Metaphor has no place in science, some claim; no, others argue, metaphor is crucial to science. Science is a rational enterprise with its own distinctive logical structure; no, it isn’t essentially different from literature, equally a kind of world-making. There is a distinctive metaphorical kind of meaning; no, metaphorical utterances have only their literal meanings, in which they are just plain false. Conspicuous by its absence is the reasonable middle ground Haack will be mapping here. Metaphor is useful, but not (...) essential, to scientific work; metaphors don’t have a special kind of meaning, but they do have a special pragmatic role; scientific work and the writing of fiction do have important things in common, but there are also significant differences between the two enterprises. Once we understand how science works, and then how metaphors work, we can articulate the similarities, and differences, between scientific metaphors and literary ones. (shrink)

The essential significance of scientific metaphor lies in applying the general metaphorical theory to specific interpretations and elaborations of scientific theories to form a methodology of scientific explanation. It is a contextual grasp of objective reality. A given metaphorical context and its grasp of the essence of reality can only be valid when the context is continually restructured. Taking the context as a whole, the methodological characteristic of scientific metaphor lies in the unity of understanding and (...) choice, experience and concepts, semantic structures and metaphorical domains, rationality and irrationality. As a form of thinking based on reasons, scientific metaphor plays an important role in invention, representation, explanation, evaluation, and communication. (shrink)

Recent contributions by Kuhn, Wartofsky, and Granger, converge in the direction of an extended view of models, one that acknowledges a metaphorical dimension in the language of science. Such a view is in some respects the opposite of the views of both Bachelard and the Logical Empiricists. A number of familiar puzzles of the philosophy of science, such as the problem of reference, the opposition of realism and instrumentalism, that between explanation and understanding, and the status of scientific objectivity, (...) may receive a new solution in the light of the Kuhn/Wartofsky/Granger view of scientific metaphors. (shrink)

To study the different mechanisms of understanding figurative language in a speaker’s native language and their second language, this study investigated how scientific metaphors in Chinese and English are electrophysiologically processed via event-related potential experimentation. Compared with the metaphors from daily life or in literary works, scientific metaphors tend to involve both a more complicated context structure and a distinct knowledge-inferencing process. During the N400 time window, English scientific metaphors elicited more negative N400s (...) than Chinese ones at the parietal region. In the late positive component time window, English scientific metaphors elicited less positive LPCs than Chinese ones at the parietal region, and larger late negativities encompassing smaller areas of the brain. The findings might indicate that for late unbalanced bilingual speakers, L2 scientific metaphor comprehension requires more effort in information retrieval or access to the non-literal route. Altogether, the possible findings are that non-native and non-dominant language processing involves decreased automaticity of cognitive mechanisms, and decreased sensitivity to the levels of conventionality of metaphoric meanings. (shrink)

The role of the two hemispheres in processing metaphoric language is controversial. In order to complement current debates, the current divided visual field study introduced scientific metaphors as novel metaphors, presenting orientation mapping from the specific and familiar domains to the abstract and unfamiliar domains, to examine hemispheric asymmetry in metaphoric processing. Twenty-four Chinese native speakers from science disciplines took part in the experiment. The participants were presented with four types of Chinese word pairs: scientific (...) class='Hi'>metaphors, conventional metaphors, literal word pairs, and unrelated word pairs. The first word in each pair was presented centrally, and the second was presented to the left visual field or the right visual field. Event-related potentials were recorded when participants read the target words and judged whether words in each pair were related. The data demonstrated that both hemispheres were involved at the initial stage of metaphor processing, but the right hemisphere took a more privileged role. The significant activation of the left hemisphere for scientific metaphoric processing supports the fine-coarse coding hypothesis. During right-visual-field presentation, the left hemisphere, responsible for the processing of closely related domains, has to integrate the loosely associated domains of scientific metaphor, which greatly increased cognitive taxes. Moreover, the data of late positive components revealed different hemispheric activation between scientific metaphors and conventional metaphors. Compared with literal pairs, conventional metaphors elicited significantly higher LPCs during right visual field presentation, while the scientific metaphor elicited significantly lower LPCs during left visual field presentation. These results suggest different processing mechanisms between novel metaphors and conventional metaphors and the special role of the right hemisphere in novel metaphoric processing at the later mapping stage. (shrink)

