This chapter contains sections titled: Genes, Identity and Ethics Identity‐affecting Genetic Interventions Identity‐preserving Genetic Interventions Justice References and Further Reading.

With pre-implantation genetic diagnosis (PGD), genetic testing and selective transfer of embryos is possible. In the future, germ-line gene therapy (GLGT) applied to embryos before implantation, in order to introduce missing genes or replace mutant ones, may be possible. The objective of this dissertation is to analyse moral aspects of these technologies, as described by eighteen British, Italian and Swedish gynaecologists and geneticists. The objective is systematised into three parts: research interviews and qualitative analysis, philosophical analysis, and (...) elaboration of a framework that supports the combination of analytic methods. PGD was described as positive since it enabled some couples at risk for a genetic disease to have a child without the disease. PGD was described as in different senses ‘better’ than methods for prenatal diagnosis and selective termination of pregnancy. It was also described as positive since it provided couples at risk with one more option, even if it did not result in the birth of a healthy child. However, interviewees were concerned about the difficulty of defining and evaluating genetic disease. They were also concerned about patients’ choices, and about exaggerated use or misuse. Whereas PGD gave rise to ambivalence in terms of how to understand, describe and evaluate it, GLGT was often described as unrealistic or undesirable. The results of the qualitative analysis are used in a philosophical analysis of the concepts of choice, autonomous choice, ambivalence, trust and ambivalence in trust relations. A set of distinct characteristics of each concept are elaborated. The results of the philosophical analysis are used in the discussion of the results of the qualitative analysis. The study shows that the technologies imply both ‘new’ ways to perform ‘old’ medical practices and ‘new’ practices. Old moral questions are reformulated. New moral questions are added. Against the background of this, the concept of genetic identity is discussed. Key words: empirical ethics, pre-implantation genetic diagnosis, germ-line gene therapy, qualitative research, philosophical analysis, medical progress, genetic disease, choice, autonomous choice, ambivalence, trust, genetic identity. (shrink)

Spinal muscular atrophy (SMA) is the most common genetic disease that causes infant mortality. Its treatment and prevention represent the paradigmatic example of the ethical dilemmas of 21st‐century medicine. New therapies (nusinersen and AVXS‐101) hold the promise of being able to treat, but not cure, the condition. Alternatively, genomic analysis could identify carriers, and carriers could be offered in vitro fertilization and preimplantation genetic diagnosis. In the future, gene editing could prevent the condition at the embryonic stage. (...) How should these different options be evaluated and compared within a health system? In this paper, we discuss the ethical considerations that bear on the question of how to prioritize the different treatments and preventive options for SMA, at a policy level. We argue that despite the tremendous value of what we call ‘ex‐post’ approaches to treating SMA (such as using pharmacological agents or gene therapy), there is a moral imperative to pursue ‘ex‐ante’ interventions (such as carrier screening in combination with prenatal testing and preimplantation genetic diagnosis, or gene editing) to reduce the incidence of SMA. There are moral reasons relating to autonomy, beneficence and justice to prioritize ex‐ante methods over ex‐post methods. (shrink)

Objective : Pre-implantation genetic diagnosis (PGD) has been utilized by assisted reproductive technology (ART) to genetically screen embryos before placement in the uterus. However, many objections have been raised against the genetic screening of embryos, giving the practice an uncertain ethical, legal, and social status. Our aim was, therefore, to survey the possible presence and compliance to any legislation for PGD in the existing 60 in vitro fertilization (IVF) centres in the Gulf Cooperative Council (GCC) countries as well (...) as the availability of such a technological service. Methods : The study was performed in the department of biochemistry at King Faisal University between the periods Mar 2006 to Nov 2007. A questionnaire, in the form of a table, was sent to responsible persons of all 60 IVF centres and health authorities in the GCC countries. The collected data about the regulations and guidelines for the PGD program was analyzed using SPSS software package version 12.0 and the level of significance was set at P Results: 18 respondents, 16 IVF centres and 2 health authorities (26.87% of total) participated in the survey. The PGD techniques, mainly FISH analyses, were practiced in three centres in Saudi Arabia and one centre in the UAE. The major provider of PGD was King Faisal Specialist Hospital and Research Centre in Riyadh where more than 300 PGD tests had been performed. Whilst some regulations and guidelines have been introduced to IVF centres in all GCC countries, their implementations were left to the discretion of the treating centre. Conclusions : PGD services in the GCC countries were under-utilized due to the high cost of tests, the sophisticated technology involved and the poor returns of the investment. As a result of some deficiencies in the legislations which regulated PGD, the medical teams involved often faced difficulties on what rights to exercise in various PGD cases. (shrink)

Pre-Implantation Genetic Diagnosis represents the first fusion of genomics and assisted reproduction and the first reproductive technology that allows prospective parents to screen and select the genetic characteristics of their potential offspring. However, for some, the idea that we can intervene in the mechanisms of human existence at such a fundamental level can be, at a minimum, worrying and, at most, repugnant. Religious doctrines particularly are likely to collide with the rapidly advancing capability for science to make such (...) interventions. This paper focuses on opinions and arguments of selected religious scholars regarding ethical issues pertaining to PGD. In-depth interviews were conducted with religious scholars from three different religious organizations in the Klang Valley, Malaysia. Findings showed that Christian scholars are very sceptical of the long-term use of PGD because of its possible effect on the value of humanity and the parent-children relationship. This differs from Islamic scholars, who view PGD as God-given knowledge in medical science to further help humans understand medical genetics. For Buddhist scholars, PGD is considered to be new medical technology that can be used to save lives, avoid suffering, and bring happiness to those who need it. Our results suggest that it is important to include the opinions and views of religious scholars when it comes to new medical technologies such as PGD, as their opinions will have a significant impact on people from various faiths, particularly in a multi-religious country like Malaysia where society places high value on marital relationships and on the traditional concepts of family. (shrink)

