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Requiring genetic knowledge: a principled case for support
Published online by Cambridge University Press: 02 January 2018
Abstract
Should people be required to know information about themselves that arises from their genetic test? This question is highly relevant given the NHS's plans to sequence 100,000 whole genomes before 2017. The approach to this issue in the USA generated significant opposition to requiring knowledge, on the basis that it interferes with autonomy. This piece presents a different perspective, arguing that requiring knowledge may not undermine the legal conception of autonomy, giving reason to doubt that it would be unlawful to require people to have genetic information about themselves. Following this, the piece presents an alternative principled position that might support a legal recognition of the interest in not having information about oneself; namely that of preventing personal harm. However, this approach runs into difficulties if the reasons for requiring knowledge are also based on preventing personal harm. The argument considers how interests might be balanced in this competing harms context.
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Footnotes
I am extremely grateful to Dr Mark Taylor, Professor Aurora Plomer and the two anonymous reviewers for their comments, which have enabled me to improve this work.
References
1. On the Genomics England website, Sir Mark Caulfield, Chief Scientist to the project, claims that ‘the work of GeL could be to transform the NHS provision of diagnostic tests and then care to a whole range of patients. This could … achieve earlier diagnosis and more effective intervention for patients most at risk from developing very serious illnesses.’ See http://www.genomicsengland.co.uk/prof-mark-caulfield-reflects-on-the-impact-the-100k-genome-project-could-have-on-the-nhs/ (accessed 16 July 2014).
2. Many possible examples could be posed that are not limited to cancer.
3. There is also significant uncertainty about how we should manage disclosure to the tested person's relatives. See my forthcoming empirical work on this issue: T Heaton and V Chico ‘Attitudes towards the sharing of genetic information with at-risk relatives: Bayesian ordinal regression with random effects’.
4. See the following projects: Deciphering Developmental Disorders (DDD) study, http://www.ddduk.org/ (accessed 17 September 2014); Specialist Pathology: Evaluating Exomes in Diagnostics (SPEED) Study, University of Cambridge, http://bioresource.nihr.ac.uk/rare-diseases/study-specialist-pathology-evaluating-exomes-in-diagnostics/ (accessed 23 April 2014). Whole exome sequencing refers to the technique that selectively sequences the protein coding regions of the genome.
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8. Green et al, above n 5, at 568.
9. Or for that matter what it considered the potential harms to be. Did these solely concern not being able to access treatment for the particular genetic condition? Or also not being able to minimise related risks that other treatments might pose for someone with that (asymptomatic) genetic condition? See below for a discussion of these two types of harm.
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53. MCA 2005 s 3 (1) (a), (b) and (c). The provisions of the MCA 2005 do not only relate to the ability to make decisions about medical treatment. The Act covers decision making in a wider context, including any decisions that relate to a person's welfare or property and affairs: s 16 (1) (a) and (b).
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64. This approach is not without problems, especially in the clinical context. But this argument is not considered here.
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