In this paper I examine the notion and role of metaphors and illustrations in Maxwell's works in exact science as a pathway into a broader and richer philosophical conception of a scientist and scientific practice. While some of these notions and methods are still at work in current scientific research-from economics and biology to quantum computation and quantum field theory-, here I have chosen to attest to their entrenchment and complexity in actual science by attempting to make (...) some conceptual sense of Maxwell's own usage; this endeavour includes situating Maxwell's conceptions and applications in his own culture of Victorian science and philosophy. I trace Maxwell's notions to the formulation of the problem of understanding, or interpreting, abstract representations such as potential functions and Lagrangian equations. I articulate the solution in terms of abstract-concrete relations, where the concrete, in tune with Victorian British psychology and engineering, includes the muscular as well as the pictorial. This sets the basis for a conception of understanding in terms of unification and concrete modelling, or representation. I examine the relation of illustration to analogies and metaphors on which this account rests. Lastly, I stress and explain the importance of context-dependence, its consequences for realism-instrumentalism debates, and Maxwell's own emphasis on method. (shrink)

The present article explores the productive afterlife of the Vitruvian anecdote concerning Aristippus’s shipwreck on the shore of Rhodes. Known to several medieval scholars, the anecdote came into vogue during the Renaissance, when it was transformed into a potent metaphor mobilised by moralists, educators and religious authors. Not until the sixteenth century, however, did mathematicians come to recognise the value in appropriating the metaphor as a means to elevate the dignity of their discipline. Two centuries later, having accomplished their mission, (...) mathematicians elided much of the anecdote, preserving only the geometrical part. (shrink)

In the history of genetics, the information-theoretical description of the gene, beginning in the early 1960s, had a significant effect on the concept of the gene. Information is a highly complex metaphor which is applicable in view of the description of substances, processes, and spatio-temporal organisation. Thus, information can be understood as a functional particle of many different language games (some of them belonging to subdisciplines of genetics, as the biochemical language game, some of them belonging to linguistics and informatics). (...) It is this wide covering of different language games that justifies the common description of genes x, y, z as containing information for the phenotypic traits X, Y, Z (or the genome as storage for the information of a whole organism). However, if information is taken as the explanans and phenotypic traits or organisms as the explananda, then a description of the explanandum is of prior importance before the explanans can be characterised. This way of thinking could be useful for future discussions on the strikingly dominant information -metaphor, and the different gene concepts as well. The article illustrates this in two steps. First, a condensed overview on the history of genetics is given, which can be divided into three parts: (1) genetics without genes, (2) genetics with genes, but without information, (3) genetics with genes and information. It is assumed that this provides not only some historical knowledge about the origin of genetics and the introduction of technical terms, but offers at least preliminary insight into the methodological structure of genetic descriptions. In a second step, we redraw Spemann’s disturbation experiments to discuss our thesis that genetic information is not a natural entity, but part of a causality-language game which is secondarily added to the descriptions of interventionalistic practices, viz. experimental approaches. (shrink)

Metaphor is a significant tool in the recontextualization of specialized knowledge in popularizations transmitted through the mass media. This study explores metaphor in popularizations of scientific articles on cancer in the English press. Metaphors used for cancer and cancer research were identified and analysed in a corpus of 37 articles from The Guardian. Special attention was paid to the aspects emphasized and de-emphasized as they can have potential ideological implications. Fifteen conceptual metaphors were identified in the corpus, (...) ranging from the most frequent CANCER IS WAR to an isolated reference to Achilles' heel. The average was 2.9 metaphors per text. The quantitative data and contextual analysis indicate that no single metaphorical system is sufficient to represent the complexity of cancer-related knowledge. Metaphors are used in combination to perform three main functions, attracting the reader, structuring and explaining scientific concepts, and organizing the text into a narrative. (shrink)