In this new post-genomic age of medicine and biomedical technology, there will be novel approaches to understanding disease, and to finding drugs and cures for diseases. Hundreds of new “disease genes” thought to be the causative agents of various genetic maladies will be identified and added to the list of hundreds of such genes already identified. Based on this knowledge, many new genetic tests will be developed and used in genetic screening programs. Genetic screening is the (...) foundation upon which reproductive technologies such as pre-natal diagnosis (PND) and preimplantation genetic diagnosis (PGD) are based. Genetic information arising from the human genome may also be used in attempts to redesign the human genetic inheritance by engineering the human germline (germline engineering). In each of these technologies—PND, PGD, and germline engineering—there are serious ethical and social concerns. Moreover, all three are eugenic in nature because they strive to control which genes are passed down to future generations. The goals of this article are threefold: 1) to introduce the science behind the three technologies; 2) to give a brief overview of eugenics in the past century and show how these genetic technologies are eugenic; and 3) to present a vision of social justice that rejects the genetic determinism upon which eugenics is based and embraces a holistic, ecological view of nature and humanity. (shrink)

In this retitled and revised version of Harris's original text Wonderwoman and Superman, the author discusses the ethics of human biotechnology and its implications relative to human evolution and destiny.

This study aims to investigate the awareness and perception level of bioethical issues among pre-service science teachers at one of the Malaysian Education Institutions. A total of 67 respondents studying science major and science elective were involved. A questionnaire based survey with an alpha Cronbach of approximately 0.93 was used. Data were analysed using SPSS version 22. The results showed that the average awareness and perception level were =4.218±0.758 (very high level) and =3.991±0.923 (high level), respectively. There was a statistically (...) significant difference according to religion and course. Cloning showed the highest awareness level followed by organ donation, genetic modification, stem cells, abortion, gene therapy, gene screening and euthanasia. Overall, the findings indicated that pre-service science teachers were aware of the existence of bioethical issues. However, the authorities may implement bioethical issues more firmly in the future to increase pre-service science teachers’ awareness and perception level. (shrink)

Like any philosophically interesting health care practice, ethical analysis of Pre-implantation Genetic Diagnosis has produced a wide range of moral positions. For example, one might contrast David King's view that warns PGD should be strictly limited and regulated because it will soon result in the expansion of a troubling "laissez-faire eugenics" with Julian Savulescu's argument for the "principle of procreative beneficence" morally requiring parents to use information attained through PGD to select the "best child". That is, these authors represent (...) two poles of a sort of moral spectrum regarding PGD. At one end, we have a deep suspicion of the technology as directly leading to... (shrink)

While pre-implantation genetic diagnosis is available and legal in Malaysia, there is an ongoing controversy debate about its use. There are few studies available on individuals’ attitudes toward PGD, particularly among those who have a genetic disease, or whose children have a genetic disease. To the best of our knowledge, this is, in fact, the first study of its kind in Malaysia. We conducted in-depth interviews, using semi-structured questionnaires, with seven selected potential PGD users regarding their knowledge, (...) attitudes and decisions relating to the use PGD. The criteria for selecting potential PGD users were that they or their children had a genetic disease, and they desired to have another child who would be free of genetic disease. All participants had heard of PGD and five of them were considering its use. The participants’ attitudes toward PGD were based on several different considerations that were influenced by various factors. These included: the benefit-risk balance of PGD, personal experiences of having a genetic disease, religious beliefs, personal values and cost. The study’s findings suggest that the selected Malaysian participants, as potential PGD users, were supportive but cautious regarding the use of PGD for medical purposes, particularly in relation to others whose experiences were similar. More broadly, the paper highlights the link between the participants’ personal experiences and their beliefs regarding the appropriateness, for others, of individual decision-making on PGD, which has not been revealed by previous studies. (shrink)

A recent article on the front page of The Independent reported that the genetic ‘manipulation’ of IVF embryos is to start in Britain, using a new revolutionary gene-editing technique, called Crispr/Cas9. About three weeks later, on the front page of the same newspaper, it was reported that the National Health Service faces a one billion pound deficit only 3 months into the new year. The hidden connection between these reports is that gene editing could be used to (...) solve issues related to health care allocation. Improving the health of future generations might coincide with public health goals; it might improve the health of individuals and communities, and, if successful, might be seen as a public good. However, enhancing future generations will require In Vitro Fertilisation and Pre-implantation Genetic Diagnosis. Remarkably, the necessary involvement of women in an enhancing scenario has not been discussed by its proponents. The present discourse on moral obligations of future generations, although not referring to women, seems to imply that women might be required, morally, if not legally, to reproduce with IVF. Enhancing future generations will be gendered, unless the artificial womb is developed. These are challenging issues that require a wider perspective, of both women and men. Despite the lack of a unified feminist conclusion in the discussions about the merits and risks of human genome modification, there is an urgent need to clarify the role of women in this scenario. (shrink)

A good part of the explanation for differences in happiness has to do with genetics. This chapter reviews the scientific data relevant to a heritable component to happiness, and the prospects for using current and future technologies to alter those who have not won the genetic lottery. The chapter looks at the concept of heritability, and then at the heritability of happiness. The notion of heritability is typically seen as a composite of two factors: genetics and the environment. Three (...) promising technologies could be used to change the biological basis of happiness: pre‐implantation genetic diagnosis (PGD), genetic engineering, and advanced pharmacology. Unfortunately, on enhancing the moods of healthy individuals, there is limited research. The fact that two thirds of these “normal and healthy” volunteers felt “better than well” sounds like good news for happy‐people‐pills. The chapter touches upon the paucity of studies of the effects of antidepressants on healthy individuals. (shrink)

