Marcello Barbieri has presented code biology as an alternative to the Peircean approach to biosemiotics. Some critics questioned the viability of code biology on grounds that Barbieri’s conception of science is limited. It has been argued that code biology’s mechanistic tendency is the cause of the allegedly limited conception of science. In this paper, I evaluate the scientific viability of the code model from the perspective of scientific realism in the philosophy of science. To be more precise, I draw (...) on resources of the mechanistic view in philosophy to argue that far from harbouring a limited conception of science, code biology could indeed improve the scientific prospects of biosemiotics. I show that the mechanistic and model-based tendency of the code model enhances its vigour as a full-blooded scientific approach to the study of meaning in living systems. To consolidate my claim, I draw on some recent debates in the mechanistic philosophy to argue that even relational approaches to understanding the meaning in living systems—such as an approach that is defended by Vega in a recent paper—could be underpinned by mechanistic processes at a foundational level. (shrink)

The ArgumentFranz Borkenau's book,The Transition from Feudal to Modern Thought(Der Übergang vom feudalen zum bürgerlichen Weltbild[literally:The Transition from the Feudal to the Bourgeois World-Picture]), serves as background for Grossmann's study. The objective of this book was to trace the sociological origins of the mechanistic categories of modern thought as developed in the philosophy of Descartes and his successors. In the beginning of the seventeenth century, according to Borkenau, mechanistic thinking triumphed over medieval philosophy which emphasized qualitative, not quantitative (...) considerations. This transition from medieval and feudal methods of thought to modern principles is the general theme of Borkenau's book, and is traced to the social changes of this time. According to this work, the essential economic change that marked the transition from medieval to modern times was the destruction of the handicraft system and the organization of labor under one roof and under one management. The roots of the change in thought are to be sought here. With the dismemberment of the handicraft system and the division of labor into relatively unskilled, uniform, and therefore comparable activities, the conception of abstract homogeneous social labor arises. The division of the labor process into simple repeated movements permits a comparison of hours of labor. Calculation with such abstract social unities, according to Borkenau, was the source from which modern mechanistic thinking in general derived its origin.Grossmann, although he considers Borkenau's work a valuable and important contribution, does not believe that the author has achieved his purpose. First of all, he contends that the period that Borkenau describes as the period of the triumph of modern thought over medieval should not be placed at the beginning of the seventeenth century, but in the Renaissance, and that not Descartes and Hobbes but Leonardo da Vinci was the initiator of modern thought. Leonardo's theories, evolved from a study of machines, were the source of the mechanistic categories that culminated in modern thought.If Borkenau's conception as to the historical origin of these categories is incorrect in regard to time, Grossmann claims it follows that it is incorrect also in regard to the social sources to which it is ascribed. In the beginning, the factory system did not involve a division of labor into comparable homogeneous processes, but in general only united skilled handicraftsmen under one roof. The development of machinery, not the calculation with abstract hours of labor, is the immediate source of modern scientific mechanics. This goes back to the Renaissance and has relatively little to do with the original factory system that was finally superseded by the Industrial Revolution.While Borkenau, in tracing the social background of the thought of the period, relies chiefly on the conflicts and strife of political parties, Grossmann regards this as one element only in the formation of the general social situation, which in its entirety and in the interaction of its elements explains the development of modern thought. (shrink)

Unit 4. Goodman, D.C. God and nature in the philosophy of Descartes. --Unit 5. Brooke, J.H. Newton and the mechanistic universe.

Talk of mechanisms is ubiquitous in the natural sciences. Interdisciplinary fields such as biochemistry and pharmacy frequently discuss mechanisms with the assistance of diagrams. Such diagrams usually depict entities as structures or boxes and activities or interactions as arrows. While some of these arrows may indicate causal or componential relations, others may represent temporal or operational orders. Importantly, what kind of relation an arrow represents may not only vary with context but also be underdetermined by empirical data. In this manuscript, (...) we investigate how an analysis of pharmacological mechanisms in terms of producing and underlying mechanisms—as discussed in the contemporary philosophy of science—may shed light on these issues. Specifically, we shall argue that while pharmacokinetic mechanisms usually describe causal chains of production, pharmacodynamics tends to focus on mechanisms of action underlying the in vivo effects of a drug. Considering the action of thyroid gland hormones in the human body as a case study, we further demonstrate that pharmacodynamic schemes tend to incorporate entities and interactions on multiple levels. Yet, traditional pharmacodynamic schemes are sketched “flat”, i.e., non-hierarchically. We suggest that transforming flat pharmacodynamic schemes into mechanistic multi-level representations may assist in disentangling the different kinds of mechanisms and relations depicted by arrows in flat schemes. The resulting Baumkuchen model provides a powerful and practical alternative to traditional flat schemes, as it explicates the relevant mechanisms and relations more clearly. On a more general note, our discussion demonstrates how pharmacology and related disciplines may benefit from applying concepts from the new mechanist philosophy to guide the interpretation of scientific diagrams. (shrink)

