bioethics

A Requiem for Fear, Death, and Dying: Law and Medicine’s Perpetually Unfinished Composition

Audrey Hutchinson, MJLST Staffer

In the 18th and 19th century, the coffins of newly deceased lay six feet below, but were often outfitted with a novel accessory emerging from the freshly turned earth: a bell hung from an inconspicuous stake, its clapper adorned with a rope that disappeared beneath the dirt.[1] Rather than this display serving as a bygone tradition of the mourning process—some symbolic way to emulate connection with the departed—the bell served a more practical purpose: it was an emergency safeguard against premature burial.[2] The design, and all its variously patented 18th and 19th century designs, draws upon a foundational—and by some biopsychological theories, a biologically imperative—quality: fear of death.[3]

In the mid-1700’s, the French author Jacques Benigne Winslow published a book ominously titled The Uncertainty of the Signs of Death and the Danger of Precipitate Interments and Dissections, marking a decisive and public moment in medical history where death was introduced as something nebulous rather than definite to a highly unsettled public.[4] For centuries, medical tests and parameters had existed by which doctors could “affirmatively” conclude a patient had, indeed, passed.[5] While the Victorian newspapers were riddled with adverts for “safety coffins” in a macabre, but unsurprising expression of capitalism in the wake of mounting cholera deaths and the accompanying rate of premature burial reports, efforts to evade the liminal space of “dying” and the finality of “death” can be seen as far back as ancient Hebrew scriptures, wherein resuscitation attempts via chest compressions are described.[6] Perhaps this is unsurprising: psychologist and experimental theorist Robert C. Bolles conceptualized that fear is “a hypothetical cause [motivation] of behavior” and that its main purpose is to keep organisms alive.[7] Perhaps there has always been a subconscious doubt or suspicion about the finality of death, or perhaps it was human desperation and delusion arising from loss that has left behind an ancient record of fear and subsequent acts of defiance in the face of death still germane today.

Contemporarily we see the fruits of this fear of dying, death, or being somewhere in between in the form of advances in medical technology and legal guidelines. Though death is still commonly understood to be a discrete status—a state one enters but cannot exit—medical and legal definitions have, over time, evolved approaching death more gingerly—the former understanding death as a nuanced scale, the latter drawing hard lines on that scale.[8] Today, 43 states have enacted the Uniform Law Commission’s Uniform Determination of Death Act (“UDDA”).[9] The UDDA requires two distinct standards be met for someone to effectively, and legally, be deemed dead:  1) the irreversible cessation of circulatory and respiratory functions, and 2) the irreversible cessation of all functions of the entire brain, including the brainstem.[10] The UDDA’s legal determination of death, in its bright line language, relies in large part on  “generally accepted medical standards” of the medical practice and practitioner discretion. While the loss of respiratory, circulatory, and total brain death of the entire brain are the common parameters of determining death medically, the UDDA is distinctly “silent on acceptable diagnostic tests [and] procedures.” It is argued that the language is purposeful in creating statutory flexibility in an era of constant scientific and medical research, understanding, and innovation.

As it relates to brain death, the medical approach to determining is a scale that contemplates brain injury/activity and somatic survival, a “continuous biological spectrum”[11] that naturally contemplates not only a patient’s current status, but the possibility and likelihood of both degenerative and improved changes in status. But, as a matter of policy and regulation, the UDDA drew a bright line between the two and called it brain-death. Someone in a permanent vegetative state is not considered braindead, but someone with a necrotic “liquified” brain is. As a result, the medical determination of death is arguably subservient to the legal determination, designating a point of no return–not because the medical professionals see no alternate path, but the law has provided a blindfold required from that point forward.

While this may be an efficient way to ensure people are not denied advanced and improved medical practices, it also means that there is ambiguity and variance from state to state as to the nature of governing factual guidelines and standards. There are practical and policy reasons for this, including maximizing efficacy and reach of organ donation systems and generally preventing strain on healthcare resources and systems; nonetheless, the brightline fails to be so bright. While the Commission could have situated the UDDA such that the determination of legal brain death and medical brain death worked in tandem, being triggered at some distinct moment by certain explicit conditions or after certain standardized medical tests, it did not.

