This book describes how scientists bring their own interests and passions to their work, illustrates the dynamics between researchers and the research community ...

Science traditionally is taught as a linear process based on logic and carried out by objective researchers following the scientific method. Practice of science is a far more nuanced enterprise, one in which intuition and passion become just as important as objectivity and logic. Whether the activity is committing to study a particular research problem, drawing conclusions about a hypothesis under investigation, choosing whether to count results as data or experimental noise, or deciding what information to present (...) in a research paper, ethical challenges inevitably will arise because of the ambiguities inherent in practice. Unless these ambiguities are acknowledged and their sources understood explicitly, responsible conduct of science education will not adequately prepare the individuals receiving the training for the kinds of decisions essential to research integrity that they will have to make as scientists. (shrink)

The National Science Foundation (NSF) in the United States, like many other funding agencies all over the globe, has made large investments in interdisciplinary research in the sciences and engineering, arguing that interdisciplinary research is an essential resource for addressing emerging problems, resulting in important social benefits. Using NSF as a case study for problem that might be relevant in other contexts as well, I argue that the NSF itself poses a significant barrier to such research in not sufficiently (...) appreciating the value of the humanities as significant interdisciplinary partners. This essay focuses on the practices of philosophy as a highly valuable but currently under-appreciated partner in achieving the goals of interdisciplinary research. This essay advances a proposal for developing deeper and wider interdisciplinary research in the sciences through coupled ethical-epistemological research. I argue that this more robust model of interdisciplinary practice will lead to better science by providing resources for understanding the types of value decisions that are entrenched in research models and methods, offering resources for identifying the ethical implications of research decisions, and providing a lens for identifying the questions that are ignored, under-examined, and rendered invisible through scientific habit or lack of interest. In this way, we will have better science both in the traditional sense of advancing knowledge by building on and adding to our current knowledge as well as in the broader sense of science for the good of, namely, scientific research that better benefits society. (shrink)

This book is a novel synthesis of the philosophy and practice of science, covering its diverse theoretical, metaphysical, logical, philosophical, sociological, and practical elements. Students, philosophers and practicing scientists will learn how to think more deeply and holistically about their work, i.e., how to know how to know.

"But science in the making, science as an end to be pursued, is as subjective and psychologically conditioned as any other branch of human endeavor-- so much so that the question, What is the purpose and meaning of science? receives quite different answers at different times and from different sorts of people" (Einstein 1934, p. 112).

Do immigrant faculty trained in American higher education institutions adopt the outlook and practices of native US scientists and engineers, or do they diverge from such practices? The modern science paradigm holds that location will not matter significantly and that immigrants in either place will converge to a common standard of scientific practice. Drawing upon 134 in-depth interviews, this paper compares the scientific practices of two groups of Indian immigrant faculty in science and engineering: those who studied (...) and worked in the United States and then returned to India and those who continued to work in the United States. This paper shows that the two groups differed in important ways: ease of securing grants, management of grants, research environment, professional autonomy, and research type. (shrink)

Studies examining the ways in which the training of engineers and scientists shapes their research strategies and scientific identities.

Generating new ideas—innovation and novelty—is central to what those of us practicing science hope to accomplish. We call it research, but what we really aim for is new-search—learning new things about the world and how it works. Charles Peirce gave the name “abduction” to what he described as the only logical operation that introduces any new idea. In this paper, I will focus on an unconventional understanding of abduction, one that goes beyond its usual meaning and concerns the situation (...) when a surprising observation becomes reconfigured as an unintended experiment about a new research problem that previously was not being studied and possibly was unknown. For science, the consequences can be the beginning of a new field of investigation. For the researcher, the consequences can be life-changing. (shrink)

Philosophy of science has characterized scientific knowledge as fundamentally propositional . This account leads to an inability to recognize and articulate the significant role of non-propositional, visual representation in the practice of science. Toward the development of a more productive framework for understanding visual representation in science, the present study critiques the standard philosophical view, reviews the literature on visual representation in science, and examines the scientific case of neuroscience. Specifically, the study looks at current (...) research known as "functional mapping of the human brain" which uses neuroimaging technologies such as positron emission tomography in the localization of particular functions in the human brain. This case study suggests that, contrary to previous accounts in philosophy of science, visual representation and propositional representation work together as parallel, interacting, interwoven practices in the discovery/construction of scientific knowledge. Visual representations are not reduced to--translated into--linguistic and mathematical propositions, but instead are used in their multidimensional forms. The present study focuses on the external, materialized visual representations used in the practice of science, as opposed to internal, mental images that might be studied by cognitive psychology. Several hypotheses are proposed which describe aspects of the role of these visual representations in the practice of science. These include the following: a primary function of visual representation is the representation of structure which is made possible by the use of actual space in the process of visual representation; visual comparisons among visual representations of real objects and processes, visual representations of theoretical models, and visual representations of integrations of the two are used to assess the fit of the theoretical models to the real objects and processes; the construction of visual prototypes or prototypical visual representations of objects of scientific research are used to categorize and stabilize--hold stationary for the purposes of scientific examination--such objects; and the construction of material models make it possible for scientists to interact with and/or manipulate materialized structures as representations of real systems. (shrink)