This survey on biotechnology and bioethics was carried out on national random samples of the public and scientists in November 2000-January 2000 throughout Japan, and attendees at the Novartis Life Science Forum held on 29 September, 1999 in Tokyo. The sample size was 297, 370, and 74 respectively. While there is better awareness of GMOs in 2000 compared to 1991; the trend shows an increase in the perceived risks of GMOs followed by growing resistance in Japan. While a majority of (...) persons believed genetic engineering would make life better over the next twenty years, the proportion of respondents who thought genetic engineering would make life worse over the next twenty years doubled from 1997 to 2000. Respondents were asked whether they had heard about applications in several areas and the order of familiarity was: pest-resistant crops, human genes in bacteria, mouse to develop cancer, food and drinks, pigs with human hearts and pre-implantation diagnosis. A divide of opinion can be seen when the results on benefit, risk and moral acceptability of applications of biotechnology by the public are compared to the forum and scientist samples.A significant change in the acceptance of the public occurred in 2000 where only 22% agreed on the moral acceptability of GM food compared to 41% in 1997. In 2000 fewer people said they are willing to buy genetically modified fruits that taste better compared to 1997. The results show less public support for use of gene therapy than 1993 and twice as many scientists rejected gene therapy than they did in 1991.When asked whom is best placed to regulate modern biotechnology, the respondents were overwhelmingly in favor of international regulatory bodies, such as the United Nations and the World Health Organization, rather than national bodies. The comparison between scientists and public is interesting, however the more enthusastic sample were participants from the Novartis Life Science Forum with its mixed occupations. (shrink)

Pre-implantation genetic diagnosis became well known in Malaysia after the birth of the first Malaysian ‘designer baby’, Yau Tak in 2004. Two years later, the Malaysian Medical Council implemented the first and only regulation on the use of Pre-implantation Genetic Diagnosis in this country. The birth of Yau Tak triggered a public outcry because PGD was used for non-medical sex selection thus, raising concerns about PGD and its implications for the society. This study aims to explore participants’ perceptions (...) of the future implications of PGD for the Malaysian society. We conducted in-depth interviews with 21 participants over a period of one year, using a semi-structured questionnaire. Findings reveal that responses varied substantially among the participants; there was a broad acceptance as well as rejection of PGD. Contentious ethical, legal and social issues of PGD were raised during the discussions, including intolerance to and discrimination against people with genetic disabilities; societal pressure and the ‘slippery slope’ of PGD were raised during the discussions. This study also highlights participants’ legal standpoint, and major issues regarding PGD in relation to the accuracy of diagnosis. At the social policy level, considerations are given to access as well as the impact of this technology on families, women and physicians. Given these different perceptions of the use of PGD, and its implications and conflicts, policies and regulations of the use of PGD have to be dealt with on a case-by-case basis while taking into consideration of the risk–benefit balance, since its application will impact the lives of so many people in the society. (shrink)

In Germany the question whether to uphold or repeal the judicial prohibition on Pre-implantation Genetic Diagnosis is being debated from quite different standpoints. This paper differentiates the major arguments according to their reasons as a) moral, b) evaluative , and c) legal. The arguments for and against PGD can be divided by content into three groups: arguments relating to the status of the embryo, focusing on individual actions in the implementation of PGD, and relating to the foreseeable or probable (...) consequences of PGD.In Germany, from a legal perspective, the status of the embryo does not permit the intervention of PGD; from a purely moral perspective, a prohibition on PGD does not appear defensible. It remains an open question, however, whether the moral argument permitting PGD should be restricted for evaluative reasons. The paper discusses the species-ethical reasons, for which Jürgen Habermas sees worrisome consequences in the wake of PGD to the extent that we comprehend it as the forerunner of a ‘positive eugenics’. It would so disrupt the natural preconditions of our universal morality. The question of whether to prohibit or allow PGD is not merely a question of simple moral and/or legal arguments, but demands a choice between evaluative, moral and species-ethical arguments, and the question remains open. (shrink)

The access to human pre‐implantation embryos that is afforded by procedures now developed for the treatment of infertility presents the possibility of very early prenatal diagnosis, before implantation in the uterus, of certain genetic diseases. Only the normal embryos would be replaced in the mother for initiation of implantation and pregnancy. Early experiments on a mouse model for Lesch‐Nyhan syndrome (HPRT‐deficiency) show that pre‐implantation diagnosis of genetic disease is feasible.

Pre-implantation genetic diagnosis became well known in Malaysia after the birth of the first Malaysian ‘designer baby’, Yau Tak in 2004. Two years later, the Malaysian Medical Council implemented the first and only regulation on the use of Pre-implantation Genetic Diagnosis in this country. The birth of Yau Tak triggered a public outcry because PGD was used for non-medical sex selection thus, raising concerns about PGD and its implications for the society. This study aims to explore participants’ perceptions (...) of the future implications of PGD for the Malaysian society. We conducted in-depth interviews with 21 participants over a period of one year, using a semi-structured questionnaire. Findings reveal that responses varied substantially among the participants; there was a broad acceptance as well as rejection of PGD. Contentious ethical, legal and social issues of PGD were raised during the discussions, including intolerance to and discrimination against people with genetic disabilities; societal pressure and the ‘slippery slope’ of PGD were raised during the discussions. This study also highlights participants’ legal standpoint, and major issues regarding PGD in relation to the accuracy of diagnosis. At the social policy level, considerations are given to access as well as the impact of this technology on families, women and physicians. Given these different perceptions of the use of PGD, and its implications and conflicts, policies and regulations of the use of PGD have to be dealt with on a case-by-case basis while taking into consideration of the risk–benefit balance, since its application will impact the lives of so many people in the society. (shrink)

Although the ability to perform gene therapy in human germ-line cells is still hypothetical, the rate of progress in molecular and cell biology suggests that it will only be a matter of time before reliable clinical techniques will be within reach. Three sets of arguments are commonly advanced against developing those techniques, respectively pointing to the clinical risks, social dangers and better alternatives. In this paper we analyze those arguments from the perspective of the client-centered ethos that traditionally governs (...) practice in medical genetics. This perspective clarifies the merits of these arguments for geneticists, and suggests useful new directions for the professional discussion of germ-line gene therapy. It suggests, for example, that the much discussed prospect of germ-line therapy in human pre-embryos may always be more problematic for medical genetics than adult germ-line interventions, even though the latter faces greater technical difficulties. (shrink)

The Perfect Baby is the most popular introduction to ethical issues in genetics. This new edition has been updated to discuss and debate advances in high tech reproduction, genetic testing, gene therapy, human cloning, and stem cell research. It includes a new epilogue by cloning pioneer Ian Wilmut and Glenn McGee.