Is that because it will not, or because it simply cannot do so? Today, the standards become increasingly muddied by advancements in technology to prolong life that have, in turn, paradoxically, also prolonged the process of dying—expanding the scope of that liminal space. Artificial means of keeping someone alive where they otherwise could not stay so imperatively creates a discrete state of the act of dying. New legal and medical methods of describing these states have become imperative with lively debate ongoing concerning bridging the medical-legal gap concerning death determination[12]—specifically, the distinction between the “permanent” (will not reverse) and “irreversible” (cannot reverse) cessation of cardiac, respiratory, and neurological function relative to the meaning of a determination of death.[13] James Bernat, a neurologist and academic who examines the convergence of ethics, philosophy, and neurology, is a contemporary advocate calling for reconciliation between medical practice with the law.[14] Dr. Bernat suggests the UDDA’s irreversibility standard—a function that has stopped and cannot be restarted—be replaced with a permanence standard—a function that has stopped, will not restart on its own, and no intervention will be undertaken to restart it.[15] This distinction, in large part, is attempting to address the incongruence of the UDDA’s language that, by the ULC’s own concession, “sets the general legal standard for determining death, but not the medical criteria for doing so.”[16] In effect, in trying to define and characterize death and dying, we have created a dynamic wherein one could be medically dead, but not legally.[17]

Upon his death bed, composer Frédéric Chopin uttered his last words: “The earth is suffocating …. Swear to make them cut me open, so that I won’t be buried alive.”[18] A century and a half later, yet only time will tell if law and medicine can find a way to reconcile the increasingly ambiguous nature of dying and define death explicitly and discretely—no bells required.

Notes

[1] Steven B. Harris, M.D. The Society for the Recovery of Persons Apparently Dead. Cryonics (Sept. 1990) https://www.cryonicsarchive.org/library/persons-apparently-dead/.

[2] Id.

[3] Id.; Shannon E. Grogans et. al., The nature and neurobiology of fear and anxiety: State of the science and opportunities for accelerating discovery, Neuroscience & Biobehavioral Reviews, Volume 151, 2023, 105237, ISSN 0149-7634, https://doi.org/10.1016/j.neubiorev.2023.105237.

[4] Harris, supra note 1.

[5] Id.

[6] Id.

[7] Grogans et. al., supra note 3.

[8] Robert D. Truog, Lessons from the Case of Jahi McMath. The Hastings Center report vol. 48, Suppl. 4 (2018): S70-S73. doi:10.1002/hast.961.

[9] Unif. Determination of death act § 1 (Nat’l Conf. of Comm’n on Unif. L Comm’n. 1981).

[10] Id.

[11] Truog supra at S72.

[12] James L. Bernat, “Conceptual Issues in DCDD Donor Death Determination.” The Hastings Center report vol. 48 Suppl 4 (2018): S26-S28. doi:10.1002/hast.948.

[13] James Bernat, (2010). How the Distinction between ‘Irreversible’ and ‘Permanent’ Illuminates Circulatory-Respiratory Death Determination. The Journal of Medicine and Philosophy. 35. 242-55. 10.1093/jmp/jhq018.

[14] Faculty Database: James L. Bernat, M.D. Dartmouth Geisel School of Medicine https://geiselmed.dartmouth.edu/faculty/facultydb/view.php/?uid=353 (last accessed Oct. 23, 2023).

[15] JD and Angela Turi, Death’s Troubled Relationship With the Law Brendan Parent, AMA J Ethics. 2020;22(12):E1055-1061. doi: 10.1001/amajethics.2020.1055; See also, Bernat JL. Point: are donors after circulatory death really dead, and does it matter? Yes and yes. Chest. 2010;138(1):13-16.

[16] Thaddeus Pope, Brain Death and the Law: Hard Cases and Legal Challenges. The Hastings Center report vol. 48 Suppl. 4 (2018): S46-S48. doi:10.1002/hast.954.