Review of "Everyday Practice of Science: Where Intuition and Passion Meet Objectivity and Logic." Book by Frederick Grinnell.

This volume reflects the ‘philosophy of science in practice’ approach and takes a fresh look at traditional philosophical problems in the context of natural, social, and health research. Inspired by the work of Nancy Cartwright that shows how the practices and apparatuses of science help us to understand science and to build theories in the philosophy of science, this volume critically examines the philosophical concepts of evidence, laws, causation, and models and their roles in the (...) process of scientific reasoning. Each chapter is an important one in the philosophy of science, while the volume as a whole deals with these philosophical concepts in a unified way in the context of actual scientific practice. This volume thus aims to contribute to this new direction in the philosophy of science.​. (shrink)

This volume reflects the ‘philosophy of science in practice’ approach and takes a fresh look at traditional philosophical problems in the context of natural, social, and health research. Inspired by the work of Nancy Cartwright that shows how the practices and apparatuses of science help us to understand science and to build theories in the philosophy of science, this volume critically examines the philosophical concepts of evidence, laws, causation, and models and their roles in the (...) process of scientific reasoning. Each chapter is an important one in the philosophy of science, while the volume as a whole deals with these philosophical concepts in a unified way in the context of actual scientific practice. This volume thus aims to contribute to this new direction in the philosophy of science.​. (shrink)

Science and technology studies analyses of emerging forms of treatment often result in the detailed display of complexities and at times lead to explicit critiques of particular healthcare practices. Simultaneously, there seems to be an increasing interest in exploring more experimental engagements by STS researchers in the proactive construction of such practices. In this article, I explore the relevance of experimental interventions in health care practices for both these care practices and for issues of the normativity of STS research. (...) By analyzing my involvement in changes in the practice of hemophilia home treatment, I indicate how this care practice was reconfigured, partly by drawing on STS insights on the issue of compliance. I also claim that experimenting with forms of ‘‘artful contamination’’ allow STS researchers to do normativity in the practices they engage with. Such practices of interventionist STS research may be of value for refiguring debates in which constructivism has been accused of being normatively deficient. This may make interventionist STS research a fruitfully risky business. (shrink)

From the Victorian era to our own, critics of Herbert Spencer have portrayed his science‐based philosophical system as irrelevant to the concerns of practicing scientists. Yet, as a number of scholars have recently argued, an extraordinary range of reformist and experimental projects across the human and life sciences took their bearings from Spencer's work. This essay examines Spencerian science as practiced by the biologist, sociologist, and town planner Patrick Geddes (1854–1932). Through a close examination of his experimental natural (...) history of the late 1870s and early 1880s, his wider writings on the evolutionary process in the 1880s, and his efforts later in that decade to improve the slums of Edinburgh, this essay reveals Geddes's deep, unifying, and energizing commitment to Spencer's program. Recapturing that commitment can not only help historians rethink Spencerian science as practice but also suggest ways of overcoming the dichotomy between elite ideas and practical activity that bedevils much contemporary historiography of science. (shrink)

This article addresses the contributions of the literature on the new mechanistic philosophy of science for the scientific practice of model building in ecology. This is reflected in a one-to-one interdisciplinary collaboration between an ecologist and a philosopher of science during science-in-the-making. We argue that the identification, reconstruction and understanding of mechanisms is context-sensitive, and for this case study mechanistic modeling did not present a normative role but a heuristic one. We expect our study to provides (...) useful epistemic tools for the improvement of empirically-riven work in the debates about mechanistic explanation of ecological phenomena. (shrink)

This qualitative study was carried out in two public schools located in the city of São Paulo, SP, Brazil, and involved two primary school science teachers. Its objective was to discuss the relevance of continuing education of Science teachers with the emphasis on the use of ICT in their teaching practice, the challenges faced by the insertion of these technological resources in the school environment, and improvements in school facilities. These aspects guide the need for training that (...) prepares the teacher to deal with this type of situation. Data collection was done through the application of two interviews, at different moments of the research. These results were presented at an international event, Enseñanza de las Ciencias 2017, and we were able to observe the difference of realities between the science education in developed countries and noted the relevance of discussing this topic in the context of science teaching in Brazil. Keywords: Teaching practice; Challenges in Science Education; Information and Communication Technologies. (shrink)