In 1969, the field of human genetics was in its infancy. Amniocentesis was a new technique for prenatal diagnosis, and a newborn genetic screening program had been established in one state. There were also concerns about the potential hazards of genetic engineering. A research group at the Hastings Center and Paul Ramsey pioneered in the discussion of genetics and bioethics. Two principal techniques have emerged as being of enduring importance: human gene transfer research and genetic testing (...) and screening. This essay tracks the development and use of these techniques and considers the ethical issues that they raise. (shrink)

In lieu of an abstract, here is a brief excerpt of the content:Genetic Testing and Genetic ScreeningPat Milmoe McCarrick (bio)In recent years there has been an enormous expansion in the knowledge that may be gleaned from the testing of an individual's genetic material to predict present or future disability or disease either for oneself or one's offspring. The Human Genome Project, which is currently mapping the entire human gene system, is identifying progressively more genetic sequencing (...) information (see Scope Note 17, The Human Genome Project). Information obtained from genetic testing raises ethical and legal questions about its uses by society. The ethical dilemmas were foreseen two decades ago by bioethicists who asked whether questionable applications could stop "legitimate pursuits" (IV, Gaylin 1972) and whether genetic disease might come to be viewed as "transmissible" in the sense of being contagious (IV, Veatch 1974).Not only has knowledge expanded, but the practice of genetic testing and screening has greatly increased as well. For example, in the case of testing for cystic fibrosis (CF), the U.S. Congress' Office of Technology Assessment (OTA) estimates that instances of screening jumped from 9310 tests in 1991 to 63,000 tests in 1992 (I, OTA [Cystic Fibrosis] 1992). In addition, the OTA estimates that within the next few years, the six million women who become pregnant each year routinely will be informed of available CF carrier tests (I, OTA [Cystic Fibrosis] 1992).Following the recent identification of a gene linked to breast cancer, Dr. Francis Sellers Collins, director of the National Center for Human Genome Research, said that "it is not inconceivable that every woman in America may want to be screened for this gene. The economic, ethical, and counseling issues will be very daunting." Dr. Collins opines that in the near future physical examinations for 18-year-olds will include DNA testing for diseases with genetic components and that physicians, in the interests of preventive medicine, will make risk-based recommendations for a healthy life-style (IV, Breo 1993). The U.S. President's Commission for the Study of Ethical Problems in Medicine and Biomedical and Behavioral Research predicted as early as 1983 that before the end of the century genetic screening and counseling would become major components of both public health and individual medical care (I, U.S. President's Commission 1983). [End Page 333]The OTA defines genetic testing as "the use of specific assays to determine the genetic status of individuals already suspected to be at high risk for a particular inherited condition. The terms genetic test, genetic assay, and genetic analysis are used interchangeably to mean the actual laboratory examination of samples." In contrast, genetic screening usually uses the same assays employed for genetic testing but is distinguished from genetic testing by its target population (I, OTA [Genetic Monitoring] 1990). The National Academy of Sciences (NAS) defines screening as the systematic search of populations for persons with latent, early, or asymptomatic disease (III, NAS 1975). Some of the literature annotated for this Scope Note appears to use the terms "testing" and "screening" interchangeably.Philip Boyle of the Hastings Center points out that the language used to describe genetic variation is important and asks what words should be used: "Defects, flaws, deleterious genes, disorders, or the more neutral conditions? Using words such as normal—and its corollary, abnormal—is likely to foster stigmatization and discrimination" (III, Genetic Grammar, Boyle 1992).Areas of focus in genetic testing include: prenatal diagnosis, newborn screening, carrier screening, forensic screening, and susceptibility screening.Prenatal diagnosis discerns whether a fetus is at risk for various identifiable genetic diseases or traits. Prenatal diagnosis is made using amniotic fluid, fetal cells, and fetal or maternal blood cells obtained during amniocentesis testing; alpha fetoprotein assays or chorionic villus sampling; or ultrasound tomography, which creates fetal images on a screen. Another method, known as fetoscopy, uses a camera on a needle inserted in the uterus to view the fetus. Since prenatal screening began in 1966 (I, U.S. President's Commission 1983), the number of metabolic defects and genetic disorders that can be diagnosed prenatally has expanded greatly. There is also discussion of requiring testing for parents who are participating in an in vitro fertilization program and are at genetic... (shrink)

Biomedical ontologies are emerging as critical tools in genomic and proteomic research where complex data in disparate resources need to be integrated. A number of ontologies exist that describe the properties that can be attributed to proteins; for example, protein functions are described by Gene Ontology, while human diseases are described by Disease Ontology. There is, however, a gap in the current set of ontologies—one that describes the protein entities themselves and their relationships. We have designed a PRotein Ontology (...) (PRO) to facilitate protein annotation and to guide new experiments. The components of PRO extend from the classification of proteins on the basis of evolutionary relationships to the representation of the multiple protein forms of a gene (products generated by genetic variation, alternative splicing, proteolytic cleavage, and other post-translational modification). PRO will allow the specification of relationships between PRO, GO and other OBO Foundry ontologies. Here we describe the initial development of PRO, illustrated using human proteins from the TGF-beta signaling pathway. (shrink)