[17] Id.

[18] Death: The Last Taboo – Safety Coffins, Australian Museum (Oct. 20, 2020) https://australian.museum/about/history/exhibitions/death-the-last-taboo/safety-coffins/ (last accessed Oct. 23, 2023).


The Double-Helix Dilemma: Navigating Privacy Pitfalls in Direct-to-Consumer Genetic Testing

Ethan Wold, MJLST Staffer

Introduction

On October 22, direct-to-consumer genetic testing (DTC-GT) company 23andME sent emails to a number of its customers informing them of a data breach into the company’s “DNA Relatives” feature that allows customers to compare ancestry information with other users worldwide.[1] While 23andMe and other similar DTC-GT companies offer a number of positive benefits to consumers, such as testing for health predispositions and carrier statuses of certain genes, this latest data breach is a reminder that before choosing to opt into these sorts of services one should be aware of the potential risks that they present.

Background

DTC-GT companies such as 23andMe and Ancestry.com have proliferated and blossomed in recent years. It is estimated over 100 million people have utilized some form of direct-to-consumer genetic testing.[2] Using biospecimens submitted by consumers, these companies sequence and analyze an individual’s genetic information to provide a range of services pertaining to one’s health and ancestry.[3] The October 22 data breach specifically pertained to 23andMe’s “DNA Relatives” feature.[4] The DNA Relatives feature can identify relatives on any branch of one’s family tree by taking advantage of the autosomal chromosomes, the 22 chromosomes that are passed down from your ancestors on both sides of your family, and one’s X chromosome(s).[5] Relatives are identified by comparing the customer’s submitted DNA with the DNA of other 23andMe members who are participating in the DNA Relatives feature.[6] When two people are found to have an identical DNA segment, it is likely they share a recent common ancestor.[7] The DNA Relatives feature even uses the length and number of these identical segments to attempt to predict the relationship between genetic relatives.[8] Given the sensitive nature of sharing genetic information, there are often privacy concerns regarding practices such as the DNA Relatives feature. Yet despite this, the legislation and regulations surrounding DTC-GT is somewhat limited.

Legislation

The Health Insurance Portability and Accountability Act (HIPAA) provides the baseline privacy and data security rules for the healthcare industry.[9] HIPAA’s Privacy Rule regulates the use and disclosure of a person’s “protected health information” by a “covered entity.[10] Under the Act, the type of genetic information collected by 23andMe and other DTC-GT companies does constitute “protected health information.”[11] However, because HIPAA defines a “covered entity” as a health plan, healthcare clearinghouse, or health-care provider, DTC-GT companies do not constitute covered entities and therefore are not under the umbrella of HIPAA’s Privacy Rule.[12]

Thus, the primary source of regulation for DTC-GT companies appears to be the Genetic Information Nondiscrimination Act (GINA). GINA was enacted in 2008 for the purpose of protecting the public from genetic discrimination and alleviating concerns about such discrimination and thereby encouraging individuals to take advantage of genetic testing, technologies, research, and new therapies.[13] GINA defines genetic information as information from genetic tests of an individual or family members and includes information from genetic services or genetic research.[14] Therefore, DTC-GT companies fall under GINA’s jurisdiction. However, GINA only applies to the employment and health insurance industries and thus neglects many other potential arenas where privacy concerns may present.[15] This is especially relevant for 23andMe customers, as signing up for the service serves as consent for the company to use and share your genetic information with their associated third-party providers.[16] As a case in point, in 2018 the pharmaceutical giant GlaxoSmithKline purchased a $300 million stake in 23andMe for the purpose of gaining access to the company’s trove of genetic information for use in their drug development trials.[17]