This article, the first of a two-part essay, presents an account of Aristotelian hylomorphic animalism that engages with recent work on neuroscience and philosophy of mind. I show that Aristotelian hylomorphic animalism is compatible with the new mechanist approach to neuroscience and psychology, but that it is incompatible with strong emergentism in the philosophy of mind. I begin with the basic claims of Aristotelian hylomorphic animalism and focus on its understanding of psychological powers embodied in the nervous system. (...) Next, I introduce the new mechanist approach to neuroscience and psychology and illustrate how it can enrich the more abstract ontological framework of Aristotelian hylomorphic animalism. In the third section of this article I establish in detail the many ways Aristotelian hylomorphic animalism is incompatible with strong emergentism in the philosophy of mind. Based on these fundamental differences I show why a criticism leveled against emergentism by the new mechanist philosophy does not hamper my proposed rapprochement between hylomorphism and the new mechanist philosophy. This conclusion, however, leaves untouched the problem I address in the second article, namely, is the new mechanist philosophy compatible with Aristotelian philosophical anthropology’s contention that intellectual operations are immaterial and interact with the psychosomatic operations of the rational animal? (shrink)

Racial disparities in health outcomes have recently become a flashpoint in the debate about the value of race as a biological concept. What role, if any, race has in the etiology of disease is a philosophically and scientifically contested topic. In this article, I expand on the insights of the new mechanistic philosophy of science to defend a mechanism discovery approach to investigating epidemiological racial disparities. The mechanism discovery approach has explanatory virtues lacking in the populational approach (...) typically employed in the study of race and biomedicine. The explanatory constraints that form an integral part of the new mechanistic approach enable mechanism discovery to avoid the epistemic and normative shortcomings of the populational approach. The methodology of mechanism discovery can fruitfully be extended to the treatment and reversal of epidemiological racial disparities. (shrink)

This article demonstrates the importance of making explicit different conceptions of movement for the philosophy of sport. In addition to the mechanistic and the Aristotelian approaches, this article presents a third, underexplored view of movement, namely that of Lucretius as interpreted by Karl Marx and Michel Serres. By exploring the similarities between Marx’s motion of repulsion and Serres’s turbulent flux, it will be argued that a Lucretian view offers a philosophy of movement that uniquely does not rely on (...) stasis. This Lucretian perspective is illustrated through Serres’s elaborations on the body and sport. It is concluded that sport is not primarily a rational, rule-guided practice but arises from moving and sensuous bodies that are always deviating from their standard trajectory. (shrink)

_On Mechanism in Hegel's Social and Political Philosophy_ examines the role of the concept of mechanism in Hegel’s thinking about political and social institutions. It counters as overly simplistic the notion that Hegel has an ‘organic concept of society’. It examines the thought of Hegel’s peers and predecessors who critique modern political intuitions as ‘machine-like’, focusing on J.G. Herder, Friedrich Schlegel and Novalis. From here it examines the early writings of Hegel, in which Hegel makes a break with (...) the Romantic way of thinking about ethical community. Ross argues that in this period, Hegel devises a new way of thinking about the integration of mechanistic and organic features within an organizational whole. This allows Hegel to offer an innovative theory of modern civil society as a component in ethical life. The second half of the book examines how Hegel develops this thought in his later works. It offers an in depth commentary on the chapter on mechanism in the Science of Logic, and it demonstrates the role of these thoughts in Hegel’s Philosophy of Right. _On Mechanism in Hegel's Social and Political Philosophy_ offers a critical response to debates over communitarianism by arguing against one of the central figures used by scholars to associate Hegel with communitarian thought, namely the notion that society is organic. In addition, it argues that Hegel political theory is deeply informed by his formal ontology, as developed in the Science of Logic. (shrink)

Viktor Hamburger was a developmental biologist interested in the ontogenesis of the vertebrate nervous system. A student of Hans Spemann at Freiburg in the 1920s, Hamburger picked up a holistic view of the embryo that precluded him from treating it in a reductionist way; at the same time, he was committed to a materialist and analytical approach that eschewed any form of vitalism or metaphysics. This paper explores how Hamburger walked this thin line between mechanistic reductionism and metaphysical vitalism in (...) light of his work on the factors influencing growth of neurons into limb buds, and the discovery of nerve growth factor, work carried out with Rita Levi-Montalcini and Stanley Cohen. (shrink)

In this paper, I defend a non-mechanistic interpretation of Kant's philosophy of nature. My interpretation contradicts the robust tradition of reading Kant as a mechanist about nature – or as someone who endorses the view that we can know the internally purposive causality characteristic of organisms has no place in nature. By attending closely to Kant's remarks about the possibility of internal purposiveness in nature and to key premises from Kant's arguments in the Antinomy of Teleological Judgment, we shall (...) see that it is not only plausible, but preferable, to believe that internally purposive things (i.e., organisms) exist in nature. Making room for such a belief leaves Kant with a philosophy of nature that simultaneously aligns with and surpasses the philosophies of nature offered up by his Early Modern predecessors. (shrink)