In philosophy of science, abstraction tends to be subsumed under representation, often being described as the omission of a target’s features when it is represented. This approach to abstraction sidesteps cognitive aspects of abstraction processes. However, cognitive aspects of abstraction are important in understanding the role of historically grounded epistemic criteria supporting modeling in science. Drawing on recent work on the relation between metaphor and abstraction, we introduce the concept of paths of abstraction, and use historical and contemporary examples to (...) point to their role in guiding the development of relevance criteria which support modeling strategies in science. (shrink)

This paper aims to offer an alternative view for understanding scientific models based on metaphors. To accomplish this, we employ a special case of Darwin’s use of metaphors, such as the notion of powerful Being, in order to represent natural selection. Our proposal contributes to issues in the literature of scientific model, such as imprecisions in the understanding of scientific models, especially in models based on metaphors. Thus, our alternative view of models based on (...) metaphors, and inspired by Darwin’s use of metaphors, provides us with four features, a-simplification and selection; b-articulation of familiar-unfamiliar structures; c-accessibility and moderations of complexity, and finally d-local realism. We contrast these features with Darwin’s use of a metaphors. We conclude by saying that our proposal of metaphor’s approach of models does not only contribute to the clarification of how these types of scientific models can be understood but it shows that metaphors can also contain a realist element that explains why scientists often use it in their practices of modeling the world. (shrink)

In 1997, five decades after the publication of the landmark Hempel-Oppenheim article "Studies in the Logic of Explanation" Wesley Salmon published Causality and Explanation, a book that re-addresses the issue of scientific explanation. He provided an overview of the basic approaches to scientific explanation, stressed their weaknesses, and offered novel insights. However, he failed to mention Mary Hesse's approach to the topic and analyze her standpoint. This essay brings front and center Hesse's approach to scientific explanation formulated (...) in the 1960s and argues that rereading Hesse's account one can overcome the criticisms addressed towards another influential theory of explanation that of Bas van Fraassen's. Furthermore, it could bring the traditional philosophy of science into a fruitful conversation with science and technology studies and gender studies in science, technology and medicine. (shrink)

In scientific language a distinction can be made between 'pedagogical' metaphors and 'theory constitutive' metaphors. pedagogical metaphors are considered to encourage memorability of information and to generate a better, more insightful and personal understanding. they play a role in the teaching or in the explanation of theories that can already be formulated completely-or almost completely-in a nonmetaphorical way. they normally do not bring about any new theoretical views in the science. (edited).

The primary significance of the adoption of Black’s (1962) interaction view of metaphor by Hesse in her network model of theories (1966, 1972 and 1974) and in her network model of meanings (1984a) is the fact that it leads to a fundamental modification of the hypothetical-deductive account of scientific theorizing and a relativization of the traditional logical positivist distinction between observation language and theory language. Hesse argues that what holds for metaphorical language in ordinary language use, namely that it (...) is affected by the contextual interaction between the various elements present in the metaphor, is also true of scientific models. They function in a similar fashion (1972, p. 254). She does not reject the distinction between literal and metaphorical language, but claims that the distinction is a pragmatic one. The distinction concerns the way in which speakers learn, use, and if necessary, define the words of their language. (shrink)

For quite some time, critics have attacked religious language on the grounds that theologians employed metaphors that were irreducible. By irreducible, they meant metaphors that could not be paraphrased in literal language. And any such language that could not be reduced to words that can be taken in a literal sense, would be devoid of cognitive meaning or truth value. Since theologians claimed that statements like ‘God is love’ cannot be reduced to a literal sense without robbing the (...) concept of God of its transcendent status, sceptics replied that such failures merely indicated the meaninglessness of religious language. Or, if apologists did assert that ‘God is love’ can be paraphrased by statements describing the love of one man for another, the sceptic claimed that such a move reduced religious language to anthropological language where terms like ‘God’ were superfluous. Critics argued that metaphors of religion posed the following dilemma: either religious metaphors could not be reduced to literal paraphrases and were, therefore, meaningless; or, religious metaphors could be reduced to literal paraphrases, but the method by which they were reduced eliminated the necessity for theological terminology. (shrink)