Executive Regulation

In addition to the legislation above, three different federal administrative agencies primarily regulate the DTC-GT industry: the Food and Drug Administration (FDA), the Centers of Medicare and Medicaid services (CMS), and the Federal Trade Commission (FTC). The FDA has jurisdiction over DTC-GT companies due to the genetic tests they use being labeled as “medical devices”[18] and in 2013 exercised this authority over 23andMe by sending a letter to the company resulting in the suspending of one of its health-related genetic tests.[19] However, the FDA only has jurisdiction over diagnostic tests and therefore does not regulate any of the DTC-GT services related to genealogy such as 23andMe’s DNA Relatives feature.[20] Moreover, the FDA does not have jurisdiction to regulate the other aspects of DTC-GT companies’ activities or data practices.[21] CMS has the ability to regulate DTC-GT companies through enforcement of the Clinical Laboratory Improvements Act (CLIA), which requires that genetic testing laboratories ensure the accuracy, precision, and analytical validity of their tests.[22] But, like the FDA, CMS only has jurisdiction over tests that diagnose a disease or assess health.[23]

Lastly, the FTC has broad authority to regulate unfair or deceptive business practices under the Federal Trade Commission Act (FTCA) and has levied this authority against DTC-GT companies in the past. For example, in 2014 the agency brought an action against two DTC-GT companies who were using genetic tests to match consumers to their nutritional supplements and skincare products.[24] The FTC alleged that the companies’ practices related to data security were unfair and deceptive because they failed to implement reasonable policies and procedures to protect consumers’ personal information and created unnecessary risks to the personal information of nearly 30,000 consumers.[25] This resulted in the companies entering into an agreement with the FTC whereby they agreed to establish and maintain comprehensive data security programs and submit to yearly security audits by independent auditors.[26]

Potential Harms

As the above passages illustrate, the federal government appears to recognize and has at least attempted to mitigate privacy concerns associated with DTC-GT. Additionally, a number of states have passed their own laws that limit DTC-GT in certain aspects.[27] Nevertheless, given the potential magnitude and severity of harm associated with DTC-GT it makes one question if it is enough. Data breaches involving health-related data are growing in frequency and now account for 40% of all reported data breaches.[28] These data breaches result in unauthorized access to DTC-GT consumer-submitted data and can result in a violation of an individual’s genetic privacy. Though GINA aims to prevent it, genetic discrimination in the form of increasing health insurance premiums or denial of coverage by insurance companies due to genetic predispositions remains one of the leading concerns associated with these violations. What’s more, by obtaining genetic information from DTC-GT databases, it is possible for someone to recover a consumer’s surname and combine that with other metadata such as age and state to identify the specific consumer.[29] This may in turn lead to identity theft in the form of opening accounts, taking out loans, or making purchases in your name, potentially damaging your financial well-being and credit score. Dealing with the aftermath of a genetic data breach can also be expensive. You may incur legal fees, credit monitoring costs, or other financial burdens in an attempt to mitigate the damage.

Conclusion

As it sits now, genetic information submitted to DTC-GT companies already contains a significant volume of consequential information. As technology continues to develop and research presses forward, the volume and utility of this information will only grow over time. Thus, it is crucially important to be aware of risks associated with DTC-GT services.

This discussion is not intended to discourage individuals from participating in DTC-GT. These companies and the services they offer provide a host of benefits, such as allowing consumers to access genetic testing without the healthcare system acting as a gatekeeper, thus providing more autonomy and often at a lower price.[30] Furthermore, the information provided can empower consumers to mitigate the risks of certain diseases, allow for more informed family planning, or gain a better understanding of their heritage.[31] DTC-GT has revolutionized the way individuals access and understand their genetic information. However, this accessibility and convenience comes with a host of advantages and disadvantages that must be carefully considered.