There are several conceptions of man in the history of philosophy. However, two considerable tendencies are recurring throughout modern history. A human being can be perceived as a complex mechanism or as a living organism. The response to the query has essential consequences in different areas. The article aims to provide a view of humankind that builds upon an organic conception of life, nature, and human beings, especially as elaborated by A. N. Whitehead and some of his followers. (...) The article also briefly examines the emergence and development of a mechanistic view. The historical overview exposes the close relationship between the worldview of a given era and the understanding of man. Finally, the article argues that the organic conceptions of life developed in the first half of the 20th century provide an essential alternative to mechanistic views and could help us to deal with several problems we are currently encountering. (shrink)

Cognitive science, as an interdisciplinary research endeavour, seeks to explain mental activities such as reasoning, remembering, language use, and problem solving, and the explanations it advances commonly involve descriptions of the mechanisms responsible for these activities. Cognitive mechanisms are distinguished from the mechanisms invoked in other domains of biology by involving the processing of information. Many of the philosophical issues discussed in the context of cognitive science involve the nature of information processing. For philosophy of science, a central question (...) is what counts as a scientific explanation. But what is a mechanistic explanation and how does it work, how can philosophy of science use it as a solution for the problem of integration in cognitive science? By answering these questions and merging my answers with discussion of concepts of philosophy, normativity and generality, I will investigate the following claim. -/- I claim that philosophy by using strength concepts such as normativity, generality, and a mechanistic philosophy of explanations, can be a most important contributor to cognitive science. I also investigate how philosophy of science could be (can be) a bridge between psychology and neuroscience. We need a distinction between philosophy of cognitive science and philosophy in cognitive science; I am talking about the latter. -/- This claim is very important for the integration and the future of the interdisciplinary field known as cognitive science. -/- Philosophy as a true cognitive science -/- When the Cognitive Science Society was founded, in the late 1970s, philosophy, neuroscience, and anthropology were playing smaller roles. The three disciplines that formed the core group were artificial intelligence, psychology, and linguistics. The curious thing is that George Miller, a psychologist and an important founder of cognitive sciences in a hexagon diagram that he presented, put philosophy at the top of the diagram and neuroscience at the very bottom. There is enough agreement now that neuroscience is the most important contributor to cognitive science and there are fair connections between philosophy and neuroscience. In that diagram there was almost no connection between philosophy and neuroscience. -/- The developments and rise of cognitive science in the last half-century has been accompanied by considerable amount of philosophical activity. Perhaps no other area within analytic philosophy in the second half of that period has attracted more attention or produced more publications. (Bechtel and Graham, 1998. Rumelhart and Bly 1999. Bechtel, Mandik, Mundale 2001. Thagard, 2007. Bennett and Dennett et al, 2007. Bennett and Hacker, 2008. Andler, 2009. Frankish and Ramsey, 2012.) -/- Many philosophers of science offer conclusions that have a direct bearing on cognitive science and its practitioners can profit from closer engagement with the rest of cognitive science. For example, William Bechtel has discussed three projects, two in naturalistic philosophy of mind and one in naturalistic philosophy of science that have been pursued during the past 30 years, that he contends, can make theoretical and methodological contributions to cognitive science (Bechtel, 2009). Paul Thagard is another example of the mentioned emerging school of philosophers of science that define cognitive science as the interdisciplinary investigation of mind and intelligence (Thagard, 2006). Thagard by presenting some general but important philosophical questions such as, “What is the nature of the explanations and theories developed in cognitive science?”, and by providing answers to these central questions has showed how philosophy of science can help cognitive science by the advantage of its generality. Andrew Brook, however, believes that philosophical approaches have never had a settled place in cognitive science but he is listed in a group of the philosophers of science that they are contributing very closely the cognitive science (Brook, 2009). Daniel Dennett , as well as being a member the mentioned naturalistic philosophers of science, believes that there is much good work for philosophers to do in cognitive science if they adopt the constructive attitude that prevails in science. -/- What are mechanisms? Let us begin abstractly before considering an example. Mechanisms are collections of entities and activities organized together to do something (cf. Machamer, Darden, & Craver, 2000; Craver & Darden, 2001; Bechtel &Richardson, 1993; Glennan, 1996). These explanations are known as ‘mechanistic explanations’. By using and developing these mechanistic explanations of philosophy of science one can draw normative consequences for cognitive science. Paul Thagard (Thagard, 2006 and 2009), William Bechtel (Bechtel, 2008 and 2009), Andrew Brook (Brook, 2008) investigated and promoted using the ‘normativity’ in philosophy to show a better and crucial role for philosophy of science in an interdisciplinary known as cognitive science. Some philosophers have thought that, in order to pursue this normative function, philosophy must distance itself from empirical matters, but there are examples where the investigations of descriptive and normative issues go hand in hand. ( Thagard, 2009). -/- I will investigate how we can reduce a higher-level science such as psychology to neuroscience without the problems of reductionism but via mechanistic explanations. By problem I mean psychology does not lose its autonomy. -/- Conclusion -/- If cognitive science is all about understanding the human mind, or if cognitive science is the interdisciplinary investigation of mind and intelligence, since the whole life of philosophy was involving with the ways of knowing (epistemology) and conceptions of reality (metaphysics), also philosophy has considered the so-called mind-body problem ( identity theory, functionalism, and heuristic identity theory) , then philosophy could be the most deserved discipline to be a most contributor in cognitive science. I tried to discuss this by using the three advantages in philosophy, normativity, and generality and by introducing an emerging school of mechanistic (not mechanical) philosophers. One thing left, as cognitive science is a two-way street, philosophers need also to stop in a station of cognitive science and learn from the most important advances in brain and neuroscience. -/- . (shrink)