In The Future of Human Nature, Jürgen Habermas raises the question of whether the embryonic genetic diagnosis and genetic modification threatens the foundations of the species ethics that underlies current understandings of morality. While morality, in the normative sense, is based on moral interactions enabling communicative action, justification, and reciprocal respect, the reification involved in the new technologies may preclude individuals to uphold a sense of the undisposability of human life and the inviolability of human beings that is (...) necessary for their own identity as well as for reciprocal relations. Engaging with liberal bioethics and Catholic approaches to bioethics, the article clarifies how Habermas’ position offers a radical critique of liberal autonomy while maintaining its postmetaphysical stance. The essay argues that Habermas’ approach may guide the question of rights of future generations regarding germline gene editing. But it calls for a different turn in the conversation between philosophy and theology, namely one that emphasizes the necessary attention to rights violations and injustices as a common, postmetaphysical starting point for critical theory and critical theology alike. In 2001, Jürgen Habermas published a short book on questions of biomedicine that took many by surprise.[1] To some of his students, the turn to a substantive position invoking the need to comment on a species ethics rather than outlining a public moral framework was seen as the departure from the “path of deontological virtue,”[2] and at the same time a departure from postmetaphysical reason. Habermas’ motivation to address the developments in biomedicine had certainly been sparked by the intense debate in Germany, the European Union, and internationally on human cloning, pre-implantation genetic diagnosis, embryonic stem cell research, and human enhancement. He turned to a strand of critical theory that had been pushed to the background by the younger Frankfurt School in favor of cultural theory and social critique, even though it had been an important element of its initial working programs. The relationship of instrumental reason and critical theory, examined, among others, by Max Horkheimer, Theodor W. Adorno, and Herbert Marcuse and taken up in Habermas’ own Knowledge and Interest and Theory of Communicative Action became ever-more actual with the development of the life sciences, human genome analysis, and genetic engineering of human offspring. Today, some of the fictional scenarios discussed at the end of the last century as “science fiction” have become reality: in 2018, the first “germline gene-edited” children were born in China.[3] Furthermore, the UK’s permission to create so-called “three-parent” children may create a legal and political pathway to hereditary germline interventions summarized under the name of “gene editing.”In this article, I want to explore Habermas’ “substantial” argument in the hope that philosophy and theology become allies in their struggle against an ever-more reifying lifeworld, which may create a “moral void” that would, at least from today’s perspective, be “unbearable”, and for upholding the conditions of human dignity, freedom, and justice. I will contextualize Habermas’ concerns in the broader discourse of bioethics, because only by doing this, his concerns are rescued from some misinterpretations.[1] Jürgen Habermas, The Future of Human Nature.[2] Ibid., 125, fn. 58. 8[3] Up to the present, no scientific publication of the exact procedure exists, but it is known that the scientist, Jiankui He, circumvented the existing national regulatory framework and may have misled the prospective parents about existing alternatives and the unprecedented nature of his conduct. Yuanwu Ma, Lianfeng Zhang, and Chuan Qin, "The First Genetically Gene‐Edited Babies: It's “Irresponsible and Too Early”," Animal Models and Experimental Medicine ; Matthias Braun, Meacham, Darian, "The Trust Game: Crispr for Human Germline Editing Unsettles Scientists and Society," EMBO reports 20, no. 2. (shrink)

The present article describes and critically evaluates the medical/social distinction as used in the context of embryo selection through pre-implantation genetic diagnosis . According to such a distinction, while embryo selection for medical purposes, for example preventing the birth of a child with severe genetic disease, may be ethically justified, screening and the selection of embryos for social reasons, such as the implantation of an embryo of specific gender or one that carries the gene responsible for intelligence, (...) should not be allowed. The article challenges the automatic and repeated use of such a distinction in ethical debates concerning PGD. It is argued that existing justifications for the medical/social distinction seem not to support the conclusion that such a distinction should determine whether embryos should be returned for implantation or misused by genetic parents in a conclusive way. The article further analyzes alternative proposals to the medical/social distinction in light of which embryo selection should be ethical, and concludes with the author’s own proposal for ethical reasoning in the area of embryo selection. Under such a proposal, any embryo selection that would, on balance, increase the variety of potential life plans for the future child from which he or she will be able to choose is prima facie ethically justifiable. (shrink)

In lieu of an abstract, here is a brief excerpt of the content:Human Gene TherapyMary Carrington Coutts (bio)On September 14, 1990, researchers at the U.S. National Institutes of Health (NIH) performed the first approved gene therapy procedure on a four-year-old girl named Ashanti DeSilva. Born with a rare genetic disease, severe combined immune deficiency (SCID), Ashanti lacked a healthy immune system and was extremely vulnerable to infection. Children with SCID usually develop overwhelming infections and rarely survive to (...) adulthood; even a common childhood illness like chicken pox is life-threatening. Ashanti led a cloistered existence, avoiding contact with people outside her family, remaining in the sterile environment of her home, and battling frequent illnesses with massive amounts of antibiotics.In Ashanti's gene therapy procedure, her own white blood cells were genetically modified and then infused back into her bloodstream. Laboratory tests show that the therapy has strengthened Ashanti's immune system. She no longer has recurrent colds, has been allowed to attend school, and has been immunized against whooping cough. This gene therapy procedure is not a cure, however. The genetically-treated white blood cells only survive for a few months and must then be replaced, but Ashanti's future is much brighter because of the new therapy (VI, Thompson [The First] 1993).Although this simplified description of Ashanti's gene therapy procedure sounds like a happy ending, it is little more than an optimistic chapter in a long story. The road to the first approved gene therapy procedure was rocky and fraught with controversy. The biology of human gene therapy is very complex, and there are still many techniques that need to be developed and diseases that need to be understood more fully before gene therapy is well established. The public policy debate surrounding the possible use of genetically engineered material in human subjects is equally complex. Major participants in the debate come from the fields of biology, government, law, medicine, philosophy, politics, and religion, each bringing different views to the discussion.In studying the ethics of gene therapy, one should draw a distinction between [End Page 63] therapy on somatic (non-reproductive) cells and germ (reproductive) cells. Only the germ cells carry the genes that will be passed on to the next generation. Reactions to gene therapy have varied widely. Some commentators on gene therapy object to any form of genetic manipulation, no matter how well-intentioned (VI, Rifkin 1983). Another reaction is to allow the use of somatic-cell therapy, but not to approve the use of germ-line therapy, which could have unforeseeable effects on future generations. A different stance is that, with proper regulation and safeguards, germ-line gene therapy is a logical extension of the progress made to date and that it is an ethically acceptable procedure.TechniquesTo date, 43 research protocols have been approved for somatic-cell gene therapy in the United States. The techniques employed in each protocol vary, but in general a virus is used as a "vector" to insert the desired gene into the DNA of the patient's cells, in order to compensate for a defective gene. For Ashanti's gene therapy, this technique involved obtaining white blood cells and introducing properly functioning genes into as many of the cells as possible. The normal genes were delivered through the use of a specially-engineered virus.Although similar techniques are used in germ-line gene therapy, the procedure is more difficult. There are two basic ways to perform germ-line gene therapy: (1) to treat a preimplantation embryo that carries a serious genetic defect before its implantation in the mother, which necessitates the use of in vitro fertilization techniques; or (2) to treat the germ cells (sperm or egg cells) of afflicted adults so that the genetic defects would not be passed on to their offspring, which requires the technical expertise to delete the defective gene and insert a properly functioning replacement. Because of the complexity of the procedures involved and the attendant ethical controversy, germ-line therapy is not currently performed.Candidate Diseases for Gene TherapyAt present, gene therapy is likely to be most successful in treating diseases that are caused by single-gene defects and has been approved for treating diseases such... (shrink)

