Defusing the legal and ethical minefield of epigenetic applications in the military, defense, and security context.

Epigenetic research has brought several important technological achievements, including identifying epigenetic clocks and signatures, and developing epigenetic editing. The potential military applications of such technologies we discuss are stratifying soldiers' health, exposure to trauma using epigenetic testing, information about biological clocks, confirming child soldiers' minor status using epigenetic clocks, and inducing epigenetic modifications in soldiers. These uses could become a reality. This article presents a comprehensive literature review, and analysis by interdisciplinary experts of the scientific, legal, ethical, and societal issues surrounding epigenetics and the military. Notwithstanding the potential benefit from these applications, our findings indicate that the current lack of scientific validation for epigenetic technologies suggests a careful scientific review and the establishment of a robust governance framework before consideration for use in the military. In this article, we highlight general concerns about the application of epigenetic technologies in the military context, especially discrimination and data privacy issues if soldiers are used as research subjects. We also highlight the potential of epigenetic clocks to support child soldiers' rights and ethical questions about using epigenetic engineering for soldiers' enhancement and conclude with considerations for an ethical framework for epigenetic applications in the military, defense, and security contexts.

Governing nonconventional genetic experimentation.

A large and highly heterogeneous group of individuals conducts genetic and genomic research outside of traditional corporate and academic settings. They can be an important source of innovation, but their activities largely take place beyond the purview of existing regulatory systems for promoting safe and ethical practices. Historically the gene-targeting technology available for non-traditional genomic research has been limited, and therefore these activities have attracted little regulatory attention. New technologies such as CRISPR/Cas9, however, give nonconventional experimenters more extensive gene editing abilities at an unprecedented level of accessibility. The affordability and accessibility of these powerful technologies are raising questions about whether the current largely laissez-faire governance approach is adequate. This article recommends steps to enhance self-governance, including establishing umbrella organizations to represent community interests, creating a community IRB modelled on the DIYBio Ask a Safety Expert Service, and adopting an ethical obligation to report rogue experiments.

Predictive Genetic Testing by the U.S. Military: Legal and Ethical Issues.

INTRODUCTION: Precision medicine is a significant component of the military medical vanguard. One area of growing interest involves predictive genetic testing (PGT)-which can be used for both medical evaluation and operational planning. Predictive genetic testing is likely to play an increasingly important role in the military, in terms of both medically related testing to predict the risk of disease or injury and testing for non-medical traits that may be relevant to military performance. MATERIALS AND METHODS: This article describes predictive tests that currently are in use by the military or that might be of interest to the military. The article also explores the risks and benefits associated with PGTs, describes the ambiguities in the current laws and directives governing the military use of PGT, and proposes a set of guidelines for the use of PGTs by the military. RESULTS: There is no publicly available law or DoD policy that prevents the military from conducting PGT before or after accession. Currently, the only genetic testing routinely employed by the U.S. military is for medical purposes. In addition to non-routine genetic testing to diagnose genetic diseases and conditions, the military also uses targeted testing for predictive purposes. As additional predictive genetic tests are developed and become widely used, the military can be expected to employ those that are of relevance. Predictive military genetic testing of active duty service members could reduce their risk of illness and injury, improve their physical and mental fitness, enhance the health and well-being of the unit, make mission accomplishment more certain and efficient, and reduce medical and other costs for the military and veterans. Moreover, individuals with genetic variants that might enhance the likelihood of successfully completing a military mission could be preferred for certain positions or assignments, such as special operations. At the same time, there are risks that genetic information may be used for improper purposes or may stigmatize service members. CONCLUSIONS: Predictive genetic testing is likely to play an increasingly important role in the military, in terms of both medically related testing to predict the risk of disease or injury and testing for non-medical traits that may be relevant to military performance. In instances where PGT meets standard scientific measures of validity and utility, test results can be used to promote the health and welfare of individual service members, units, and military missions. In cases where PGT does not rise to the level of meeting standard scientific criteria, officials should proceed cautiously in incorporating the information into clinical care and military decision-making. There needs to be an appropriate method of collectively calculating risks and benefits. Moreover, although military directives prohibit "unlawful discrimination," this term has received no elaboration in any publicly available military pronouncements. This lacuna should be rectified to provide proper guidance to service members, medical personnel, and the public. Although the promise of PGT may compel military officials to consider ways to maximize the use of test results, the risk of undermining military goals with unverified uses also should be considered appropriately.