ABSTRACTThe paper focuses on the gradual separation between materialism and mechanism in early modern German philosophy. In Germany the distinction between the two concepts, originally introduced by Leibniz, was definitively stated by Wolff who was the first to provide a definition of the new philosophical term Materialismus, and of the related philosophical sect. In the first part I describe the initial identification of mechanism and materialism in German philosophy between the last decades of the seventeenth century (...) and 1720. Mechanism is here mostly conceived within a monistic metaphysics of body, which refers mainly to Hobbes and to some interpretations of Spinoza’s pantheism. This tight connection between a mechanical explanation of nature and the Deus sive natura issue leads to a negative judgement on mechanism and its materialistic implications, both charged with a form of more or less explicit atheism. In the second part I describe the gradual emancipation in Germany of mechanism fro... (shrink)

One of the main early forms of “functionalism,” developed by writers like Jerry Fodor and William Lycan, focused on “mechanistic” explanation in the special sciences and argued that “functional properties” in psychology were continuous in nature with the special science properties posited in such mechanistic explanations. I dub the latter position“Continuity Functionalism” and use it to critically examine the “Standard Picture” of the metaphysics of functionalism which takes “functional” properties to be second-order properties and claims there are two metaphysical forms (...) of “functionalism,” in so-called “role” and “realizer” functionalism. Looking at mechanistic explanations, I show that the “functional properties” posited in the special sciences are not second-order properties and that Continuity Functionalism is a distinctive metaphysical version of functionalism not covered by the Standard Picture. My conclusion is that the Standard Picture offers us a false dichotomy of ways to be a “functionalist” and that “functionalists” thus need to look once more to the special sciences to configure their views, thus eschewing the machinery inherited from “analytic” philosophers. (shrink)

This work is divided into two parts. Part I contains sixteen critical es says by prominent philosophers and computer scientists. Their papers offer insightful, well-argued contemporary views of a broad range of topics that lie at the heart of philosophy in the second half of the twen tieth century: semantics and ontology, induction, the nature of prob ability, the foundations of science, scientific objectivity, the theory of naming, the logic of conditionals, simulation modeling, the relatiOn be tween minds and (...) machines, and the nature of rules that guide be havior. In this volume honoring Arthur W. Burks, the philosophical breadth of his work is thus manifested in the diverse aspects of that work chosen for discussion and development by the contributors to his Festschrift. Part II consists of a book-length essay by Burks in which he lays out his philosophy of logical mechanism while responding to the papers in Part I. In doing so, he provides a unified and coherent context for the range of problems raised in Part I, and he highlights interesting relationships among the topics that might otherwise have gone un noticed. Part II is followed by a bibliography of Burks's published works. (shrink)

Robert Schofield explores the rational elements of British experimental natural philosophy in the 18th century by tracing the influence of two opposing concepts of the nature of matter and its action—mechanism and materialism. Both concepts rested on the Newtonian interpretation of their proponents, although each developed more or less independently. By integrating the developments in all the areas of experimental natural philosophy, describing their connections and the influences of Continental science, natural theology, and to a lesser degree (...) social and institutional changes, the author demonstrates that mechanistic concepts dominated interpretations from about 1687 to 1740, when they were replaced by materialistic concepts. A revival of the mechanistic approach early in the next century made England a fertile field for ideas on the dynamic interaction of forces. Originally published in 1970. The Princeton Legacy Library uses the latest print-on-demand technology to again make available previously out-of-print books from the distinguished backlist of Princeton University Press. These paperback editions preserve the original texts of these important books while presenting them in durable paperback editions. The goal of the Princeton Legacy Library is to vastly increase access to the rich scholarly heritage found in the thousands of books published by Princeton University Press since its founding in 1905. (shrink)

This book deals with the major philosophical issues in the theoretical framework of Artificial Intelligence (AI) in particular and cognitive science in general.