In 1997, five decades after the publication of the landmark Hempel-Oppenheim article "Studies in the Logic of Explanation"([1948], 1970) Wesley Salmon published Causality and Explanation, a book that re-addresses the issue of scientific explanation. He provided an overview of the basic approaches to scientific explanation, stressed their weaknesses, and offered novel insights. However, he failed to mention Mary Hesse's approach to the topic and analyze her standpoint. This essay brings front and center Hesse's approach to scientific explanation (...) formulated in the 1960s and argues that rereading Hesse's account one can overcome the criticisms addressed towards another influential theory of explanation that of Bas van Fraassen's. Furthermore, it could bring the traditional philosophy of science into a fruitful conversation with science and technology studies and gender studies in science, technology and medicine. (shrink)

In this paper, I provide the outlines of an alternative metaphilosophical orientation for Continental philosophy, namely, a form of scientific naturalism that has proximate roots in the work of Bachelard and Althusser. I describe this orientation as an “alternative” insofar as it provides a framework for doing justice to some of the motivations behind the recent revival of metaphysics in Continental philosophy, in particular its ecological-ethical motivations. In the second section of the paper, I demonstrate how ecological-ethical issues motivate (...) new metaphysicians like Bruno Latour, Jane Bennett, Timothy Morton, Ian Bogost, and Graham Harman to impute to objects real features of agency. I also try to show how their commitments lead to deep ambiguities in their metaphysical projects. In the final section, I outline a type of scientific naturalism in Continental philosophy that parallels the sort of naturalism championed by Quine, both conceptually and historically, and suggest that it might serve our ecological-ethical purposes better. (shrink)

This study explores African students' use of cultural metaphoric reasoning in classifying everyday situations as hot or cold, as is part of Sotho cultural tradition. It documents the extent to which such metaphoric reasoning is related to the use of science (mis)conceptions of heating. Written probes were used to document cultural metaphoric reasoning and science misconceptions of students entering a university science program. The same instruments were used as postprobes after a 4-week teaching intervention using experimental cognitive conflict strategies for (...) various standard misconceptions on heating. The findings show that almost a third of the sample used metaphoric reasoning consistently. This group was, as expected, significantly dominated by Sotho speakers. Initially, a large percentage of students explained the particulate effect of heating in terms of melting, shrinking, or breaking up of atoms. Most students identified specific materials as good insulators against coldness or against heat. Heat transfer was frequently explained in terms of absorption, diffusion, or reflection rather than conduction. There were no significant differences in the type and frequencies of these alternative concepts held by cultural metaphoric and noncultural metaphoric reasoners before the intervention. The teaching program did not affect cultural metaphoric reasoning, but had significant and equal benefits for the conceptual understanding of both groups, with the exception that the cultural metaphoric reasoners were more persistent in attributing observable properties to atoms. The present study suggests some further modification to the teaching strategies and concludes that, at this level of education, students are able to distinguish between different types of reasoning appropriate for cultural everyday situations and scientific contexts. (shrink)

This study explains scientific progress through analogical cross-fertilization of ideas between distinct physical systems. In many cases, progress can be generatedfrom a radically new juxtaposition of apparently incongruous physical systems.