Airmen and health-care providers' attitudes toward the use of genomic sequencing in the US Air Force: findings from the MilSeq Project.

PURPOSE: The use of genomic sequencing (GS) in military settings poses unique considerations, including the potential for GS to impact service members' careers. The MilSeq Project investigated the use of GS in clinical care of active duty Airmen in the United States Air Force (USAF). METHODS: We assessed perceived risks, benefits, and attitudes toward use of GS in the USAF among patient participants (n = 93) and health-care provider participants (HCPs) (n = 12) prior to receiving or disclosing GS results. RESULTS: Participants agreed that there are health benefits associated with GS (90% patients, 75% HCPs), though more HCPs (75%) than patients (40%) agreed that there are risks (p = 0.048). The majority of both groups (67% HCPs, 77% patients) agreed that they trust the USAF with genetic information, but far fewer agreed that genetic information should be used to make decisions about deployment (5% patients, 17% HCPs) or duty assignments (3% patients, 17% HCPs). Despite their hesitancy, patients were supportive of the USAF testing for nondisease traits that could impact their duty performance. Eighty-seven percent of patients did not think their GS results would influence their career. CONCLUSION: Results suggest favorable attitudes toward the use of GS in the USAF when not used for deployment or assignment decisions.

Compulsory Immunization Protects Against Infection: What Law and Society Can Do.

Since their broad implementation, immunizations have decreased morbidity and mortality due to a number of serious infectious diseases. In recent years, exaggerated concerns about the safety of immunizations have resulted in decreased immunization coverage in many regions and epidemic outbreaks of serious transmissible diseases - most particularly measles. This commentary reviews the legal justification for compulsory immunization and the ethical justification for civil incentives to assure compliance with immunization practices.

The Haves, the Have-nots, and the Will-nots.

What if science enabled us to live an extended lifespan? Well, not us, but people in the future, and perhaps not everybody in the future, at least not at first. Should we allow and encourage science to develop this capability, or should we try to prevent or inhibit it? John Davis's book New Methuselahs: The Ethics of Life Extension is a thorough exploration of these questions. He presents the arguments for and against developing this capacity, and he considers three perspectives: those of individuals who will be able to extend their lives (the Haves), individuals who will not because they can't afford to (the Have-nots), and individuals who will not extend their lives because they are opposed to doing so (the Will-nots). Davis is a philosopher, and the bulk of this book is for the cognoscenti.

Bioethics of military performance enhancement.

Biological interventions to improve performance, such as amphetamines, have a long history of military use, and in the future may include more advanced biotechnologies. This article discusses the ethics of using biomedical enhancements in the military. The article begins by describing the distinction between biomedical enhancements and interventions intended to prevent, treat or mitigate disease. It then sets forth three principles to guide the ethical use of bioenhancements-proportionality, paternalism and fairness. The article applies these principles to concerns raised by military bioenhancement: safety, fairness in access to military reward, carryover effects to civilian life, whether service members can be ordered to use bioenhancements and when they may be permitted to do so voluntarily.

Ethical, Legal, and Social Implications of Personalized Genomic Medicine Research: Current Literature and Suggestions for the Future.

PURPOSE: This review identifies the prominent topics in the literature pertaining to the ethical, legal, and social issues (ELSI) raised by research investigating personalized genomic medicine (PGM). METHODS: The abstracts of 953 articles extracted from scholarly databases and published during a 5-year period (2008-2012) were reviewed. A total of 299 articles met our research criteria and were organized thematically to assess the representation of ELSI issues for stakeholders, health specialties, journals, and empirical studies. RESULTS: ELSI analyses were published in both scientific and ethics journals. Investigational research comprised 45% of the literature reviewed (135 articles) and the remaining 55% (164 articles) comprised normative analyses. Traditional ELSI concerns dominated the discourse including discussions about disclosure of research results. In fact, there was a dramatic increase in the number of articles focused on the disclosure of research results and incidental findings to research participants. Few papers focused on particular disorders, the use of racial categories in research, international communities, or special populations (e.g., adolescents, elderly patients, or ethnic groups). CONCLUSION: Considering that strategies in personalized medicine increasingly target individuals' unique health conditions, environments, and ancestries, further analysis is needed on how ELSI scholarship can better serve the increasingly global, interdisciplinary, and diverse PGM research community.

