The question has long confounded philosophers and scientists, and it is this so-called explanatory gap between biological life and consciousness that Evan ...

What is Life? This is the question asked by Denis Noble in this very personal and at times deeply lyrical book. Noble is a renowned physiologist and systems biologist, and he argues that the genome is not life itself: to understand what life is, we must view it at a variety of different levels, all interacting with each other in a complex web. It is that emergent web, full of feedback between levels, from the gene to the (...) wider environment, that is life. (shrink)

What is Life? To answer this question, Denis Noble argues that we must look beyond the gene's eye view. For modern 'systems biology' considers life on a variety of levels, as an intricate web of feedback between gene, cell, organ, body, and environment. He shows how it is both a biologically rigorous and richly rewarding way of understanding life.

The Value of Life is an exploration of the actual and perceived importance of biological diversity for human beings and society. Stephen R. Kellert identifies ten basic values, which he describes as biologically based, inherent human tendencies that are greatly influenced and moderated by culture, learning, and experience. Drawing on 20 years of original research, he considers: the universal basis for how humans value nature differences in those values by gender, age, ethnicity, occupation, and geographic location how environment-related activities (...) affect values variation in values relating to different species how vlaues vary across cultures policy and management implications Throughout the book, Kellert argues that the preservation of biodiversity is fundamentally linked to human well-being in the largest sense as he illustrates the importance of biological diversity to the human sociocultural and psychological condition. (shrink)

Many of the earliest books, particularly those dating back to the 1900s and before, are now extremely scarce and increasingly expensive. We are republishing these classic works in affordable, high quality, modern editions, using the original text and artwork.

Thompson, Evan. Mind in Life: Biology, Phenomenology, and the Sciences of Mind Content Type Journal Article DOI 10.1007/s10743-009-9057-7 Authors Dan Zahavi, University of Copenhagen Center for Subjectivity Research Njalsgade 140-142 2300 Copenhagen Denmark Journal Husserl Studies Online ISSN 1572-8501 Print ISSN 0167-9848 Journal Volume Volume 25 Journal Issue Volume 25, Number 2.

A critique of Darwinian philosophy and scientism and an updating of the theory of biopolitics beyond Foucault in accordance with today's post-COVID times.

In Mind in Life: Biology, Phenomenology, and the Sciences of Mind, Evan Thompson defends the thesis of a “deep continuity of life and mind” according to which “life and mind share a set of basic organizational properties . . . . Mind is life-like and life is mind-like” . On the one hand, Thompson uncovers mind in life, by considering life and explaining how living organisms are organized in a way that involves (...) the biological implementation of properties that are usually attributed to mental states. On the other hand, he roots mind in life by considering the mind and explaining how mental states are anchored to biological processes. Following the lead of Merleau–Ponty and his notion of “comportment” , Thompson argues that the notion of autonomous dynamic system can integrate the orders of life and mind, and account for the originality of each order, allowing the understanding that “on the one hand, nature is not pure exteriority, but rather in the case of life has its own interiority and thus resembles mind. On the other hand, mind is not pure interiority, but rather a form of structure of engagement with the world and thus resembles life”. (shrink)

[Précis of Mind in Life: Biology, Phenomenology, and the Sciences of Mind] The theme of this book is the deep continuity of life and mind. Where there is life there is mind, and mind in its most articulated forms belongs to life. Life and mind share a core set of formal or organizational properties, and the formal or organizational properties distinctive of mind are an enriched version of those fundamental to life.

Systems Biology and the Modern Synthesis are recent versions of two classical biological paradigms that are known as structuralism and functionalism, or internalism and externalism. According to functionalism (or externalism), living matter is a fundamentally passive entity that owes its organization to external forces (functions that shape organs) or to an external organizing agent (natural selection). Structuralism (or internalism), is the view that living matter is an intrinsically active entity that is capable of organizing itself from within, with purely (...) internal processes that are based on mathematical principles and physical laws. At the molecular level, the basic mechanism of the Modern Synthesis is molecular copying, the process that leads in the short run to heredity and in the long run to natural selection. The basic mechanism of Systems Biology, instead, is self-assembly, the process by which many supramolecular structures are formed by the spontaneous aggregation of their components. In addition to molecular copying and self-assembly, however, molecular biology has uncovered also a third great mechanism at the heart of life. The existence of the genetic code and of many other organic codes in Nature tells us that molecular coding is a biological reality and we need therefore a framework that accounts for it. This framework is Code biology, the study of the codes of life, a new field of research that brings to light an entirely new dimension of the living world and gives us a completely new understanding of the origin and the evolution of life. (shrink)