The importance of scientific conflicts for theology and philosophy is difficult to judge. In many disputes of significance, prominent scientists can be found on both sides. Profound philosophical and religious implications are sometimes said to be implied by the new theory as well. This article examines the dispute over natural selection between Richard Dawkins and Stephen Jay Gould as a contemporary instance of such a conflict. While both claim that profoundphilosophical conclusions flow from their own alternative account of evolution, (...) I suggest that the implication is not as great as is claimed and that the alleged implications have as much to do with their own perceptions of theology as with the actual theories themselves. Nevertheless, evolutionary theory is not irrelevant for theology. Theologians should be aware of the possible implications of evolutionary theory and at the same time the extent and limits of such implications. (shrink)

The ArgumentMany of the epistemological issues that occupied natural philosophers of the seventeenth century were expressed visually in title-page engravings. One of those issues concerned the relative status to be accorded to evidence of the senses, as compared to knowledge gained by faith or reason. In title-page illustrations, the various arguments were often waged by a series of light metaphors: the Light of Reason, the Light of Nature, and the Lights of Sense, Scripture, and Grace. When such illustrations are (...) examined with the authors' theological views in mind, it becomes apparent that in the first half of the seventeenth century, Catholic authors favored the Light of Reason as a source of truth, while Protestant authors favored the Light of Nature. Since by the end of the century it was widely accepted by scientists of all religious persuasions that certain knowledge must be grounded in sense evidence and the direct study of nature, one might argue that in this instance Protestantism was responsible for nurturing an important development of the Scientific Revolution. However, the skewed nature of the sample and the large number of counterexamples available mitigate against taking this offshoot of the Merton thesis too seriously. (shrink)

Metaphors abound in both the arts and in science. Due to the traditional division between these enterprises as one concerned with aesthetic values and the other with epistemic values there has unfortunately been very little work on the relation between metaphors in the arts and sciences. In this paper, we aim to remedy this omission by defending a continuity thesis regarding the function of metaphor across both domains, that is, metaphors fulfill any of the same functions in (...) science as they do in the arts. Importantly, this involves the claim that metaphors in arts as well as science have both epistemic and aesthetic functions. (shrink)

This paper is about the use of analogical reasoning, models and metaphors in Galileo's discovery of the mountains of the moon, which he describes in the Starry Messenger, a short but groundbreaking treatise published in 1610. On the basis of the observations of the Moon he has made with the newly invented telescope, Galileo shows that the Moon has mountains and that therefore it shares the same solid, opaque and rugged nature of the Earth. I will first reconstruct Galileo's (...) reasoning, and illustrate the counterintuitive and quasi-circular way in which discovery depends on analogy: in order for analogical reasoning to succeed in bridging ontological gaps and thus serve as a discovery tool, a certain similarity between what are considered as radically different domains has to be presupposed. More particularly, in order for analogical reasoning to lead to genuine discoveries, salient features have to be selected in the source domain that will be mapped onto the target domain. There is disagreement as to how this mapping is successfully carried out: the syntactical, pragmatic and ontological-categorical approaches, all illuminate some features of this selection in the mapping process. On the basis of an analysis of Galileo's discovery, I will argue that we need a different "bootstrapping" approach which involves the construction of an imaginary temporary model encompassing both the source and the target domains, and which is occasionally strengthened by metaphors which serve as incomplete transitional models. (shrink)

Genes are often described by biologists using metaphors derived from computa- tional science: they are thought of as carriers of information, as being the equivalent of ‘‘blueprints’’ for the construction of organisms. Likewise, cells are often characterized as ‘‘factories’’ and organisms themselves become analogous to machines. Accordingly, when the human genome project was initially announced, the promise was that we would soon know how a human being is made, just as we know how to make airplanes and buildings. Impor- (...) tantly, modern proponents of Intelligent Design, the latest version of creationism, have exploited biologists’ use of the language of information and blueprints to make their spurious case, based on pseudoscientific concepts such as ‘‘irreducible complexity’’ and on flawed analogies between living cells and mechanical factories. However, the living organ- ism = machine analogy was criticized already by David Hume in his Dialogues Concerning Natural Religion. In line with Hume’s criticism, over the past several years a more nuanced and accurate understanding of what genes are and how they operate has emerged, ironically in part from the work of computational scientists who take biology, and in particular developmental biology, more seriously than some biologists seem to do. In this article we connect Hume’s original criticism of the living organism = machine analogy with the modern ID movement, and illustrate how the use of misleading and outdated metaphors in science can play into the hands of pseudoscientists. Thus, we argue that dropping the blueprint and similar metaphors will improve both the science of biology and its understanding by the general public. (shrink)

