We are walking too quickly down the road to physical and psychological utopia without pausing to assess the potential damage to our humanity from this brave new ...

Recent developments in biotechnology and genetic research are raising complex ethical questions concerning the legitimate scope and limits of genetic intervention. As we begin to contemplate the possibility of intervening in the human genome to prevent diseases, we cannot help but feel that the human species might soon be able to take its biological evolution in its own hands. 'Playing God' is the metaphor commonly used for this self-transformation of the species, which, it seems, might soon be within our grasp. (...) In this important new book, Jurgen Habermas - the most influential philosopher and social thinker in Germany today - takes up the question of genetic engineering and its ethical implications and subjects it to careful philosophical scrutiny. His analysis is guided by the view that genetic manipulation is bound up with the identity and self-understanding of the species. We cannot rule out the possibility that knowledge of one's own hereditary factors may prove to be restrictive for the choice of an individual's way of life and may undermine the symmetrical relations between free and equal human beings. In the concluding chapter - which was delivered as a lecture on receiving the Peace Prize of the German Book Trade for 2001 - Habermas broadens the discussion to examine the tension between science and religion in the modern world, a tension which exploded, with such tragic violence, on September 11th. (shrink)

The first U.S. nominee for the Nobel Prize, Jacques Loeb was trained in experimental physiology in Germany, joined the biology faculty of the new University of Chicago in 1892, later taught at the University of California at Berkeley and then moved to the Rockefeller Institute. Loeb's career provides the vehicle, in this book, for an examination of the foundations of biotechnology.

This book provides an explanation of the connections between nature at its most basic level and natural selection, archaeology, linguistics, child development, computers and other complex adaptive systems.

Two groups of researchers released the formal report of data for the human genome last Monday -- on the birthday of Charles Darwin, who jump-started our biological understanding of life's nature and evolution when he published ''The Origin of Species'' in 1859. On Tuesday, and for only the second time in 35 years of teaching, I dropped my intended schedule -- to discuss the importance of this work with my undergraduate course on the history of life. (The only other case, (...) in a distant age of the late 60's, fell a half-hour after radical students had seized University Hall and physically ejected the deans; this time at least, I told my students, the reason for the change lay squarely within the subject matter of the course!). (shrink)

In this paper I claim that the goal of mapping and sequencing the human genome is not wholly new, but rather is an extension of an older project to map genes, a central aim of genetics since its birth. Thus, the discussion about the value of the HGP should not be posed in global terms of acceptance or rejection, but in terms of how it should be developed. The first section of this paper presents a brief history of the project. (...) The second section distinguishes among four kinds of issues relevant to an evaluation of the HGP: those economic and organizational issues related to the feasibility of the project; the ethical questions arising in the development of the project and the application of the data gathered; the empirical issues relevant to the scientific value of the project; and conceptual issues like reductionism and determinism relevant to understand the nature and scope of the project. In a third section, I analyze in detail whether the HGP and, more generally, molecular biology is reductionistic. (shrink)

In a sense, all technology is biotechnology: machines interacting with human organisms. Technology is designed to overcome the frailties and limitations of human beings in a state of nature -- to make us faster, stronger, longer-lived, smarter, happier. And all technology raises questions about its real contribution to human welfare: are our lives really better for the existence of the automobile, television, nuclear power? These questions are ethical and political, as well as medical; and they even reach to the philosophical (...) and spiritual. On the whole, we seem pretty well adapted to our technology, at least on the face of it -- but there have always been doubts about whether the human soul thrives best in the oppressively technological world we have created for ourselves. (I am continually struck by how much time I have to spend fixing the machines that supposedly improve my life.). (shrink)

In a provocative analysis of sport ethics and human values, Genetically Modified Athletes imagines the brave new world of sport. The internationally acclaimed book examines this issue at a crucial time in its theorisation, questioning the very cornerstone of sporting and medical ethics, asking whether sporting authorities can, or even should, protect sport from genetic modification. This book brings together sport studies and bioethics to challenge our understanding of the values that define sport. We already allow that athletes can optimise (...) their performance by the use of technologies; without wishing to assert that 'anything goes' in sports performance enhancement, Andy Miah argues that simply being human matters in sport and that genetic modification does not have to challenge this capacity. Genetically Modifies Athletes includes examination of: * the concept of 'good sport' and the definition of cheating * the doped athlete - should we be more sympathetic? * the role of the medical industry * the usefulness of the terms 'doping' and 'anti-doping'. An important and growing field of interest, this book should be read by students, academics and practitioners. (shrink)

This article explores the way in which social explanations underpin the names of particular disciplines. Taking the example of pharmacogenomics, it shows how this term has been constructed since it appeared in 1997, the differences and similarities between it and its precursor, pharmacogenetics, and the way in which commercial interests underpin this new term. Drawing on the idea of visions and the sociology of expectation, the article shows how different actors compete to have their preferred definitions of the term accepted (...) by the world at large. (shrink)

Francis Fukuyama's controversial new book, Our Posthuman Future: Consequences of the Biotechnology Revolution, has elicited varied reactions, but like it or not, it seems likely to be influential. Here are three opinions. —Ed.