The rationale for pursuing the development and use of Germ-Line selection and modification techniques is examined in this essay. The argument is put forth that it is the moral obligation of the medical profession to make available to the public any technology that can cure or prevent pathology leading to death and disability, in both the present and future generations. Society should pursue the development of strategies for preventing or correcting, at the Germ-Line level, genetic features that will lead (...) to, or enhance, pathological conditions. Because prenatal screening and even early embryo screening and selection can prevent only a subset of known genetic disorders, direct genetic intervention is the only way in which certain couples can exercise their rights to reproductive health. Finally, the arguments most often raised against the pursuit of and use of methods for Germ-Line intervention shall be discussed. Keywords: Germ-Line therapy, pre-implantation embryo screening gamete modification, risk and uncertainty CiteULike Connotea Del.icio.us What's this? (shrink)

Informed by a search of the literature about the usage of genetic testing information (GTI) by insurance companies, this paper presents a practical ethical analysis of several distinct public policy options that might be used to govern or constrain GTI usage by insurance providers. As medical research advances and the extension to the Human Genome Project (2016, https://en.wikipedia.org/wiki/human_genome_project_-_write) moves to its fullness over the next decade, such research efforts will allow the full synthesis of human DNA to be connected (...) to predictive health dispositions. As testing costs fall, there will be ever more pressure for citizens to disclose GTI. Genetic testing information is integral to future medical care because it can be used to better assess individually tailored medical therapies as well as to allow a more informed risk analysis by the insurance industry, which in some countries such as the USA underwrites a majority of citizen medical expenses. As discussed in this examination, the revelation of people’s uniquely personal GTI to insurers has enormous societal implications. The major contribution of the paper is to offer policy makers and concerned citizens a nuanced articulation of the basic options to regulate GTI, with a special consideration for ethical fairness and equity. As genetic-based medicine blossoms and pressures to reduce healthcare costs increase, there will be an ever greater impetus for countries to revisit their genetic testing policies. Organizations and policy makers striving to create GTI oversights perceived to be both “fair and effective” need to be aware of the ethical perspectives discussed in this paper. (shrink)

The ability of medical science to clone and perhaps even predetermine characteristics of certain species conflicts dramatically with many claims of the religious establishment. Opening with a description of various developments in plant, animal, and human genetics, Made in Whose Image? highlights the progress genetic research has achieved, its future promise, and its social impact. The developments are analyzed from the perspective of Christian ethics, as expounded by Roman Catholic and Protestant theorists, to give an overview of crucial ethical (...) issues. In reviewing the advances of genetic research, noted religion and ethics professor Thomas A. Shannon covers general ethical themes, such as the value of life, materialism, freedom, individuality, the concept of nature, and health and disease. In addition, he discusses problems in genetic engineering and misconceptions of the church. Shannon explores prenatal diagnosis, gene therapy, genes and behavior, freedom and responsibility, and the Human Genome Project. The book concludes with a powerful and groundbreaking methodological discussion of how to approach ethical problems in genetic engineering. (shrink)

Pre-natal-diagnosis technologies allow parents to discover whether their child is likely to suffer from serious disability. One argument for state funding of access to such technologies is that doing so would be “cost-effective”, in the sense that the expected financial costs of such a programme would be outweighed by expected “benefits”, stemming from the births of fewer children with serious disabilities. This argument is extremely controversial. This paper argues that the argument may not be as unacceptable as is often assumed. (...) In doing so, it sets out a more general framework for assessing the relevance of efficiency calculations to policy-making. The final section also investigates the relationship between the paper’s arguments and claims about parental responsibility for child-bearing and rearing, with reference to Scanlon’s work on “substantive responsibility”. (shrink)

Pre-natal-diagnosis technologies allow parents to discover whether their child is likely to suffer from serious disability. One argument for state funding of access to such technologies is that doing so would be “cost-effective”, in the sense that the expected financial costs of such a programme would be outweighed by expected “benefits”, stemming from the births of fewer children with serious disabilities. This argument is extremely controversial. This paper argues that the argument may not be as unacceptable as is often assumed. (...) In doing so, it sets out a more general framework for assessing the relevance of efficiency calculations to policy-making. The final section also investigates the relationship between the paper’s arguments and claims about parental responsibility for child-bearing and rearing, with reference to Scanlon’s work on “substantive responsibility”. (shrink)

Human UDP‐glucuronosyltransferases (UDPGTs) are a family of enzymes which detoxify many hundreds of compounds by their conjugation to glucuronic acid, rendering them both harmless and more water soluble, hence, excretable. The level of expression of each UDPGT isoform in the body is the result of interplay between temporal, tissue‐specific and environmental regulators. This complexity contributes to the difficulty in predicting the metabolic fate of compounds.Genetic defects and polymorphisms affecting individual isoform activities have deleterious and potentially lethal effects, as exemplified (...) by the severe hyperbilirubinaemia observed in Crigler‐Najjar Syndrome. Such severe genetic defects in bilirubin glucuronidation are obvious candidates for antenatal screening and gene therapy. (shrink)