Metaphors for describing the introduction, impacts, and management of non-native species are numerous and often quite outspoken. Policy-makers have adopted increasingly disputed metaphorical terms from scientific discourse. We performed a critical analysis of the use of strong metaphors in reporting scientific findings to policy-makers. Our analysis shows that perceptions of harm, invasiveness or nativeness are dynamic and inevitably display multiple narratives in science, policy or management. Improving our awareness of multiple expert and stakeholder narratives that exist (...) in the context of non-native species management, as well as metaphorical alternatives, is critical. (shrink)

The extent to which machine metaphors are used in synthetic biology is striking. These metaphors contain a specific perspective on organisms as well as on scientific and technological progress. Expressions such as “genetically engineered machine”, “genetic circuit”, and “platform organism”, taken from the realms of electronic engineering, car manufacturing, and information technology, highlight specific aspects of the functioning of living beings while at the same time hiding others, such as evolutionary change and interdependencies in ecosystems. Since these (...) latter aspects are relevant for, for example, risk evaluation of uncontained uses of synthetic organisms, it is ethically imperative to resist the thrust of machine metaphors in this respect. In addition, from the perspective of the machine metaphor viewing an entity as a moral agent or patient becomes dubious. If one were to regard living beings, including humans, as machines, it becomes difficult to justify ascriptions of moral status. Finally, the machine metaphor reinforces beliefs in the potential of synthetic biology to play a decisive role in solving societal problems, and downplays the role of alternative technological, and social and political measures. (shrink)

Phantasmagoria explores ideas of spirit and soul since the Enlightenment; it traces metaphors that have traditionally conveyed the presence of immaterial forces, and reveals how such pagan and Christian imagery about ethereal beings are embedded in a logic of the imagination, clothing spirits in the languages of air, clouds, light and shadow, glass, and ether itself. Moving from Wax to Film, the book also discusses key questions of imagination and cognition, and probes the perceived distinctions between fantasy and deception; (...) it uncovers a host of spirit forms--angels, ghosts, fairies, revenants, and zombies--that are still actively present in contemporary culture. It reveals how their transformations over time illuminate changing ideas about the self. Phantasmagoria also tells the accompanying story about the means used to communicate such ideas, and relates how the new technologies of the Victorian era were applied to figuring the invisible and the impalpable, and how magic lanterns (the phantasmagoria shows themselves), radio, photography and then moving pictures spread ideas about spirit forces. As the story unfolds, the book features the many eminent men and women--scientists and philosophers--who in the Society of Psychical Research applied their considerable energies to the question of other worlds and other states of mind: they staged trance seances in which mediums produced spirit phenomena, including ectoplasm. The book shows how this often embarrassing story connects with some of the important scientific discoveries of a fertile age, in psychology and physics. Over a sequence of twenty-eight chapters, with over thirty illustrations in color and black and white, Phantasmagoria thus tells an unexpected and often uncomfortable story about shifts in thought about consciousness and the individual person, from the first public waxworks portraits at the end of the eighteenth century to stories of hauntings, possession, and loss of self as in the case of the zombie, a popular figure of soulessness, in modern times. (shrink)

