are likely to be involved in the implementation of WES and WGS . Their attempts to recruit other health professionals than genetic counsellors proved unsuccessful. Middleton and colleagues achieved better participation rate in a survey aimed to gather the views of various stakeholders (worldwide) towards sharing incidental findings from whole-genome studies [38, 39]. However, they had to deploy an impressive combination of measures to disseminate their survey, such as advertisement on television, newspapers, internet (e.g., on Google), development of a website, hiring an independent film-maker to produce movies that provide the contextual information needed to answer the questions, creation of accounts in various social media (Facebook, Twitter, etc.), distribution of flyers, participation to congresses, direct invitations. They also conducted five pilot studies to develop their online survey . Despite these efforts, their final sample of respondents was mainly composed of laypersons (i.e., public; 71%). Genetic/genomic professional researchers accounted for 17% of the sample, and “other health professional” - which include many others than physicians  - for 12%. We thus knew that we would face challenges in recruitment, given our limited resources.
Furthermore, “[c]ommitment to inclusion invites those involved in global health research to promote equity by proactively and intentionally providing opportunities for diverse people to be engaged in research processes” , [p. 5], as to avoid differentials in power among actors in the process. However, regarding our study, such engagement of neurologists or their association was not practically and financially feasible at a worldwide level. We acknowledge that a questionnaire may be shaped by researchers’ perceptions and values. It may contain concepts and categories that were influenced by such values, and as such may constitute the exercise of productive power [41, 42]. Thus, in order to give a voice to all neurologists worldwide, spaces for comments were added into the questionnaire, so as to avoid overly restrictive options for answers that would not fit into the reality of local contexts. Moreover, our survey was developed after extensive literature review of ethical issues that can arise in any location. Our letter of invitation as well as our emails to neurology associations emphasized that access to genetic technologies or expertise in this field was not needed to complete the survey. As we were not dealing with a vulnerable population, and given the nature of our project, we anticipated no risk for participants. In the opposite, we viewed this project as a beneficial step to produce results that could serve the aims of health equity if inclusion was broadened worldwide.
Ultimately, 53 neurology associations from around the world agreed to disseminate our invitation among their members, which suggests that the quality, or the local relevance of our questions, were not determinant factors for the high rate of non-response from the contacted associations. In addition, non-response was frequent in all countries, and from low- to high-income areas; thus we cannot simply infer that it was due to local specificities linked to the lack of expertise or access to genetic technologies. A vast majority of reactions from organizations that answered our first email or reminder, in particular in middle-income countries, were highly positive, although this enthusiasm did not translate into higher rates of local participation of neurologists. In all, 56 respondents (36%) were located in low- to middle-income countries (Table 4), demonstrating that neurologists in such countries actually saw an interest in participating. Conversely, participation rates were particularly low in North America, compared to Europe and Latin America. There are of course limitations to the interpretation of such results. Actual participation rates could not be calculated. We could not get information about the number of members of every participating association and had no control over the means used by participating organizations to disseminate our invitation (mass email to members, invitation published in a newsletter or on a website). Participation rates could clearly be impacted by these means of dissemination, as well as by snowball sampling procedures and the fact that some countries were more (or less) represented in the 1600 invitations we directly sent to neurologists in an attempt to improve the overall participation rate (Table 3). Furthermore, 50 respondents did not indicate their location.
In an analytical framework developed in 2008, Sarre and colleagues acknowledged the numerous challenges faced by researchers in the recruitment of organizations, practitioners and patients in primary care research . While our study was not a clinical one, it required similar efforts to convince numerous medical and neurology organizations to get involved in our recruitment process. We were not expecting such a high rate of non-answer or refusal to cooperate from these associations. Most associations that explicitly refused to disseminate our invitation among their members invoked internal policies. In several cases, the associations explained that they could not contact their members for a research project in the development of which they had not been initially involved or in which they were not formally collaborating. Some associations would only provide us with postal addresses of their members and/or required payment. While rare, and only in high-income countries, in some cases we were notified that our emails or reminders were annoying, if not harassing. There are legitimate reasons for associations to act as gatekeepers, in order to avoid over or undue solicitation. This however constitutes a major barrier to participation. It means that many neurologists could not participate because they were not informed about our survey. To what extent this may constitute the exercise of structural power that may impede broader participation in research remains to be documented, as at the same time, our survey participation rate barely increased after sending more than 1600 direct invitations to neurologists worldwide (Table 3).