Synthetic biology is a new biotechnology that is developing at an impressive pace and attracting a considerable amount of attention from outside the scientific community as well. In this article, two main philosophically and ethically relevant characteristics of this field of research will be laid bare, namely its reliance on mechanistic metaphors to denominate simple forms of life and its appeal to the semantic field of creativity. It is argued that given these characteristics synthetic biology can be (...) understood as a prime example of a kind of human interference with reality that German philosopher Hannah Arendt called “fabrication.” This kind of self-world-relation contrasts to “action,” a relation that introduces, among other things, the idea of an inherent value of the object acted upon. Taking up this latter perspective, one scientific and two ethical challenges to synthetic biology’s take on the realm of life are identified. (shrink)

Annotation. "What is life? What does it means to be alive? Is the Earth a super-organism? Is God necessary? In Biology and the Riddle of Life Charles Birch confronts these fundamental questions at a time when such topics as genetic engineering, cloning and ecology have been prominent in the news. Birch confronts the impression that modern biology has answers to all that there is to be known about life. We need to move towards an understanding (...) of living creatures as subjects, and not only as objects, in order to probe life's hidden secrets - what it is to be alive, what it is to experience pain, and what it is to be in love. The answer must include the meaning of life for us as individuals. Birch proposes a new perspective to bring subject and object together. This is the black box he has opened."--BOOK JACKET. Title Summary field provided by Blackwell North America, Inc. All Rights Reserved. (shrink)

Livings things are so very strange -- The quest for a theory of life -- Understanding 'understanding' -- Stability and instability -- The knotty origin of life problem -- Biology's crisis of identity -- Biology is chemistry -- What is life?

_Bringing Biology to Life _is a guided tour of the philosophy of biology, canvassing three broad areas: the early history of biology, from Aristotle to Darwin; traditional debates regarding species, function, and units of selection; and recent efforts to better understand the human condition in light of evolutionary biology. Topics are addressed using no more technical jargon than necessary, and without presupposing any advanced knowledge of biology or the philosophy of science on the part (...) of the reader. Discussion questions are also provided to encourage reader reflection. (shrink)

The aim of this book is to show how supramolecular complexity of cell organization can dramatically alter the functions of individual macromolecules within a cell. The emergence of new functions which appear as a consequence of supramolecular complexity, is explained in terms of physical chemistry. The book is interdisciplinary, at the border between cell biochemistry, physics and physical chemistry. This interdisciplinarity does not result in the use of physical techniques but from the use of physical concepts to study biological problems. (...) In the domain of complexity studies, most works are purely theoretical or based on computer simulation. The present book is partly theoretical, partly experimental and theory is always based on experimental results. Moreover, the book encompasses in a unified manner the dynamic aspects of many different biological fields ranging from dynamics to pattern emergence in a young embryo. The volume puts emphasis on dynamic physical studies of biological events. It also develops, in a unified perspective, this new interdisciplinary approach of various important problems of cell biology and chemistry, ranging from enzyme dynamics to pattern formation during embryo development, thus paving the way to what may become a central issue of future biology. (shrink)

In recent years, an increasing number of theoretical biologists and philosophers of biology have been opposing reductionist research agendas by appealing to the concept of biological autonomy which draws on the older concept of autopoiesis. In my paper, I investigate some of the ontological implications of this approach. The emphasis on autonomy and autopoiesis, together with the associated idea of organisational closure, might evoke the impression that organisms are to be categorised ontologically as substances: ontologically independent, well-individuated, discrete particulars. (...) However, I argue that this is mistaken. Autopoiesis and biological autonomy, properly understood, require a rigorous commitment to a process ontological view of life. (shrink)