Notes

[1] https://www.reuters.com/world/us/23andme-notifies-customers-data-breach-into-its-dna-relatives-feature-2023-10-24/#:~:text=%22There%20was%20unauthorized%20access%20to,exposed%20to%20the%20threat%20actor.%22

[2] https://www.ama-assn.org/delivering-care/patient-support-advocacy/protect-sensitive-individual-data-risk-dtc-genetic-tests#:~:text=Use%20of%20direct%2Dto%2Dconsumer,November%202021%20AMA%20Special%20Meeting

[3] https://go-gale-com.ezp3.lib.umn.edu/ps/i.do?p=OVIC&u=umn_wilson&id=GALE%7CA609260695&v=2.1&it=r&sid=primo&aty=ip

[4] https://www.reuters.com/world/us/23andme-notifies-customers-data-breach-into-its-dna-relatives-feature-2023-10-24/#:~:text=%22There%20was%20unauthorized%20access%20to,exposed%20to%20the%20threat%20actor.%22

[5] https://customercare.23andme.com/hc/en-us/articles/115004659068-DNA-Relatives-The-Genetic-Relative-Basics

[6] Id.

[7] Id.

[8] Id.

[9] https://go-gale-com.ezp2.lib.umn.edu/ps/i.do?p=OVIC&u=umn_wilson&id=GALE%7CA609260695&v=2.1&it=r&sid=primo&aty=ip

[10] https://www.hhs.gov/sites/default/files/ocr/privacy/hipaa/administrative/combined/hipaa-simplification-201303.pdf

[11] Id.

[12] Id; https://go-gale-com.ezp2.lib.umn.edu/ps/i.do?p=OVIC&u=umn_wilson&id=GALE%7CA609260695&v=2.1&it=r&sid=primo&aty=ip

[13] https://www.eeoc.gov/statutes/genetic-information-nondiscrimination-act-2008

[14] Id.

[15] https://europepmc.org/backend/ptpmcrender.fcgi?accid=PMC3035561&blobtype=pdf

[16] https://go-gale-com.ezp2.lib.umn.edu/ps/i.do?p=OVIC&u=umn_wilson&id=GALE%7CA609260695&v=2.1&it=r&sid=primo&aty=ip

[17] https://news.yahoo.com/news/major-drug-company-now-access-194758309.html

[18] https://uscode.house.gov/view.xhtml?req=(title:21%20section:321%20edition:prelim)

[19] https://core.ac.uk/download/pdf/33135586.pdf

[20] https://go-gale-com.ezp2.lib.umn.edu/ps/i.do?p=OVIC&u=umn_wilson&id=GALE%7CA609260695&v=2.1&it=r&sid=primo&aty=ip

[21] Id.

[22] https://www.law.cornell.edu/cfr/text/42/493.1253

[23] https://go-gale-com.ezp2.lib.umn.edu/ps/i.do?p=OVIC&u=umn_wilson&id=GALE%7CA609260695&v=2.1&it=r&sid=primo&aty=ip

[24] https://www.ftc.gov/system/files/documents/cases/140512genelinkcmpt.pdf

[25] Id.

[26] Id.

[27] https://go-gale-com.ezp2.lib.umn.edu/ps/i.do?p=OVIC&u=umn_wilson&id=GALE%7CA609260695&v=2.1&it=r&sid=primo&aty=ip

[28] Id.

[29] https://go-gale-com.ezp2.lib.umn.edu/ps/i.do?p=OVIC&u=umn_wilson&id=GALE%7CA609260695&v=2.1&it=r&sid=primo&aty=ip

[30] Id.

[31] Id.


Xenotransplantation: Ethics and Public Policy Need to Catch Up to the Science

Claire Colby, MJLST Staffer

In early January, surgeons at the University of Maryland Medical Center made history by successfully transplanting a genetically altered pig heart to a human recipient, David Bennett.  The achievement represents a major milestone in transplantation. The demand for transplantable organs far outpaces the supply, and xenotransplantation–the implantation of non-human tissue into human recipients–could help bridge this gap. In the U.S. alone, more than 106,000 people are on the waiting list for transplants. Legal and ethical questions remain open about the appropriateness of implementing xenotransplants on a large scale. 

The FDA approved the January transplant through an emergency authorization compassionate use pathway because Bennett likely would have died without this intervention. Larger clinical trials will be needed to generate enough data to show that xenotransplants are safe and effective. The FDA will require these trials to show xenotransplantations are non-inferior to human organ transplants. IRB requirements bar interventions where risk outweighs benefits for patients, but accurately predicting and measuring risk is difficult. 