We virtually screened the whole world, gathering web data to document the prevailing situation in the field of neurology in numerous countries, to help us interpret our results. It was crucial to give a voice to neurologists in countries that are most often excluded from such surveys, given economic and socio-demographic factors, as well as considerations about access to, and expertise in, genomic technologies. Such factors, notably in countries where genomic research is ongoing, obviously do not prevent neurologists from having valuable perspectives on the matters we were addressing in the survey. Ethical issues, such as local acceptability of genomic technologies and sound benefit-sharing in genomic research, must be anticipated, and this cannot be achieved without exploring the views of those who will be at the forefront of implementing and using such technologies.
As with most studies that involve the recruitment of health professionals, ideal inclusion has been a challenging endeavour. A possibility for greater success could have been to focus on one or two countries, and one or two neurology associations only. Yet, the low response rate in North America challenges such a viewpoint. From a global health research perspective, engagement of neurology associations in the development of the questionnaire itself could facilitate access to members, and overcome gate-keeping barriers.
It is important to acknowledge that researchers may face huge challenges in their efforts to achieve broad and fair inclusiveness, in any kind of research. This is also a lesson for those serving on research ethics boards: the ethical requirement of fair inclusion in research protocols must be balanced with practical difficulties, priority-setting in a context of limited funding resources, as well as with the potential risks that such a requirement can raise for the validity of results.
In global health research, “honouring th[e] principle [of inclusion] involves actively exploring ways to create opportunities for other voices, particularly for stakeholders who might not be immediately identified” , [p. 5]. Did we aim too high by attempting a worldwide recruitment? We think that in a global research effort, responsibilities must be distributed among actors and all have to contribute, as illustrated by this Amerindian legend:
One day, a huge fire started in a forest that was home to several animal species. All of them were terrified and aghast, watching the disaster helplessly. “What’s going to happen to us? What will become of us?” During this pandemonium, only one tiny hummingbird was busy, going to get a few drops of water in its beak to throw on the fire. He flew back and forth non-stop from the river to the blaze. After a while, the armadillo, irritated by the hummingbird’s pathetic efforts, said: “Are you a fool! You don’t believe that with these drops of water you’re going to put out the fire!“The hummingbird responded:”I know I won’t, but I’m doing my share” .
International league against epilepsy
World Health Organization
Génome Québec: Personalized Medicine in the Treatment of Epilepsy. http://www.genomequebec.com/152-en/project/personalized-medicine-in-the-treatment-of-epilepsy.html (2013). Accessed 26 Aug 2016.
Cross JH, Kluger G, Lagae L. Advancing the management of childhood epilepsies. Eur J Paediatr Neurol. 2013;17:334–347.5.
Helman G, Bonkowsky JL, Vanderver A. Neurologist comfort in the use of next-generation sequencing diagnostics: current state and future prospects. JAMA Neurol. 2016;73:621–622.6.
Gahl WA, Markello TC, Toro C, Fajardo KF, Sincan M, et al. The National institutes of health undiagnosed diseases program: insights into rare diseases. Genet Med. 2012;14:51–59.7.
Hildebrand MS, Dahl HH, Damiano JA, Smith RJ, Scheffer IE, et al. Recent advances in the molecular genetics of epilepsy. J Med Genet. 2013;50:271–279.8.
Kearney JA. Advances in epilepsy genetics and genomics. Epilepsy Curr. 2012;12:143–146.9.
Mastroianni A, Kahn J. Swinging on the pendulum. Shifting views of justice in human subjects research. Hastings Cent Rep. 2001;31:21–28.2.
Hurlimann T, Stenne R, Menuz V, Godard B. Inclusion and exclusion in nutrigenetics clinical research: ethical and scientific challenges. J Nutrigenet Nutrigenomics. 2011;4:322–343.3.