This rare publication continues an exploratory journey in relational biology, a study of biology in terms of the organization of networked connections in living systems. It builds on the author's two earlier monographs which looked at the epistemology of life and the ontogeny of life. Here the emphasis is on the intangibility of life, that the real nature of living systems is conveyed not by their tangible material basis but by their intangible inherent processes. Relational (...) biology is the approach that hails 'function dictates structure'; it is mathematics decoded into biological realizations. Therefore, the work begins with a concise introduction to category theory, equiping the reader with the mathematical metalanguage of relation biology. The book is organized around three parts: Part I is a comprehensive study of the most important functor in relational biology, the power set functor. The author lays the set-theoretic foundations of the functorial connections in relational biology, exploring relations, mappings, and set-valued mappings. In Part II, Natural Law receives a new mathematical formulation founded on two axioms: 'Everything is a set.' and 'Every process is a set-valued mapping.' The reader sees how Metabolism-Repair networks, equipped with set-valued processors, expand their role from models of biological entities to generic models of all natural systems. Part III expounds the various shades of invertibility in general, and the inversion of encoding to decoding in particular. A plethora of mathematical and biological examples illustrate the category-theoretic concepts of equivalence and adjunction. This book's algebraic approach to biological models will appeal to researchers and graduate students in mathematics, biology, and the philosophy of science. (shrink)

In this short contribution we explore the historical roots of recent synthetic approaches in biology and try to assess their real potential, as well as identify future hurdles or the reasons behind some of the main difficulties they currently face. We suggest that part of these difficulties might not be just the result of our present lack of adequate technical skills or understanding, but could spring directly from the nature of the biological phenomenon itself. In particular, if life (...) is conceived as autonomy in open-ended evolution, which would help to explain the highly complex and dynamic organization of the simplest known organisms (i.e., genetically-instructed cellular metabolisms), external synthetic implementations of such systems, or interventions on them, are bound to interfere with some of their characteristic transformation processes, both at the ontogenetic and phylogenetic scales. In any case, this will prove very revealing and productive, technologically and scientifically speaking, since the knowledge gathered from those implementations/interventions will be extremely valuable in establishing our capacities and limitations to fully comprehend, utilize, and expand the living domain as we know it today. (shrink)

The genetic code appeared on Earth at the origin of life, and the codes of culture arrived almost four billion years later. For a long time it has been assumed that these are the only codes that exist in Nature, and if that were true we would have to conclude that codes are extraordinary exceptions that appeared only at the beginning and at the end of the history of life. In reality, various other organic codes have been discovered (...) in the past few decades and it is likely that more will come to light in the future. The existence of many organic codes in Nature is therefore an experimental fact, but also more than that. It is one of those facts that have extraordinary implications. In this book it is shown that the genetic code was a precondition for the origin of the first cells, the signal transduction codes divided the first cells into three primary kingdoms (Archaea, Bacteria and Eukarya), the splicing codes were instrumental to the origin of the eukaryotic nucleus, the histone code provided a new regulation system in eukaryotic genomes, and the cytoskeleton codes allowed the Eukarya to perform internal movements, including those of mitosis and meiosis. It is shown, furthermore, that organic codes had a key role in multicellular life, in particular in the origin of animals, the origin of mind and the origin of language. The great events of macroevolution, in other words, were associated with the appearance of new organic codes, and we can easily understand why. The reason is that a new code brings into existence something that has never existed before because it creates arbitrary associations, relationships that are not determined by physical necessity. Another outstanding implication is the fact that codes involve meaning and we need therefore to introduce in biology, with the standard methods of science, not only the concept of biological information but also that of biological meaning. The research on biological codes, in conclusion, is bringing to light new mechanisms in evolution and new fundamental concepts in science. This research is the field of Code Biology, the study of all codes of life, from the genetic code to the codes of culture, from the origin of life to the origin of man. (shrink)

A range of views on the morality of synthetic biology and its place in public policy and political discourse.

Van den Belt recently examined the notion that synthetic biology and the creation of ‘artificial’ organisms are examples of scientists ‘playing God’. Here I respond to some of the issues he raises, including some of his comments on my previous discussions of the value of the term ‘life’ as a scientific concept.