Who Do You Trust?

The ability of patients to trust physicians to act in their best interests is a critical aspect of a welfare-maximizing relationship. This commentary discusses physician trustworthiness within the framework of the Affordable Care Act and considers steps to reinforce trustworthy behavior.

Genomic medicine in the military.

The announcement of the Precision Medicine Initiative was an important step towards establishing the use of genomic information as part of the wider practice of medicine. The US military has been exploring the role that genomic information will have in health care for service members (SMs) and its integration into the continuum of military medicine. An important part of the process is establishing robust protections to protect SMs from genetic discrimination in the era of exome/genome sequencing.

Reproductive Information and Reproductive Decision-Making.

Opponents of reproductive choice are attempting to limit reproductive decisions based on certain underlying reasons. This commentary explores the rationales for these limitations and the objections to them. It concludes that reasoned-based limitations are unsupportable and unenforceable.

Ethical, legal, social, and policy issues in the use of genomic technology by the U.S. Military.

Advances in genomic science are attracting the interest of the U.S. military for their potential to improve medical care for members of the military and to aid in military recruitment, training, specialization, and mission accomplishment. While researchers have explored the ethical, legal, and social issues raised by the use of genomic science in a wide variety of contexts, there has been virtually no examination of these issues in connection with the use of genomics by the military. This article identifies potential uses of genomic science by the military, proposes an applicable ethical and legal framework, and applies the framework to provide ethical and legal guidance for military decision-makers.

Genetic enhancement in sport: just another form of doping?

Patented genetic technologies such as the ACTN3 genetic test are adding a new dimension to the types of performance enhancement available to elite athletes. Organized sports organizations and governments are seeking to prevent athletes' use of biomedical enhancements. This paper discusses how these interdiction efforts will affect the use and availability of genetic technologies that can enhance athletic performance. The paper provides a working definition of enhancement, and in light of that definition and the concerns of the sports community, reviews genetic enhancement as a result of varied technologies, including, genetic testing to identify innate athletic ability, performance-enhancing drugs developed with genetic science and technology, pharmacogenetics, enhancement through reproductive technologies, somatic gene transfer, and germ line gene transfer.

Medical practice guidelines as malpractice safe harbors: illusion or deceit?

American medicine has long sought to control the standard of care that physicians are expected to provide to their patients. One effort to insulate the standard of care from external interference, called a "safe harbors" approach, would enable physicians to avoid liability for malpractice if they adhered to medical practice guidelines. The idea is to eliminate the "battle of experts" and reduce defensive medicine by requiring judges and juries to accept guidelines as conclusive evidence of the standard of care. Yet current efforts to improve the guideline development process, including the use of evidence-based guidelines, are unlikely to be able to overcome the shortcomings that led a similar safe harbors initiative to fail in the early 1990s. Moreover, there is no adequate justification for conferring this degree of self-regulatory power on the medical profession.

Boundary spanning and health: invitation to a learning community.

Boundaries, which are essential for the healthy functioning of individuals and organisations, can become problematic when they limit creative thought and action. In this article, we present a framework for promoting health across boundaries and summarise preliminary insights from experience, conversations and reflection on how the process of boundary spanning may affect health. Boundary spanning requires specific individual qualities and skills. It can be facilitated or thwarted by organisational context. Boundary spanning often involves risk, but may reap abundant rewards. Boundary spanning is necessary to optimise health and health care. Exploring the process, the landscape and resources that enable boundary spanning may yield new opportunities for advancing health. We invite boundary spanners to join in a learning community to advance understanding and health.