La métaphore est un instrument indispensable pour les analyses scientifiques. Mais elle nécessite un usage réflexif qui en précise le statut car celui-ci peut être divers et n’est pas sans effet sur la théorie comme sur diverses pratiques. Ainsi, les analystes et acteurs des transports ont usé – et probablement abusé – du recours à la physique des fluides pour leurs métaphores. Aujourd’hui, les développements de la physique, par exemple dans les domaines des fractales ou de la percolation, ouvrent des (...) perspectives nouvelles et prometteuses. Cette évolution montre aussi que les chercheurs en sciences sociales auraient intérêt à renouveler les métaphores qu’ils emploient et qui sont souvent assez archaïques. Ainsi, la référence à des espaces à n dimensions et à l’hypertexte permet de faire rebondir les analyses de Georg Simmel, bridées par le recours à une géométrie plane trop sommaire.Metaphors are indispensable tools for scientific investigation. They should be used in such a way that their status as metaphor is clear, however, for their various uses are not without consequence for theory and practice. In the area of transportation, analysts and practitioners have drawn metaphors from the physics of fluids, but recent developments in the theories of fractals and percolation offer promising perspectives. Generally speaking, as these developments suggest, social scientists stand to benefit from renewing their current metaphors, which are often quite archaic. Thus, Georg Simmel’s analyses – which are constrained by the reference to plan – stand to be revitalized by a reference to N-dimensional spaces and to hypertext. (shrink)

It is widely acknowledged that metaphors are used in science. Great scientists, such as Darwin and Einstein, believed that the use of metaphors is vital to the development of scientific ideas. The history of science is full of examples of scientific metaphors as tools at the forefront of discoveries of new facts and new concepts.

Recent philosophical analyses of the epistemic dimension of images in the sciences show a certain trend in acknowledging potential roles of these images beyond their merely decorative or pedagogical functions. We argue, however, that this new debate has yet paid little attention to a special type of pictures, we call ‘visual metaphor’, and its versatile heuristic potential in organizing data, supporting communication, and guiding research, modeling, and theory formation. Based on a case study of Conrad Hal Waddington’s epigenetic landscape images (...) in biology, we develop a descriptive framework applicable to heuristic roles of various visual metaphors in the sciences. (shrink)

We develop a new metaphor account where metaphors become surrogate variables for different but related phenomena. As we will argue, subrogation is the result of the interplay between the things inspired by the metaphor and the empirical dynamics that result from such inspiration. In particular, we focus on adaptive radiation, a major concept of evolutionary biology. Our study suggests that there is no distinct phenomenon, process, or pattern in nature than can be identified as adaptive radiation. What we have (...) instead is a grouping variable that has surrogated different evolutionary phenomena into one expansive label. We believe this analysis of metaphors helps better understand the value of metaphors for science not only as a provider of epistemic and cognitive virtues but most importantly, as a crucial research tool that can both help and divert scientific experimentation. (shrink)

The convincing argument that Brette makes for the neural coding metaphor as imposing one view of brain behavior can be further explained through discourse analysis. Instead of a unified view, we argue, the coding metaphor's plasticity, versatility, and robustness throughout time explain its success and conventionalization to the point that its rhetoric became overlooked.

It is widely acknowledged that scientific discourse is full of metaphors. Does this undermine the commitment of such a discourse to truth and objective knowledge? Does this mean that the scientist is, after all, only a ‘rhetorician in disguise’?In what follows I will try to argue for quite the opposite view. I will show that metaphor is not simply a rhetorical device -at least, in the derogatory sense of rhetoric. There are metaphors which can be used to (...) increment our knowledge, and to explore new conceptual domains. This appears to be the case not only for natural science, but also for the so-called ‘sciences of the social’. (shrink)

Metaphors are found all throughout science: in published papers, working hypotheses, policy documents, lecture slides, grant proposals, and press releases. They serve different functions, but perhaps most striking is the way they enable understanding, of a theory, phenomenon, or idea. In this paper, we leverage recent advances on the nature of metaphor and the nature of understanding to explore how they accomplish this feat. We attempt to shift the focus away from the epistemic value of the content of (...) class='Hi'>metaphors, to the epistemic value of the metaphor’s consequences. Many famous scientific metaphors are epistemically good, not primarily because of what they say about the world, but because of how they cause us to think. Specifically, metaphors increase understanding either by improving our sets of representations, or by making it easier for us to encode and process data about complex subjects by changing how we are disposed to conceptualize those subjects. This view hints towards new positions concerning testimonial understanding, factivity, abilities, discovery via metaphor, and the relation between metaphors and models. (shrink)