In recent years, an increasing number of theoretical biologists and philosophers of biology have been opposing reductionist research agendas by appealing to the concept of biological autonomy which draws on the older concept of autopoiesis. In my paper, I investigate some of the ontological implications of this approach. The emphasis on autonomy and autopoiesis, together with the associated idea of organisational closure, might evoke the impression that organisms are to be categorised ontologically as substances: ontologically independent, well-individuated, discrete particulars. (...) However, I argue that this is mistaken. Autopoiesis and biological autonomy, properly understood, require a rigorous commitment to a process ontological view of life. (shrink)

Life is all around us, abundant and diverse, it is extraordinary. But what does it actually mean to be alive? Nobel prize-winner Paul Nurse has spent his career revealing how living cells work. In this book, he takes up the challenge of defining life in a way that every reader can understand. It is a shared journey of discovery; step by step he illuminates five great ideas that underpin biology. He traces the roots of his own curiosity (...) and knowledge to reveal how science works, both now and in the past. Using his personal experiences, in and out of the lab, he shares with us the challenges, the lucky breaks, and the thrilling eureka moments of discovery. To survive the challenges that face the human race today - from climate change, to pandemics, loss of biodiversity and food security - it is vital that we all understand what life is. (shrink)

A. H. Louie's More Than Life Itself is an exploratory journey in relational biology, a study of life in terms of the organization of entailment relations in living systems. This book represents a synergy of the mathematical theories of categories, lattices, and modelling, and the result is a synthetic biology that provides a characterization of life. Biology extends physics. Life is not a specialization of mechanism, but an expansive generalization of it. Organisms and (...) machines share some common features, but organisms are not machines. Life is defined by a relational closure that places it beyond the reach of physicochemical and mechanistic dogma, outside the reductionistic universe, and into the realm of impredicativity. Function dictates structure. Complexity brings forth living beings. (shrink)

Understanding biological systems in terms of scientific materialism has arguably reached a frontier, leaving fundamental questions about their complexity unanswered. In 1998, Friedrich Cramer proposed a general resonance theory as a way forward. His theory builds on the extension of the quantum physical duality of matter and wave to the macroscopic world. According to Cramer’ theory, agents constituting biological systems oscillate, akin to musical soundwaves, at specific eigenfrequencies. Biological system dynamics can be described as “Symphonies of Life” emerging from (...) the resonance (and dissonance) of eigenfrequencies within the interacting collective. His theory has potential for studying biological problems of increasing complexity in a fast‐changing Anthropocene from a new and transdisciplinary angle. Despite data becoming increasingly available for analyses, Cramer's theory remains ignored and therefore untested a quarter century after its publication. This paper discusses how the theory can move to quantitative assessments and application. Cramer's general resonance theory deserves revival. (shrink)

Well prior to the invention of the term ‘biology’ in the early 1800s by Lamarck and Treviranus (and lesser-known figures in the decades prior), and also prior to the appearance of terms such as ‘organism’ under the pen of Leibniz and Stahl in the early 1700s, the question of ‘Life’, that is, the status of living organisms within the broader physico-mechanical universe, agitated different corners of the European intellectual scene. From modern Epicureanism to medical Newtonianism, from Stahlian animism (...) to the discourse on the ‘animal economy’ in vitalist medicine, models of living being were constructed in opposition to ‘merely anatomical’, structural, mechanical models. It is therefore striking that the classic narratives of the Scientific Revolution conspicuously avoid any consideration of what status to grant living beings in a newly physicalized universe (I discuss this in Wolfe 2011, 2019 chapt. 1). Neither Harvey, nor Boyle, nor Locke (to name some likely candidates, the latter having studied with Willis and collaborated with Sydenham) ever ask what makes organisms unique, or conversely, what does not. In this chapter I seek to establish how something we might call ‘the knowledge of Life’, to use an expression of Georges Canguilhem’s, emerged as part of early modernity without being part of the mainstream history of life science. This leads to the question, can one can correlate early modern “knowledge of life” with the emergence of a science called ‘biology’? (see Zammito 2018, Wolfe 2019, Bognon-Küss and Wolfe eds. 2019). It was once fashionable to speak of, e.g. ‘precursors of Darwin’, and then Canguilhem and Foucault famously did away with the category of precursor. But how then do we account for the phase that precedes the constitution of a science? With the case of biology, how do we account for the increasing fascination with the ontology of Life during the decades prior to the ‘naming of biology’, as McLaughlin has called it, at the end of the eighteenth century? This increased focus on Life and the ontology of Life sits awkwardly, both with mainstream narratives of the Scientific Revolution and of the history of biology. In seeking to address this increased focus (in which vitalism plays a role but was by no means the only conceptual actor: Wolfe 2020), I critically examine Foucault’s notorious claim (Foucault 1966) that there was no such thing as ‘Life’ in the eighteenth century and thus no such thing as biology. (shrink)