As many of the papers in this Special Symposium Issue discuss, by the 21st century we have moved well beyond the notion of a gene as a single particulate unit coding for a given protein, or especially a single phenotypic trait. Yet notions of genes as some kind of single, particulate entity still persist, especially in textbooks and writings about genetics for the general public. To understand this disjunct between the professional geneticist’s view of genes and their complex interactions, and (...) the more widespread public understanding of genes as distinct entities, I thought it might be useful to look back 150 years or more to the origins of the gene concept, to the origins of Mendelian genetics itself .. (shrink)

This volume emphasizes the diversity and fruitfulness of early modern mechanism as a program, as a concept, as a model. Mechanistic study of the living body but also of the mind and mental processes are examined in careful historical focus, dealing with figures ranging from the first-rank (Bacon, Descartes, Spinoza, Cudworth, Gassendi, Locke, Leibniz, Kant) to less well-known individuals (Scaliger, Martini) or prominent natural philosophers who have been neglected in recent years (Willis, Steno, etc.). The volume moves from early (...) modern medicine and physiology to late Enlightenment and even early 19th-century psychology, always maintaining a conceptual focus. It is a contribution to a newly active field in the history and philosophy of early modern life science. It is of interest to scholars studying the history of medicine and the development of mechanistic theories. (shrink)

It is argued that once biological systems reach a certain level of complexity, mechanistic explanations provide an inadequate account of many relevant phenomena. In this article, I evaluate such claims with respect to a representative programme in systems biological research: the study of regulatory networks within single-celled organisms. I argue that these networks are amenable to mechanistic philosophy without need to appeal to some alternate form of explanation. In particular, I claim that we can understand the mathematical modelling techniques (...) of systems biologists as part of a broader practice of constructing and evaluating mechanism schemas. This argument is elaborated by considering the case of bacterial chemotactic networks, where some research has been interpreted as explaining phenomena by means of abstract design principles. (shrink)

IDEAS. and. MECHANISM. Essays on Early Modern Philosophy MARGARET DAULER WILSON For more than three decades, Margaret Wilson's essays on early modern philosophy have influenced scholarly debate. Many are considered  ...

The philosophy of mechanisms has developed rapidly during the last 30 years. As mechanisms-based explanations (MBEs) are often seen as an alternative to nomological, law-based explanations, MBEs could be relevant in IS. We begin by offering a short history of mechanistic philosophy and set out to clarify the contemporary landscape. We then suggest that mechanistic models provide an alternative to variance and process models in IS. Finally, we highlight how MBEs typically contain deliberate misrepresentations. Although MBEs have recently (...) been advocated as critical realist (CR) accounts in IS, idealizations (deliberate misrepresentations) seem to violate some fundamental tenets of CR and research method principles for CR. Idealizations in MBEs, therefore, may risk being regarded as flawed in IS. If it turns out that CR cannot account for idealizations, naturalism can, and it does so without extra-philosophical baggage. (shrink)

Two seemingly contradictory tendencies have accompanied the development of the natural sciences in the past 150 years. On the one hand, the natural sciences have been instrumental in effecting a thoroughgoing transformation of social structures and have made a permanent impact on the conceptual world of human beings. This historical period has, on the other hand, also brought to light the merely hypothetical validity of scientific knowledge. As late as the middle of the 19th century the truth-pathos in the natural (...) sciences was still unbroken. Yet in the succeeding years these claims to certain knowledge underwent a fundamental crisis. For scientists today, of course, the fact that their knowledge can possess only relative validity is a matter of self-evidence. The present analysis investigates the early phase of this fundamental change in the concept of science through an examination of Hermann von Helmholtz's conception of science and his mechanistic interpretation of nature. Helmholtz (1821-1894) was one of the most important natural scientists in Germany. The development of this thoughts offers an impressive but, until now, relatively little considered report from the field of the experimental sciences chronicling the erosion of certainty. (shrink)

Medical explanations have often been thought on the model of biological ones and are frequently defined as mechanistic explanations of a biological dysfunction. In this paper, I argue that topological explanations, which have been described in ecology or in cognitive sciences, can also be found in medicine and I discuss the relationships between mechanistic and topological explanations in medicine, through the example of network medicine and medical genetics. Network medicine is a recent discipline that relies on the analysis of various (...) disease networks in order to find organizing principles in disease explanation. My aim is to show how topological explanations in network medicine can help solving the conceptual issues that pure mechanistic explanations of the genetics of disease are currently facing, namely the crisis of the concept of genetic disease, the progressive geneticization of diseases and the dissolution of the distinction between monogenic and polygenic diseases. However, I will also argue that topological explanations should not be considered as independent and radically different from mechanistic explanations for at least two reasons. First, in network medicine, topological explanations depend on and use mechanistic information. Second, they leave out some missing gaps in disease explanation that require, in turn, the development of new mechanistic explanations. Finally, I will insist on the specific contribution of topological explanations in medicine: they push us to develop an explanation of disease in general, instead of focusing on single explanations of individual diseases. This last point may have major consequences for biomedical research. (shrink)