In 1956, I decided to apply my experience in microbial genetics to developing analogous systems for human cell lines, including the selection of mutants with either a loss or gain of a biochemical function. For instance, mutants resistant to azahypoxanthine showed a loss of the HPRT enzyme (hypoxanthine phosphoribosyl transferase), whereas gain of the same enzyme was accomplished by blocking de novo purine biosynthesis with aminopterin, while supplying hypoxanthine and thymine (HAT selection). Using HAT selection, we: (i) genetically transformed HPRT− (...) mutant cells to HPRT+ wild type by using DNA extracted from HPRT+ cells, and (ii) selected HPRT+ hybrid cells by fusing HPRT− D98/AH2 cells with skin cells. These approaches, which we dubbed in 1962 as a [first step toward gene therapy], contributed to the later development of (i) cell fusion techniques, (ii) the development of monoclonal antibodies, (iii) routine transformation of mammalian cells with cloned genes, and (iv) methods for creating transgenic organisms. (shrink)

Probably the main purpose of reproductive technologies is to enable people who choose to do so to avoid the birth of a baby with a disabling condition. However the conditions women want information about and the ‘price’ they are willing to pay for obtaining that information vary enormously. Individual women have to arrive at their own prenatal testing choices by ‘trading off’ means and ends in order to resolve the dilemmas facing them. We know very little about how individuals make (...) these trade-offs, so it is difficult to predict how new technologies will affect their choices and preferences. Uptake decisions can be expected to change, especially in the group of women who now are put off by some aspect of the current screening approach, where the avoidance of miscarriage risk may have provided a kind of ‘psychological shelter’, protecting a lot of people from having to make other decisions. Technologies such as Pre-implantation Genetic Diagnosis may remove a second ‘psychological shelter’ because they offer the means of avoiding the birth of an affected child without terminating a pregnancy. Even if new technologies will make some decisions easier in terms of their cognitive demands, they will also create new dilemmas and decision making will not necessarily become less stressful in emotional terms. Key challenges concern information and decision-making. (shrink)

This paper explores the implications of human reproductive cloning for our notions of parenthood. Cloning comes in numerous varieties, depending on the kind of cell to be cloned, the age of the source at the time the clone is created, the intended social relationship, if any, between source and clone, and whether the clone is to be one of one, or one of many, genetically identical individuals alive at a time. The moral and legal character of an act (...) of cloning may, moreover, differ in light of these distinctions. Surprisingly, however, reproductive cloning in all its variety seems to undermine the view of parenthood that is most popular among proponents of reproductive technology in the bioethics literature. This view, geneticism, has much to recommend it. I will show, however, that as commonly understood, geneticism is incompatible with the reproductive view of cloning. I then canvass alternative accounts of parenthood—namely, conventionalism, gestationalism, and intentionalism—but none succeeds in explaining reproductive cloning. I thus return to a reconstructed version of geneticism. I argue that the problem for geneticism rests not with the notion of genetic parenthood as such but with a particular, flawed, understanding of it, which I call informational geneticism. Informational geneticism should be rejected in favor of a “physicalistic” version of geneticism, which treats genes as particular objects, not abstract types, and takes seriously the essentially embodied character of reproduction. For these reasons, physicalistic geneticism survives the challenge represented by reproductive cloning. Additionally, physicalistic geneticism accommodates attractive aspects of competing views of parenthood, meeting some powerful objections in the process. (shrink)

types of application of genetic engineering for the insertion of genes into humans. The scientific requirements and the ethical issues associated with each type are discussed. Somatic cell gene therapy is technically the simplest and ethically the least controversial. The first clinical trials will probably be undertaken within the next year. Germ line gene therapy will require major advances in our present knowledge and it raises ethical issues that are now being debated. In order to provide guidelines (...) for determining when germ line gene therapy would be ethical, the author presents three criteria which should be satisfied prior to the time that a clinical protocol is attempted in humans. Enhancement genetic engineering presents significant, and troubling, ethical concerns. Except where this type of therapy can be justified on the grounds of preventive medicine, enhancement engineering should not be performed. The fourth type, eugenic genetic engineering, is impossible at present and will probably remain so for the foreseeable future, despite the widespread media attention it has received. Keywords: genetic engineering, somatic cells, germ cells, enhancement, eugenics, humanhood CiteULike Connotea Del.icio.us What's this? (shrink)

This book uses insights from disability studies to understand in a deeper way the ethical implications that genetic technologies pose for Christian thought. Theologians have been debating genetic engineering for decades, but what has been missing from many theological debates is a deep concern for persons with genetic disabilities. In this ambitious and stimulating book, Devan Stahl argues that engagement with metaphysics and a theology of nature is crucial for Christians to evaluate both genetic science and (...) the moral use of genetic technologies, such as human genetic engineering, gene therapy, genetic screenings, preimplantation genetic diagnosis, and gene editing. Using theological notions of creation ex nihilo and natural law alongside insights from disability studies, the book seeks to recast the debate concerning genetic well-being. Following the work of Stanley Hauerwas, Stahl proposes the church as the locus for reimagining disability in a way that will significantly influence the debates concerning genetic therapies. Stahl's project in "genethics" proceeds with an acute awareness of her own liberal Protestant tradition's early embrace of the eugenics movement in the name of scientific and medical advancement, and it constructively engages the Catholic tradition's metaphysical approach to questions in bioethics to surpass limitations to Protestant thinking on natural law. Christianity has all too frequently been complicit in excluding, degrading, and marginalizing people with disabilities, but the new Christian metaphysics developed here by way of disability perspectives provides normative, theological guidance on the use of genetic technologies today. As Stahl shows in her study, only by heeding the voices of people with disabilities can Christians remain faithful to the call to find Christ in "the least of these" and from there draw close to God. This book will be of interest to scholars in Christian ethics, bioethics, moral theology, and practical theology. (shrink)