John Dupr explores recent revolutionary developments in biology and considers their relevance for our understanding of human nature and society. He reveals how the advance of genetic science is changing our view of the constituents of life, and shows how an understanding of microbiology will overturn standard assumptions about the living world.

Aristotelian naturalism (AN) holds that the norms governing the human will are special instances of a broader type of normativity that is also found in other living things: natural goodness and natural defect. Both critics and defenders of AN have tended to focus on the thorny issues that are specific to human beings. But some philosophers claim that AN faces other difficulties, arguing that its broader conception of natural normativity is incompatible with current biological science. This paper has three aims. (...) First, we consider a distinctive and nuanced critique of AN’s general understanding of natural normativity put forward by Tim Lewens. Second, after giving a defense of AN, we explore and evaluate Lewens’ proposed alternative view—Kantian projectivism about life forms. We present a problem for Kantian projectivism and suggest reasons for thinking that AN is, after all, the superior position. Finally, we clarify and explain how AN’s claims about life forms and our knowledge of them, relate to empirical observation and to contemporary biological science. (shrink)

It is argued, that theory sf signs, especially in the tradition of the great philosopher Charles Sanders Peirce (1839–1914) can inspire the study of central problems in the philosophy of biology. Three such problems are considered: (1) The nature of biology as a science, where a semiotically informed pluralistic approach to the theory of science is introduced. (2) The peculiarity of the general object of biology, where a realistic interpretation of sign- and information-concepts is required to see (...) sign-processes as immanent in nature. (3) The possibility of an artificial construction of life, hereby discussed as a conceptual problem in the present form of the artificial life project and its implied definition of life. (shrink)

Despite numerous and increasing attempts to define what life is, there is no consensus on necessary and sufficient conditions for life. Accordingly, some scholars have questioned the value of definitions of life and encouraged scientists and philosophers alike to discard the project. As an alternative to this pessimistic conclusion, we argue that critically rethinking the nature and uses of definitions can provide new insights into the epistemic roles of definitions of life for different research practices. This (...) paper examines the possible contributions of definitions of life in scientific domains where such definitions are used most (e.g., Synthetic Biology, Origins of Life, Alife, and Astrobiology). Rather than as classificatory tools for demarcation of natural kinds, we highlight the pragmatic utility of what we call operational definitions that serve as theoretical and epistemic tools in scientific practice. In particular, we examine contexts where definitions integrate criteria for life into theoretical models that involve or enable observable operations. We show how these definitions of life play important roles in influencing research agendas and evaluating results, and we argue that to discard the project of defining life is neither sufficiently motivated, nor possible without dismissing important theoretical and practical research. (shrink)

This volume reviews examples and notions of robustness at several levels of biological organization. It tackles many philosophical and conceptual issues and casts an outlook on the future challenges of robustness studies in the context of a practice-oriented philosophy of science. The focus of discussion is on concrete case studies. These highlight the necessity of a level-dependent description of robust biological behaviors.Experts from the neurosciences, biochemistry, ecology, biology, and the history and the philosophy of life sciences provide a (...) multiplex perspective on the topic. Contributions span from protein folding, to cell-level robustness, to organismal and developmental robustness, to sensorimotor systems, up to the robustness of ecological systems.Several chapters detail neurobiological case-studies. The brain, the poster child of plasticity in biology, offers multiple examples of robustness. Neurobiology explores the importance of temporal organization and multiscalarity in making this robustness-with-plasticity possible. The discussion also includes structures well beyond the brain, such as muscles and the complex feedback loops involved in the peculiar robustness of music perception. Overall, the volume grounds general reflections upon concrete case studies, opening to all the life sciences but also to non-biological and bio-inspired fields such as post-modern engineering. It will appeal to researchers, students, as well as non-expert readers. (shrink)