If xenotransplantation becomes standard clinical practice, animal rights proponents may balk at the idea of raising pigs for organs. Far before that point, pre-clinical trials will make heavy use of animal models. Institutional Animal Care and Use Committees (IACUCs) which oversee animal research in universities and medical entities apply a “much lower ethical standard” for animals than human research subjects. Bioethicists apply a “3R” framework for animal subjects research that stresses replacing animal models, reducing animal testing, and refining their use. Because of the inherent nature of xenotransplantation, applying this framework may be near impossible. Ongoing discussions are needed with relevant stakeholders.  

If both human and animal organs are approved for widespread transplant, but human organs prove superior, new allocation policies are needed to determine who gets what. Organ allocation policy is currently dictated by the Organ Procurement and Transplantation Network (OPTN). As it stands, organ transplantation shows inequality across racial groups and financial status. New allocation policies for organs must not reinforce or worsen these disparities. 

Like all medical interventions, patients must be able to provide informed consent for xenotransplantation. The recipient of the altered pig heart had previously been deemed ineligible for a human heart transplant because his heart failure was poorly managed. Reserving experimental interventions, like xenotransplantations, for the sickest patients raises serious ethical concerns. Are these desperate patients truly able to give meaningful consent? If xenotransplantation becomes a common practice, the traditional model of institutional review boards may need updating. Currently, individual institutions maintain their own IRBs. Xenotransplantation of altered animal organs may involve several sites: procurement of the organ, genetic editing, and transplantation may all take place in different locations. A central IRB for xenotransplantation could standardize and streamline this process. 

In all, xenotransplantation represents an exciting new frontier in transplant medicine. Responsibly implementing this innovation will require foresight and parallel innovation in ethics and public policy. 


Open-Source Biotechnology: Failed to Take Root or Waiting in the Wings?

by Joe McCartin, UMN Law Student, MJLST Staff

Biotechnology encompasses a wide range of cutting-edge fields, from the genetic modification of agricultural crops and energy producing bacteria, to immunology and medical device manufacturing. Rapid innovation in these areas has led to today’s most challenging ethical issues. One such concern is the fear that profits, rather than providing incentives for innovation, will slow down innovation by restricting the dissemination of new technologies, processes, and insights. In Volume 6, Issue 1 of the Minnesota Journal of Law, Science, & Technology, Robin Feldman outlined the problems an open-source biotechnology movement, one similar to the open-source computer programming world, faces in patent law, and ways that movement could navigate those complexities and potentially enhance the common good.

Feldman discussed the work of molecular biologist, Richard Jefferson, founder of Cambia and BioForge, who sought to democratize the field of plant genetics. The failure of those efforts was detailed by Sam Finegold in “The Hard Path to Open Source Bioinnovation.” Jefferson claimed that the financial incentives available to researchers were no match for an industry that had become dominated by a small handful of industrial chemical companies.

So, is there a future for open-source biotechnology? While it would seem that the pharmaceutical industry would present similar challenges to the open-source biotech movement, Connie Wong posits that open-source may be exactly what the pharmaceutical industry needs in the face of shrinking R&D budgets. She argues that small, lean players can fully utilize their competitive advantage and still protect their work by using open-source arrangements that create a fair-playing field that allows them to operate nimbly. Perhaps the Affordable Care Act may transform the pharmaceutical industry in a way that creates room for open-source innovations?

But perhaps open-source biotechnology’s real promise can be found in the work of Matthew Todd, who sought to bring the power of open-source to a neglected disease, flatworm infections. The World Health Organization documented the amazingly quick success Todd had finding more cost-effective methods of producing praziquantel, the preferred method of treating flatworm. While recognizing that the task far exceeded his abilities by himself, by tapping into not only researchers, but pharmaceutical and chemical companies, he found not one but two new methods of producing the drug! This appears to be the perfect example of the promise of open-source biotechnology. The profit motive focused attention on other diseases, restricting innovation until an open-source community sprung up. While open-source may not be the future of biotechnology innovation, it may end up playing a large role in a transformed pharmaceutical industry.


