In 2015 a team of scientists used a new gene-editing technique called CRISPR-Cas9 to edit the genome of 86 non-viable human embryos. The experiment sparked a global debate on the ethics of gene editing. In this paper; I first review the key ethical issues that have been addressed in this debate. Although there is an emerging consensus now that research on the editing of human somatic cells for therapeutic purpose should be pursued further; the prospect of using gene-editing techniques for (...) the purpose of human enhancement has been met with strong criticism. The main thesis that I defend in this paper is that some of the most vocal objections recently raised against the prospect of genetic human enhancement are not justified. I put forward two arguments for the morality of genetic human enhancement. The first argument shows how the moral and legal framework within which we currently claim our procreative rights; especially in the context of IVF procedures; could be deployed in the assessment of the morality and legality of genetic human enhancement. The second argument calls into question the assumption that the average level of human cognitive performance should have a normative character. (shrink)

The bioethical principle of autonomy is problematic regarding the future of the embryo who lacks the ability to self-advocate but will develop this defining human capacity in time. Recent experiments explore the use of clustered regularly interspaced short palindromic repeats /Cas9 for germline engineering in the embryo, which alters future generations. The embryo’s inability to express an autonomous decision is an obvious bioethical challenge of germline engineering. The philosopher Joel Feinberg acknowledged that autonomy is developing in children. He advocated that (...) to reserve this future autonomy, parents should be guided to make ethical decisions that provide children with open futures. Here, Feinberg’s 1980 open future theory is extended to the human embryo in the context of CRISPR germline engineering. Although the embryo does not possess the autonomous decision-making capacity at the time of germline engineering, the parental decision to permanently change the unique genetic fabric of the embryo and subsequent generations disregards future autonomy. Therefore, germline engineering in many instances is objectionable considering Feinberg’s open future theory. (shrink)

With the arrival of new methods of genome editing, especially CRISPR/cas 9, new perspectives on germline interventions have arisen. Supporters of germ line genome editing claim that the procedure could be used as a means of disease prevention. As a possible life-saving therapy, it provides benefits that outweigh its risks. Opponents of GGE claim that the medical and societal risks, especially the use of GGE for genetic enhancement, are too high. In our paper, we analyze the risks and benefits of (...) GGE. We show that the medical risk on an individual level might be reduced by further research in the near future so that they may be outweighed by the benefits. We also show that the societal risks of the procedure, i.e. genetic enhancement, are manageable by establishing a regulative framework before the GGE is implemented. Since the effects of modifying genes for the genepool of a given population are extremely difficult to model, the medical risks on the population level might be too high. (shrink)

This discussion note offers a preliminary analysis of what recent developments in human germline gene editing tell us about the effectiveness of speculative and anticipatory modes of techno-ethics. It argues that the benefits of speculative discussions are difficult to detect thus far, and that pushing the focal point of ethical discourse well ahead of the current state of technology may prematurely undermine existing norms long before a broad consensus would justify moving beyond them.

Technologies allowing for the modifications of genes and gene expression are constantly expanding. With these technologies, comes the possibility of new treatments and cures for a number of serious diseases; however, they also pose serious ethical issues that must be addressed. One difficulty with discussing such dilemmas is that most people lack either the scientific or ethical foundations necessary to fully comprehend these issues. It will therefore be necessary for scientists and ethicists to discuss these matters and work together to (...) understand their implications. Herein, we describe a collaborative project that was conducted jointly between an upper-division chemistry class and a capstone ethics course. In this project, the chemistry students provided expertise regarding the technological background and current research applications of technologies related to the modification of genes and gene expression which they share with the ethics students. The ethics students then take this understanding and use it to provide information about ethical systems that can be used to help understand the implications of these technologies. We will describe the genesis of this assignment, the assignment itself, and student and faculty views on the efficacy of this collaborative learning opportunity. (shrink)