In lieu of an abstract, here is a brief excerpt of the content:Journal of the History of Philosophy 38.1 (2000) 125-126 [Access article in PDF] Margaret Dauler Wilson. Ideas and Mechanism: Essays on Early Modern Philosophy. Princeton: Princeton University Press, 1999. Pp. xx + 524. Cloth, $70.00. Ideas and Mechanism is a record of remarkable scholarship. It collects thirty-one essays by one of the most influential scholars in early modern philosophy. (Wilson herself did most of (...) the editing, though Anne Jaap Jacobson brought the book to completion after Wilson's death.) All but one of essays have been published previously. (The one new essay is "The Issue of 'Common Sensibles' in Berkeley's New Theory of Vision." There is also an essay on "True and Immutable Natures" previously published only in Portuguese.) Many are classics, united here with essays less well known. The collection begins with "Skepticism without Indubitability," an application of Wilson's scholarly might to Rorty's criticisms of the early modern legacy of foundationalism. Chapters 2-8 focus on Descartes. Several of these emphasize Descartes's accounts of sensation and representation. Chapters 9-12 discuss Spinoza. Then follows Wilson's influential essay on "Superadded Properties" and her related response to M. R. Ayers. Chapter 15-21 comprise an extended defense of Berkeley. The book ends with a long essay on the role of history of philosophy and a brief essay on animal ideas.In her essays, Wilson does not limit herself to one side of the classic divide between empiricists and rationalists. She succeeds in this ambitious endeavor by focusing on a problem common to both: the relation between mechanistic science and early modern views of ideas. Wilson is concerned with how philosophers' scientific views bear on their metaphysics, epistemology, and philosophy of mind. This involves, in many cases, showing how philosophical positions take on new meaning as one considers the science underlying them. For example, Descartes's repeated claims that primary qualities "resemble" qualities in bodies are not taken to imply that any particular extension one sees is in a body. Extension in general, on which mechanistic explanations are based, is in bodies; color (and even perceived extension) is reducible by scientific explanation. The emphasis on the role of science also furnishes a platform for attention to neglected works. Wilson is exemplary in drawing from a wide range of texts to elucidate familiar points. In essays on Descartes and Berkeley, Wilson shows how their works on vision in particular enrich discussions of their epistemology. (One unfortunate limitation to Wilson's emphasis on mechanistic science is a neglect of political and theological works. Thus, she neglects to investigate the implications of, say, Spinoza's work in politics on his metaphysical views about man.)Of particular note is Wilson's defense of Berkeley. Wilson does not draw lines in terms of empiricists (Locke and Berkeley) and rationalists (Leibniz). Instead, she argues that Berkeley's defense of the common sense view that "physical things are as they are perceived" provides an alternative to the scientific realisms of Locke, Leibniz, and Kant. Defenders of Locke, for example, have claimed that Berkeley was insufficiently attentive to the role of mechanistic science in Locke's justifications of the primary-secondary distinction. Wilson shows how Berkeley took these Lockean arguments into account and why he objects to them. Rather than being a cure-all that saves Locke from Berkeley, the role of mechanistic science in his philosophy implicates Locke in the scientific realism against which Berkeley consistently defends common sense. [End Page 125]Not all of the essays directly relate to ideas and mechanism. Several deal with the closely related issue of mind-body interaction. One essay explains the epistemological argument for mind-body dualism in Descartes and another attacks Spinoza's account of mind and body. Wilson also writes on more general themes in Leibniz, such as necessity and contingency, causality, and confused and distinct ideas. She spends two chapters on the relationship between animals and humans. In one, she challenges appropriations of Spinoza that find in him the appealing view that there is no "radical ontological chasm" between humans and... (shrink)

Gualtiero Piccinini articulates and defends a mechanistic account of concrete, or physical, computation. A physical system is a computing system just in case it is a mechanism one of whose functions is to manipulate vehicles based solely on differences between different portions of the vehicles according to a rule defined over the vehicles. Physical Computation discusses previous accounts of computation and argues that the mechanistic account is better. Many kinds of computation are explicated, such as digital vs. analog, serial (...) vs. parallel, neural network computation, program-controlled computation, and more. Piccinini argues that computation does not entail representation or information processing although information processing entails computation. Pancomputationalism, according to which every physical system is computational, is rejected. A modest version of the physical Church-Turing thesis, according to which any function that is physically computable is computable by Turing machines, is defended. (shrink)

November 4th-5th, 2012 at Kyoto University. Organizers: Hisashi Nakao & Pierre-Alain Braillard.

The concept of mechanistic philosophy dates back to the beginning of the early modern period. Among the commonalities that some of the conceptions of the main contemporary representatives share with those of the leading early modern exponents is their ontological classification: as regards their basic concepts, both contemporary and early modern versions of mechanism can be divided into monist and dualist types. Christiaan Huygens’ early modern mechanistic explanation of non- material forces and Stuart S. Glennan’s contemporary conception of (...) mechanism will serve as examples of monism. As examples of dualism, I will discuss Isaac Newton’s early modern mechanistic philosophy of nature and the contemporary conception of mechanism proposed by Peter Machamer, Lindley Darden, and Carl F. Craver. With the ontological commonalities are associated further characteristic features of the respective types that concern, among other things, the respective understandings of fundamental theories and evaluations of scientific practice. The ontological continuity Of the types does not play any role in contemporary discussions of the history of mechanistic philosophy. On my assessment the distinction between monism and dualism remains an unsolved problem and its persistence is an indication that this distinction is a fundamental one. (shrink)