Canadian Coalition For Global Health Research (CCGHR). CCGHR Principles for Global Health Research. 2015. http://www.ccghr.ca/wp-content/uploads/2015/10/CCGHR-Principles-for-GHR-FINAL.pdf. Accessed 22 Nov 2017.
World Health Organization, Regional Office For Europe: Countries. http://www.euro.who.int/en/countries (2016). Accessed 26 Aug 2016.
The World Bank: Country and Lending Groups. https://datahelpdesk.worldbank.org/knowledgebase/articles/906519 (2016). Accessed 26 Aug 2016
Birbeck GL. Epilepsy care in developing countries: part ii of ii. Epilepsy Curr. 2010;10:105–10.
Ahmad A, Komai S. Reducing the gap in neuroscience research between developed and developing countries. Int J Neurosci. 2016;126:287–8.
Pandey S. Challenges in neurological practice in developing countries. Indian J Public Health. 2012;56:227–30.
World Health Organization. Neurological Disorders: Public Health Challenges. In: Mental Health. WHO. 2006. http://www.who.int/mental_health/neurology/neurodiso/en/. Accessed 26 Aug 2016.
World Health Organization: Epilepsy – Fact Sheet. http://www.who.int/mediacentre/factsheets/fs999/en/ (2016). Accessed 26 Aug 2016.
Silberberg D. The high impact of neurologic disorders in developing countries: the struggle for global recognition. Neurology. 2011;77:307–8.
Newton CR, Garcia HH. Epilepsy in poor regions of the world. Lancet. 2012;380:1193–201.
Scott RA, Lhatoo SD, Sander JW. The treatment of epilepsy in developing countries: where do we go from here? Bull World Health Organ. 2001;79:344–51.
Patterson V, Singh M, Rajbhandari H. A phone app to diagnose epileptic seizures: a useful tool to reduce the epilepsy treatment gap in poorer countries. In ins poster session - the global burden of neurological diseases poster presentations. Neurology. 2014;82(Supplement I10-1.009):1526–632.
Thorsteinsdóttir H, Daar AS, Smith RD, Singer PA. Genomics Knowledge. In: Smith R, Beaglehole R, Woodward D, Drager N, editors. Global Public Goods for Health: health economics and public health perspectives. Oxford: Oxford University Press; 2003. Online: http://www.who.int/trade/distance_learning/gpgh/gpgh5/en/ Accessed 26 Aug 2016.
de Vries J, Bull SJ, Doumbo O, Ibrahim M, Mercereau-Puijalon O, et al. Ethical issues in human genomics research in developing countries. BMC Med Ethics. 2011;12:5.
Parker M, Kwiatkowski DP. The ethics of sustainable genomic research in Africa. Genome Biol. 2016;17:44.
Traore K, Bull S, Niare A, Konate S, Thera MA, et al. Understandings of genomic research in developing countries: a qualitative study of the views of MalariaGEN participants in Mali. BMC Med Ethics. 2015;16:42.
Pratt B, Hyder AA. Applying a global justice lens to health systems research ethics: an initial exploration. Kennedy Inst Ethics J. 2015;25:35–66.
Nyika A. Ethical and practical challenges surrounding genetic and genomic research in developing countries. Acta Trop. 2009;112 Suppl 1:S21–31.
Hardy BJ, Seguin B, Goodsaid F, Jimenez-Sanchez G, Singer PA, et al. The next steps for genomic medicine: challenges and opportunities for the developing world. Nat Rev Genet. 2008;9 Suppl 1:S23–27.
Seguin B, Hardy BJ, Singer PA, Daar AS. Genomic medicine and developing countries: creating a room of their own. Nat Rev Genet. 2008;9:487–93.
Forero DA, Velez-van-Meerbeke A, Deshpande SN, Nicolini H, Perry G. Neuropsychiatric genetics in developing countries: Current challenges. World J Psychiatry. 2014;4:69–71.
Landoure G, Maiga Y, Samassekou O, Nimaga K, Traore M, et al. Epilepsy genetics in Africa: challenges and future perspectives. North Afr Middle East Epilepsy J. 2014;3:5–7.