Biobanks Revisted

by Jeremy So, UMN Law Student, MJLSTManaging Editor

Thumbnail-Jeremy-So.jpgOn October 28, Australian researchers published new information about the genetic basis for endometriosis, a condition where the cells lining the uterus flourish in other areas of the body. The researchers, instead of recruiting their own research subjects, analyzed samples stored in biobanks in Australia, Japan, and Europe. Because of their approach, the researchers were able to identify common markers that appeared across the ethnically-diverse study population. The Australian team’s findings highlight the increasing importance of biobanks–repositories for biological research samples–which have become a valuable resource in the fields of genomics and personalized medicine

The increasing importance of biobanks was recently highlighted in a symposia sponsored by MJLST. In the accompanying Spring 2012 issue, researchers and lawyers discussed the one of the primary problem facing researchers who use biobanks: whether to return research results and incidental findings to research participants.

While the Australian researchers have decided to track down the original participants in order to share their findings, other researchers have hesitated to use the same approach. Karen J. Maschke highlighted several such reasons in her recent article “Returning Genetic Research Results: Considerations for Existing No-Return and Future Biobanks.” In the article, Maschke focuses on the approaches of American biobanks researchers, who generally do not share their results with individuals whose DNA was analyzed.

For American researchers, Maschke notes that samples stored for biobank research are regularly deidentified, making it difficult to impossible to contact the original donor. Such a system exists in part because of concerns over whether consent would be granted for samples to be used in certain types of research. Combined with conflicting interpretations of government regulations and other difficulties in actually returning sample results, researchers have hesitated to adopt a disclosure-based system for research results.

Although some may remain hesitant, cooperation between researchers and biobank participants has not necessarily led to negative outcomes.

The importance of resolving this conflict is highlighted by the increasing prevalence and importance of biobanks to scientific research. Several countries are working on expanding their biobank networks. Now, before competing standards come to dominate the field, a uniform system for the return of results should be determined and implemented.


Incidental Findings: It’s My DNA, and I Want to Know if Something Is Wrong With It.

by Ryan J. Connell, UMN Law Student, Joint Degree Program Fellow, MJLST Staff

Thumbnail-Ryan-Connell.jpgAs genetic research continues to develop, researchers are more apt to make incidental discoveries in the course of the research on a subjects DNA. Susan Wolf, Founding Chair of the University of Minnesota’s s Consortium on Law and Values in Health, Environment & the Life Sciences, points out in her article “The Role of Law in the Debate over Return of Research Results and Incidental Findings: The Challenge of Developing Law for Translational Science,” that, with this development, there is a serious question that must be asked, but that the law does not really answer: do researchers have to report these incidental findings to the subject?

Is this something that necessarily must be addressed by the law? I think so. Researchers need guidance on this front. Right now if a researcher finds something that may or may not have adverse health consequences for a subject the researcher must balance competing interests. What if they do disclose the risk? Is a pure researcher qualified to evaluate medical risks? The researcher could be very wrong in their analysis; could a subject who was told that they might be at risk for a serious health problem, but was not, hold a researcher liable for emotional stress? On the other hand, if a researcher comes across some potential risks and does not tell the subject, and the subject suffers as a result, should the researcher be liable?

I think the answer to this problem lies in waivers. Before people make themselves subject to research they should sign a waiver to either not hold a researcher liable for any incidental findings reported, or agree to not receive any information about any incidental findings.

This really should be the patient’s decision. Some geneticists think that it is better not to let people know if they have a risk for Huntington’s disease, or Alzheimer’s disease because there are no interventions. Likewise some geneticists feel that they would only report a risk of cancer if it is specifically requested.

From my point of view, if my genes are used for research and the researchers find that I am at risk for something, I want to know. I don’t care if there is nothing that I can do about it; I should know about it. My personal view is not shared however, some feel like they want to contribute to research, and then they don’t want to be bothered again.