In this article, I investigate Johann Christoph Sturm’s (1635–1703) mechanist account of plant life. The problem of life is one of the touchstones of any early modern mechanist philosophy. Plant life, in turn, constitutes the most rudimentary form of life. Sturm’s account is functionalist: plants perform the life-function: nutrition, growth, self-preservation, and generation. Sturm makes clear that what his Aristotelian predecessors called the ‘vegetative soul’ must be reduced to (1) the possession of an organic body (i.e., a higher-order structure (...) of matter and its modifications) and (2) the extrinsic kinetic heat of the sun. In contrast to mechanists like Descartes, Sturm accepts teleology. He deals with the origin and transfer of motion on occasionalist grounds. For Sturm, all processes associated with the life of plants can be accounted for mechanically—all but the ultimate origin of the first plant’s seed, for which Sturm relies on the theory of pre-existence. (shrink)

Table of Contents 0. Introduction Part I. Life and mechanism 1. Guido Giglioni (Macerata) Scaliger Bacon Harvey: A Trajectory in the Early Modern History of Vegetative Life 2. Andreas Blank (Klagenfurt) Jacob Schegk on Plants, Medicaments, and the Question of Emergence 3. Oana Matei (Arad/Bucharest) Particles, universal spirit, and seeds: John Evelyn's theory of matter in Elysium Britannicum 4. Luca Tonetti (Bologna) Stimulus and fibre theory in Giorgio Baglivi’s medicine: A reassessment 5. Antonio Clericuzio (Roma Tre) ‘Febris non est (...) morbus, sed bellum contra morbum’. A study of seventeenth-century theories of fevers. 6. Riccardo Chiaradonna (Roma Tre) Plotinus and Ficino in Ralph Cudworth’s philosophy of nature 7. Raphaële Andrault (CNRS-ENS Lyon) The chain of motions and the chain of thoughts. The diachronic mechanism of Spinoza's friends. 8. Antonio M. Nunziante (Padova) Both Natural and Supernatural: Leibniz’s Integrated Model of Life 9. Marco Storni (Neuchâtel) Experience, Analogy and Mechanism in Maupertuis’s Theory of Generation 10. Cécilia Bognon-Küss (Louvain-La-Neuve) Intussusception, vital mechanisms and the ontology of life 11. Charles Wolfe (Toulouse) Expanded mechanism or heuristic vitalism? Part II. Mechanisms of the mind 12. Emanuela Scribano (Ca’ Foscari University of Venice) Powers of the Body and Eclipse of the Soul. From Descartes On 13. Ursula Renz (Graz) Shaftesbury’s Conception of Human Thought 14. Matteo Favaretti Camposampiero (Ca’ Foscari University of Venice) Psychology and Mechanism: Christian Wolff on the Soul-Body Analogy 15. Federico Boccaccini (Brasilia) Mental Machinery and active powers from Hartley to Ward 16. Paolo Pecere (Roma Tre) Mechanism, organization, mind: a Kantian legacy in 19th century psychology 17. Lydia Patton (Virginia Tech) Organic Memory and the Perils of Perigenesis: the Helmholtz-Hering Debate. (shrink)

My dissertation defends a non-mechanistic interpretation of Kant’s philosophy of nature. Inspired by the picture of nature in the Critique of Pure Reason and Metaphysical Foundations of Natural Science, most readers align Kant with Early Modern mechanists, who claim that we can know that the internally purposive form of causality characteristic of organisms has no place in nature. To these mechanistic readers, Kant banishes internal purposiveness from nature. To moderate mechanistic interpreters, because we cannot know whether there are internally (...) purposive things in nature and we can demonstrate that mechanism applies to nature, Kant pushes us to believe that any seemingly internally purposive natural products will eventually be explained in mechanistic terms. To strong mechanistic interpreters, Kant gives us the tools to know that there is no room for the special kind of teleology organisms exhibit in nature. My non-mechanistic interpretation rejects this trend by arguing that Kant urges us to believe that the internally purposive activity characteristic of organisms exists in nature. Belief in this context is a firm, positive, and voluntary attitude that aligns with and serves a subject’s interests and ends, and that has implications for the subject’s rational action, assertion, and deliberation. Kant’s stated goal in the third Critique is to bridge the gulf between freedom and nature. My non-mechanistic interpretation offers a new account of how Kant promises to construct this bridge. (shrink)

This paper is about mechanisms and models, and how they interact. In part, it is a response to recent discussion in philosophy of biology regarding whether natural selection is a mechanism. We suggest that this debate is indicative of a more general problem that occurs when scientists produce mechanistic models of populations and their behaviour. We can make sense of claims that there are mechanisms that drive population-level phenomena such as macroeconomics, natural selection, ecology, and epidemiology. But talk (...) of mechanisms and mechanistic explanation evokes objects with well-defined and localisable parts which interact in discrete ways, while models of populations include parts and interactions that are neither local nor discrete in any actual populations. This apparent tension can be resolved by carefully distinguishing between the properties of a model and those of the system it represents. To this end, we provide an analysis that recognises the flexible relationship between a mechanistic model and its target system. In turn, this reveals a surprising feature of mechanistic representation and explanation: it can occur even when there is a mismatch between the mechanism of the model and that of its target. Our analysis reframes the debate, providing an alternative way to interpret scientists’ mechanism-talk , which initially motivated the issue. We suggest that the relevant question is not whether any population-level phenomenon such as natural selection is a mechanism, but whether it can be usefully modelled as though it were a particular type of mechanism. (shrink)