Advances in genetic technology in general and medical genetics in particular will enable us to intervene in the process of human biological development which extends from zygotes and embryos to people. This will allow us to control to a great extent the identities and the length and quality of the lives of people who already exist, as well as those we bring into existence in the near and distant future. Genes and Future People explores two general philosophical questions, one (...) metaphysical, the other moral: (1) How do genes, and different forms of genetic intervention (gene therapy, genetic enhancement, presymptomatic genetic testing of adults, genetic testing of preimplantation embryos), affect the identities of the people who already exist and those we bring into existence? and (2) How do these interventions benefit or harm the people we cause to exist in the near future and those who will exist in the distant future by satisfying or defeating their interest in having reasonably long and disease-free lives? Genes and Future People begins by explaining the connection between genes and disease, placing genetic within a framework of evolutionary biology. It then discusses such topics as how genes and genetic intervention influence personal identity, what genetic testing of individuals and the knowledge resulting from it entails about responsibility to others who may be at risk, as well as how gene therapy and genetic enhancement can affect the identities of people and benefit or harm them. Furthermore, it discusses various moral aspects of cloning human beings and body parts. Finally, it explores the metaphysical and moral implications of genetic manipulation of the mechanisms of aging to extend the human life span.The aim Genes and Future People is to move philosophers, bioethicists, and readers in general to reflect on the extent to which genes determine whether we are healthy or diseased, our identities as persons, the quality of our lives, and our moral obligations to future generations of people. (shrink)

Jürgen Habermas’s recent book Die Zukunft der menschlichen Natur (2001) is discussed. Particular attention is paid to the central argument concerning the adverse effects the general acceptance of cloning and pre-implantation genetic diagnostics (PGD) would have on the moral and political self-understanding of present and future generations. The argument turns to a critique of Habermas’s central arguments against PGD, and develops at least two arguments that are in harmony with his general defense of procedural democracy and deontological morality. (...) Appeal is made to Peter Singer and John Rawls to develop arguments that do not reject either PGD or genetic engineering and that are nonetheless in full compliance with the spirit of political modernity, as it is defended and defined by Habermas. The conclusion calls for less moralizing and more political-economic critique of the biotechnologies unleashed by the information revolution. (shrink)

Today, French public debate and bioethics research reflect an ongoing controversy about eugenics. The field of reproductive medicine is often targeted as pre-implantation genetic diagnosis (PGD), prenatal diagnosis, and prenatal detection are accused of drifting towards eugenics or being driven by eugenics considerations. This article aims at understanding why the charge against eugenics came at the forefront of the ethical debate. Above all, it aims at showing that the charge against prenatal diagnosis is groundless. The point of view presented (...) in this article has been elaborated jointly by a geneticist and a philosopher. Besides a survey of the medical, bioethical, philosophical and social sciences literature on the topic, the methodology is founded on a joint analysis of geneticist’s various consults. Evidence from office visits demonstrated that prenatal diagnosis leads to case-by-case decisions. As we have suggested, this conclusion does not mean that prenatal diagnosis is devoid of ethical issues, and we have identified at least two. The first is related to the evaluation of a decision to abort. The second line of ethical questions arises from the fact that the claim for “normality” hardly hides normative and ambiguous views about disability. As a conclusion, ethical dilemmas keep being noticeable in the field of reproductive medicine and genetic counselling, but an enquiry about eugenic tendencies probably does not allow us to understand them in the proper way. (shrink)

What might it be like to be a Buddhist in a future world where your life started with your parents designing your genes? In addition to screening for unwanted genetic diseases, they would have selected your genes for sex; height; eye, hair, and skin color; and, if your parents are Buddhists, maybe even for genes that allow you to sit easily in the full lotus position. Pressured by current social fads, they may also have chosen genes whose overall functions (...) are not clearly understood but are rumored to be connected with temperament, intelligence, mindfulness, and perhaps psychic powers. (There is no longer any need to search for reincarnated lamas. They now clone themselves and get reborn in their own clones.) If your parents are poor, they may have been paid to design you with genes tailored for a particular occupation, together with a pre-birth contract for future employment. As in the film Gattaca, you probably belong to a clearly defined social class according to the degree of your genetic enhancement. Of course there may still be a few weird, unenhanced naturals-by-choice meditating in the mountains. (shrink)

Is it right to use pre-implantation genetic diagnosis to select an embryo free of the gene for early-onset Alzheimer’s disease?A 30 year old woman with the gene for early-onset Alzheimer’s disease, who seems certain to develop the disease by the time she is 40, has used IVF and preimplantation genetic diagnosis to select an embryo that is free of the mutant gene. The woman, a geneticist, has given birth to a mutation-free child. This marks the (...) first time that preimplantation genetic diagnosis has been used to “weed out” an embryo with the defect.1–3Early-onset Alzheimer’s is an inherited, incurable disease striking people …. (shrink)

In a widely acclaimed study from 2002, researchers found a case of gene-environment interaction for a gene controlling neuroenzymatic activity (low vs. high), exposure to childhood maltreatment, and antisocial personality disorder (ASPD). Cases of gene-environment interaction are generally characterized as evincing a genetic predisposition; for example, individuals with low neuroenzymatic activity are generally characterized as having a genetic predisposition to ASPD. I first argue that the concept of a genetic predisposition fundamentally misconstrues these cases (...) of gene-environment interaction. This misconstrual will be diagnosed, and then a new concept—interactive predisposition—will be introduced. I then show how this conceptual shift reconfigures old questions and raises new questions for genetic screening. Attempts to screen embryos or fetuses for the gene associated with low neuroenzymatic activity with an eye towards selecting against the low-activity variant fall prey to the myth of pre-environmental prediction; attempts to screen newborns for the gene associated with low neuroenzymatic activity with an eye towards early intervention will have to face the interventionist’s dilemma. (shrink)

Recombinant DNA technology will soon allow physicians an opportunity to carry out both somatic cell- and Germ-Line gene therapy. While somatic cell gene therapy raises no new ethical problems, gene therapy of gametes, fertilized eggs or early embryos does raise several novel concerns. The first issue discussed here relates to making a distinction between negative and positive eugenics; the second issue deals with the evolutionary consequences of lost genetic diversity. In distinguishing between positive and negative eugenics, (...) the concept of malady is applied as a definitional criterion for identifying genetic disorders that could qualify for Germ-Line therapy. Because gene replacement techniques are currently unavailable for humans, and because even if they were possible the number of people involved would be quite small, the loss of diversity concern seems moot. Finally, we dissuss the issue of iatrogenic disorders associated with gene therapy and discuss several ‘real world considerations.’. (shrink)