This is a complicated issue with no clear solution. How do you feel? Do you want a researcher to tell you if they think you are at risk? Would you hold a researcher liable if they mistakenly told you that you were at risk for a horrible disease? Or would you be more likely to hold a researcher liable for not telling you that you were at risk for a disease? Do you think a waiver, or some other agreement is necessary between a researcher and a subject before any research is conducted?


An Individual Right to Return of Research Results

by Keli Holzapfel, MJLST Student Editor-in-Chief

Keli-Holzapfel-Thumb-White-Back-II.pngGiven the importance of results discovered by biorepositories and their implications for an individual’s health care choices, I believe that the individual has the right to receive his results despite their lack of verification. However, this right to receive results should be premised upon the individual’s explicit consent to receive his results, and upon the understanding that by receiving these results, the burden of their verification shifts from the biorepostory to the individual.

Biorepositories are collections of biospecimens that are tested and analyzed for scientific purposes. The testing performed on these biospecimens has become the basis for development of various molecular tests, which is becoming critical for the shift toward personalized medicine. Therefore, as technology advances, the quality and management of biorepositories is becoming more important. This is especially critical for the return of accurate patient data resulting from biospecimen analysis. However, managing and conducting a biorepository in the way necessary for return of results can be very complex and expensive. There must be many measures in place to prevent mistakes in identification and to ensure the quality of the biospecimen being tested. Currently, there are many existing biorepositories that do not meet the needed Clinical Laboratory Improvement Amendments (CLIA) standards for return of results. For an in-depth discussion of the current state of biorepositiories and issues surrounding return of results, see the article “Perspective on Biorepository Return of Results and Incidental Findings” written by Steve Jewell. For an example on what biorespositories need to do to improve their management and specimen oversight, see the College of American Pathologists, Accrediation Information.

As alluded to above, some of the important questions that arise from the return of results to an individual are inherently linked to the reliability of the result. For example, what should be the necessary standard for a result to be returned to the individual? Is the current threshold for returning results too high? As mentioned, many biorepositories do not meet the necessary guidelines for CLIA certification, which is required for returning of results. This means that potentially critical information is not shared with the individual involved. Is this ethical? Should biorepositories that discover critical information be required to return results to an individual even though the results are not CLIA certified? But if the results are wrong, is the emotional distress that may ensue from the return of results as unethical as withholding the results?

Due to the current state of biorepositories, and the huge implications that return of results may have, I think the best solution is to allow for consent-based return to an individual, with the understanding that any returned result needs to be independently CLIA certified. Therefore, only individuals who consent to receive results would get them, the individuals would receive the results with the understanding they could be incorrect, and then further testing would be done to validate the results to the necessary high standards. For additional in-depth discussion of issues surrounding CLIA and non-CLIA certified return of results, see “Ethical and Practical Guidelines for Reporting Genetic Research Results To Study Participants: Updated Guidelines from an NHLBI Working Group.”

For other insights and recommendations regarding return of research results, see MLST’s Winter 2012 symposium issue, “Debating Return of Incidental Findings and Research Results in Genomic Biobank Research–Law, Ethics, and Oversight


Bioethic Concerns 34 Years After 1st Test Tube Baby

mjlst-logo-button.pngProfessor Susan Wolf, Founding Chair of the Consortium on Law and Values in Health, Environment & the Life Sciences (which oversees and manages MJLST) discusses the latest bioethical concerns related to in vitro fertilization (IVF) on Minnesota Public Radio‘s The Daily Circuit program (click play button below):

In related content, MJLST Issue 10.1 included an article by Debora Spar, author of The Baby Business: How Money, Science and Politics Drive the Commerce of Conception and attorney Anna M. Harrington entitled “Building a Better Baby Business” that offers a road map to ensuring quality and equity in the reproductive technology industry.

For insights into understanding legal responses to technological change, using in vitro fertilization as an example, see Understanding Legal Responses to Technological Change of In Vitro Fertilization, by Lyria Bennett Moses in MJLST Issue 6.2.