Human Heredity and Health in Africa (H3Africa): Clinical and Genetic Studies of Hereditary Neurological Disorders in Mali. http://h3africa.org/consortium/projects/16-projects/75 (2013). Accessed 26 Aug 2016.
Keusch GT, Wilentz J, Kleinman A. Stigma and global health: developing a research agenda. Lancet. 2006;367:525–7.
Lafrenière D, Hurlimann T, Menuz V, Godard B. Evaluation of a cartoon-based knowledge dissemination intervention on scientific and ethical challenges raised by nutrigenomics/nutrigenetics research. Eval Program Plann. 2014;46:103–14.
Viera AJ, Edwards T. Does an offer for a free on-line continuing medical education (CME) activity increase physician survey response rate? A randomized trial BMC Res NoteS. 2012;5:129.
Dykema J, Stevenson J, Day B, Sellers SL, Bonham VL. Effects of incentives and prenotification on response rates and costs in a national web survey of physicians. Eval Health Prof. 2011;34:434–47.
Mack KJ. From the President (Editorial). ConNectionS Magazine (Child neurology society). 2016;24(1):2. https://www.childneurologysociety.org/resources/resources-detail-view/winter-2016-cns-connections. Accessed 6 Apr 2017.
Machini K, Douglas J, Braxton A, et al. Genetic counselors’ views and experiences with the clinical integration of genome sequencing. J Genet Counsel. 2014;23:496.
Middleton A, Morley KI, Bragin E, Parker M, on behalf of the DDD Study. Online questionnaire development: Using film to engage participants and then gather attitudes towards the sharing of genomic data. Soc Sci Res. 2014;44:211–23.
Middleton A, Bragin E, Parker M. on behalf of the DDD Study. Finding people who will tell you their thoughts on genomics—recruitment strategies for social sciences research. J Community Genet. 2014;5(4):291–302.
Middleton A, Morley KI, Bragin E, Firth HV, et al. No expectation to share incidental findings in genomic research. Lancet. 2015;385:1289–90.
Shiffman J. Knowledge, moral claims and the exercise of power in global health. Int J Health Policy Manag. 2014;3:297–9.
Benatar S. Politics, Power, Poverty and Global Health: Systems and Frames. Int J Health Policy Manag. 2016;5(10):599–604.
Sarre G, Dyas J, Clarke A, Keen C, PROSPeR. An Analytical Framework for Planning and Sustaining Recruitment to Research Studies in Primary Care Based on Evidence from the Literature. In: UK Government Web Archive. 2008. http://webarchive.nationalarchives.gov.uk/20100218141456/nspcr.ac.uk/publications/prosper2.pdf. Accessed 26 Aug 2016.
Rabhi P. The Hummingbird's Share - According to Amerindian legend. Musée de la nature et des sciences – virtualmuseum.ca. http://www.virtualmuseum.ca/sgc-cms/expositions-exhibitions/colibri-hummingbird/En/Games/Html_version/Legendes_html/legend5.html. Accessed 22 Nov 2016.
The authors wish to thank Jean Poupart for his fruitful collaboration within the recruitment procedures.
The authors acknowledge funding support from Genome Canada and the Canadian Institutes of Health Research (CIHR).
Availability of data and materials
The datasets used and/or analysed during the current study are available from the corresponding author on reasonable request. The survey was anonymous. We will not release data identifying the neurological associations that were contacted.
All authors participated in the recruitment of participants, analyses and interpretation of the data, as well as in writing the manuscript. All authors read and approved the final manuscript.
The authors declare that they have no competing interests.
Consent for publication
Ethics approval and consent to participate
All procedures followed in this study were in accordance with the ethical standards of the responsible research ethics committee at the University of Montreal and the Centre Hospitalier de l’Université de Montréal – Hôpital Notre-Dame; Project number: 2015–5477, CE 14.052 - CA. Informed consent of all participants was presumed upon submission of the questionnaire.
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Hurlimann, T., Jaitovich Groisman, I. & Godard, B. The elusive ideal of inclusiveness: lessons from a worldwide survey of neurologists on the ethical issues raised by whole-genome sequencing. BMC Med Ethics 18, 28 (2017). https://doi.org/10.1186/s12910-017-0187-8
- Research ethics
- Fair inclusion