Comments and reports on synthetic biology often focus on the idea that this field may lead to synthetic life or life forms. Such claims attract general attention because “life” is a basic concept that is understood, interpreted and explained in multiple ways. While these different understandings of life may influence the ethical assessment of synthetic biology by experts and the public, this field might, in turn, influence how academics or the public view life. (...) We suggest in this paper that synthetic biology provides an opportunity to discuss and compare different views and explanations of the world, starting from the concept of life. We argue that a narrow focus on just one interpretation of this concept may be harmful and that people will benefit from being aware of a diversity of understandings of life because they provide answers to different questions. Moreover, the confrontation among views is important for the development of reasoning abilities, and a nuanced view on our world will be useful for integrating scientific findings and their implications into a wider context. At the same time, we should not only consider other understandings of life for our own benefit but also because a moral attitude of respect for and toleration toward others implies permission to express and maintain their views. For these reasons, we suggest that a diversity of views on life should be included in public education and in public engagement events on synthetic biology. Moreover, they should be on the research agenda of technology assessment studies within the ELSA or RRI frameworks. (shrink)

Here is a universal biology that draws upon the contributions of Aristotle, Kant, and Hegel to unravel the mystery of life and conceive what is essential to living things anywhere they may arise. The book develops a philosopher’s guide to life in the universe, conceiving how nature becomes a biosphere in which life can emerge, what are the basic life processes common to any organism, how evolution can give rise to the different possible forms of (...) life, and what distinguishes the essential life forms from one another. (shrink)

The phrase ‘synthetic biology’ is used to describe a set of different scientific and technological disciplines, which share the objective to design and produce new life forms. This essay addresses the following questions: What conception of life stands behind this ambitious objective? In what relation does this conception of life stand to that of traditional biology and biotechnology? And, could such a conception of life raise ethical concerns? Three different observations that provide useful indications (...) for the conception of life in synthetic biology will be discussed in detail: 1. Synthetic biologists focus on different features of living organisms in order to design new life forms, 2. Synthetic biologists want to contribute to the understanding of life, and 3. Synthetic biologists want to modify life through a rational design, which implies the notions of utilising, minimising/optimising, varying and overcoming life. These observations indicate a tight connection between science and technology, a focus on selected aspects of life, a production-oriented approach to life, and a design-oriented understanding of life. It will be argued that through this conception of life synthetic biologists present life in a different light. This conception of life will be illustrated by the metaphor of a toolbox. According to the notion of life as a toolbox, the different features of living organisms are perceived as various rationally designed instruments that can be used for the production of the living organism itself or secondary products made by the organism. According to certain ethical positions this conception of life might raise ethical concerns related to the status of the organism, the motives of the scientists and the role of technology in our society. (shrink)

Despite numerous and increasing attempts to define what life is, there is no consensus on necessary and sufficient conditions for life. Accordingly, some scholars have questioned the value of definitions of life and encouraged scientists and philosophers alike to discard the project. As an alternative to this pessimistic conclusion, we argue that critically rethinking the nature and uses of definitions can provide new insights into the epistemic roles of definitions of life for different research practices. This (...) paper examines the possible contributions of definitions of life in scientific domains where such definitions are used most. Rather than as classificatory tools for demarcation of natural kinds, we highlight the pragmatic utility of what we call operational definitions that serve as theoretical and epistemic tools in scientific practice. In particular, we examine contexts where definitions integrate criteria for life into theoretical models that involve or enable observable operations. We show how these definitions of life play important roles in influencing research agendas and evaluating results, and we argue that to discard the project of defining life is neither sufficiently motivated, nor possible without dismissing important theoretical and practical research. (shrink)