It has been said that new discoveries and developments in the human, social, and natural sciences hang “in the air” (Bowler, 1983; 2008) prior to their consummation. While neo-Darwinist biology has been powerfully served by its mechanistic metaphysic and a reductionist methodology in which living organisms are considered machines, many of the chapters in this volume place this paradigm into question. Pairing scientists and philosophers together, this volume explores what might be termed “the New Frontiers” of biology, namely contemporary areas (...) of research that appear to call an updating, a supplementation, or a relaxation of some of the main tenets of the Modern Synthesis. Such areas of investigation include: Emergence Theory, Systems Biology, Biosemiotics, Homeostasis, Symbiogenesis, Niche Construction, the Theory of Organic Selection (also known as “the Baldwin Effect”), Self-Organization and Teleodynamics, as well as Epigenetics. Most of the chapters in this book offer critical reflections on the neo-Darwinist outlook and work to promote a novel synthesis that is open to a greater degree of inclusivity as well as to a more holistic orientation in the biological sciences. (shrink)

: Michael Gazzaniga, a prominent cognitive neuroscientist, has argued against reductionist accounts of cognition. Instead, Gazzaniga defends a form of non-reductive physicalism: epistemological neuro-cognitive non-reductionism and ontological monist physicalism. His position is motivated by the theses that: cognitive phenomena can be realized by multiple neural systems; many outcomes of these systems are unpredictable; and multi-level explanations are required. Epistemological neuro-cognitive non-reductionism is presented as the most appropriate stance to account for the way in which phenomena should be explained in cognitive (...) neuroscience. In this paper, I argue, however, that a recent form of neuro-cognitive reductionism, namely neo-mechanistic reductionism accounts for the arguments presented by Gazzaniga. Thus, the theory offers a more consistent and well-articulated view of the relationship between cognitive and neural phenomena that is specifically compatible with the explanatory strategies and aims of contemporary cognitive neuroscience. Keywords: Neo-mechanistic Philosophy; Michael Gazzaniga; Non-reductionism; Reductionism; Philosophy of Cognitive Neuroscience L’antiriduzionismo neurocognitivo di Michael Gazzaniga e la sfida della riduzione neomeccanicista Riassunto: Uno dei più importanti neuroscienziati dei nostri tempi, Michael Gazzaniga, si è schierato contro una concezione riduzionista della cognizione. Al contrario Gazzaniga difende una forma di fisicalismo non-riduzionistico che risulta dalla combinazione, sul piano epistemologico, di un anti-riduzionismo cognitivo e, sul piano ontologico, di un monismo fisicalista. La sua posizione è motivata dalla tesi per cui i fenomeni cognitivi possono essere realizzati da molteplici sistemi neurali; molti esiti di tali sistemi non si possono prevedere; e sono pertanto necessarie spiegazioni a livelli plurimi. La concezione presentata come più adeguata per dare conto sul piano epistemologico di come i fenomeni dovrebbero essere spiegati all’interno delle neuroscienze cognitive è una forma di anti-riduzionismo neuro-cognitivo. In questo articolo si sostiene tuttavia che una recente forma di riduzionismo neuro-cognitivo può dare conto degli argomenti presentati da Gazzaniga. Si tratta di una teoria che offre una interpretazione maggiormente coerente ed articolata della relazione fra fenomeni cognitivi e neurali e che offre un modello di spiegazione compatibile con gli scopi esplicativi delle neuroscienze cognitive contemporanee. Parole chiave: Filosofia neomeccanicista; Michael Gazzaniga; Nonriduzionismo; Riduzionismo; Filosofia della neuroscienza cognitiva. (shrink)

This paper presents a model for the structure of universal frameworks in logic, mathematics, and physics that are closed to logical conclusion by the mechanism of paradox across a dualism of elements. The prohibition takes different forms defined by the framework of observation inherent to the structure. Forms include either prohibition to conclusion on the logical relationship of internal elements or prohibition to conclusion based on the existence of an element not included in the framework of a first element. (...) The model is applied to logical arguments in philosophy, mathematics, and physics and is initially a geometrical analysis of quantum theory and its application in experiment. Conclusion from the analysis is extended to give insight into the complexity of infinities above the two-dimensional boundary of the model. (shrink)

In some influential histories of ancient philosophy, teleological explanation and mechanistic explanation are assumed to be directly opposed and mutually exclusive alternatives. I contend that this assumption is deeply flawed, and distorts our understanding both of teleological and mechanistic explanation, and of the history of mechanistic philosophy. To prove this point, I shall provide an overview of the first systematic treatise on mechanics, the short and neglected work Mechanical Problems, written either by Aristotle or by a very early (...) member of his school. I will argue that the work is thoroughly Aristotelian in methodology, and that taking it seriously can deepen our understanding of Aristotle’s discussion of animal and human self-motion in the Physics and On the Movement of Animals. (shrink)