The process of condensation of an amorphous solid into a rigid matrix can often trap molecules in reversible binding sites. Exchange of the same molecular species with such sites is known to be sensitive to small chemical differences and to distinguish between enantiomers. In addition to their usefulness in chromatographic processes, such materials can separate, by solid phase extraction, specific compounds from complex mixtures. Furthermore, the trapped molecules can have their reactions guided and catalytically changed. The combination of this spontaneously (...) formed system of templates and catalytic sites may support a type of replication cycle, and suggests some pathways from simple chemistry toward the complexities of biology. © 2005 Wiley Periodicals, Inc. Complexity 11: 30–35, 2005 -/- . (shrink)

I discuss the moral significance of artificial life within synthetic biology via a discussion of Douglas, Powell and Savulescu's paper 'Is the creation of artificial life morally significant’. I argue that the definitions of 'artificial life’ and of 'moral significance’ are too narrow. Douglas, Powell and Savulescu's definition of artificial life does not capture all core projects of synthetic biology or the ethical concerns that have been voiced, and their definition of moral significance fails (...) to take into account the possibility that creating artificial life is conditionally acceptable. Finally, I show how several important objections to synthetic biology are plausibly understood as arguing that creating artificial life in a wide sense is only conditionally acceptable. (shrink)

German Idealism still dominates most approaches in theoretical biology. This has led to a conception of organisms as tightly regulated self-forming systems where the demands of the whole organism dominate how the parts are coordinated. This article troubles this approach by presenting aspects of biology that refuse to be synthesized into a specific whole. I call this approach “goth biology” as it recognizes the murkiness of systems of knowledge, the loosely composite nature of most living things, and (...) the continual haunting of life by death. Methodologically, I use insights gleaned from the history of post-punk goth music to explore the role of aesthetics, timbres, and forms as elements of lives that bound disparate times and spaces without providing a unified synthesis. A form of biological experience, and a theory of how the body works, goth biology demands that one lose a conception of “self” in order to embrace the complexity of biological interactions. As the goth performance artist Anna-Varney Cantodea recently confessed in an interview: “I have long given up on any goals I might have had,” but this doesn’t keep me from being inspired by everything around me. (shrink)

The renowned Nobel Prize-winning scientist's elegant and concise explanation of the fundamental ideas in biology and their uses today. Hailed by Philip Pullman as "a great communicator" who is also "as distinguished a scientist as there could be," Paul Nurse writes with delight at life's richness and a sense of the urgent role of biology in our time. With What Is Life? he delivers a brief but powerful work of popular science in the vein of Carlo (...) Rovelli's Seven Brief Lessons in Physics. Nurse takes readers on a wondrous journey through five fundamental biological ideas-the Cell, the Gene, Evolution by Natural Selection, Life as Chemistry, and Life as Information-introducing the scientists who made the most important advances and taking us into his own lab to give us a sense of the thrill of scientific discovery. In a final chapter, Nurse addresses biology's most pressing ethical issues (including gene-editing, genetic testing, and genetically modified crops), and he concludes with a stirring encomium to biology's role in tackling infectious disease. (shrink)

Although it may seem like a truism to assert that biology is the science that studies organisms, during the second half of the twentieth century the organism category disappeared from biological theory. Over the past decade, however, biology has begun to witness the return of the organism as a fundamental explanatory concept. There are three major causes: (a) the realization that the Modern Synthesis does not provide a fully satisfactory understanding of evolution; (b) the growing awareness of the (...) limits of reductionism in molecular biology; and (c) the renewed interest in the nature of life as a genuine scientific problem. This essay examines these recent developments and considers the new epistemological roles being played by the organism in each of them. It also reflects on what the present resurgence of the organism means for the philosophy of biology. (shrink)

Synthetic biology aims to synthesize novel biological systems or redesign existing ones. The field has raised numerous philosophical questions, but most especially what is novel to this field. In this article I argue for a novel take, since the dominant ways to understand synthetic biology’s specificity each face problems. Inspired by the examination of the work of a number of chemists, I argue that synthetic biology differentiates itself by a new regime of articulation, i.e. a new way (...) of articulating the questions and phenomena it wants to address. Instead of describing actual existing biological systems, the field aims to describe biological possibilities. In the second part I corroborate this hypothesis through a comparison between early research in the field of the origins of life and contemporary synthetic biologists, who are not so much interested in the historical origin of life on Earth, but rather in a universal biology of the possible origins of any life whatsoever. (shrink)