The analysis of critical incidents in the pre-professional practice of teacher training is essential to promote reflection. Building upon this notion, the urgent need for a reflective practice in the training of science teachers is addressed. In this context, future educators are instructed in the preparation of reports that highlight the critical incidents experienced in their pedagogical work. From these perspectives, reflective practice emerges as a fundamental resource to solidify their identity and pedagogical mastery by incorporating (...) experiences for guidance purposes, emphasizing the significance of reflection. (shrink)

What does it mean to be “strengths-based” or to be a “strengths-based practitioner?” These are diffuse areas that are generic and ill-defined. Part of the confusion arises from the customary default of practitioners and leaders across many cultures to label anything positive or complimentary as “strengths-based,” whether that be an approach, a theoretical orientation, an intervention, or a company. Additional muddle is created by many researchers and practitioners not making distinctions between very different categories of “strength” in human beings – (...) strengths of character, of talent/ability, of interest/passion, of skill/competency, to name a few. To add clarity and unification across professions, we offer seven characteristics and a comprehensive definition for a character strengths-based practitioner. We center on the type of strength referred to as character strengths and explore six guiding principles for understanding character strengths (e.g., character is plural; character is being and doing) and their practical corollaries. Reflecting this foundation and based on character strengths research, our longstanding work with strengths, discussions with practitioners across the globe, and a practitioner survey asking about strength practices (N= 113), we point out several character strengths practices or approaches we describe as soaring (e.g., explore and encourage signature strengths; practice strengths-spotting), emerging (e.g., the integration of mindfulness and character strengths), or ripe with potential (e.g., phasic strengths; the tempering effect; the towing effect). We use the same framework for describing general research domains. Some areas of research in character strengths are soaring with more than 25 studies (e.g., workplace/organizations), some are emerging with a handful of studies (e.g., health/medicine), and others are ripe with potential that have none or few studies yet opportunity looms large for integrating character science (e.g., peace/conflict studies). Using this framework, we seek to advance the exchange and collaboration between researcher and practitioner, as well as to advance the science and practice of character strengths. (shrink)

Originally published in 1983. This book concentrates on the impact of philosophy of science on sociology and other disciplines. It argues that the impact of the philosophy of science on sociology from the rise of the Vienna Circle until the mid-1980s resulted in a deep-reaching and, in the author’s view, undesirable methodological reorientation in sociology.

Visualizations used in the practice of neuroscience, as one example of a scientific practice, can be sorted according to whether they represent (A) actual things, (B) theoretical models, or (C) some integration of these two. In this paper I hypothesize that an assessment of a chain of visual representations from (A) through (C) to (B) (and back again) is used, as part of the practice of scientific judgment, to assess the adequacy of the "working fit" between the (...) theoretical model and the actual thing or process that the model is intended to explain. (shrink)

Visualizations used in the practice of neuroscience, as one example of a scientific practice, can be sorted according to whether they represent actual things, theoretical models, or some integration of these two. In this paper I hypothesize that an assessment of a chain of visual representations from through to is used, as part of the practice of scientific judgment, to assess the adequacy of the "working fit" between the theoretical model and the actual thing or process that (...) the model is intended to explain. (shrink)

Science appeared in modern Greece in the first decades after its establishment as a sovereign state in 1828. The University of Athens, the Royal Observatory, the Botanical Garden, and the Natural History Museum were quickly established as spaces of scientific activity. Greek scientists were enthusiastic participants in the emerging Greek public sphere, often not only as science experts, but also as poets, intellectuals and political personae. In a space whose cultural, intellectual and historical boundaries were still being negotiated, (...) the choice of language was not a given but a pressing, sensitive national desideratum. This article examines how Greek scientists used languages to communicate with their peers and with their publics, how they handled terminology and nomenclature, and how the issues surrounding the Greek language in particular affected their practice as scientists. The article aims to show that, in nineteenth-century Greece, languages were not passive, neutral vehicles of communication, but rather integral components of the practice of science. (shrink)

Numerous scholarly works focus solely on scientific metaphysics or biological practice, but few attempt to bridge the two subjects. This volume, the latest in the Minnesota Studies in the Philosophy of Science series, explores what a scientific metaphysics grounded in biological practices could look like and how it might impact the way we investigate the world around us. From Biological Practice to Scientific Metaphysics examines how to reconcile the methods of biological practice with the methods of (...) metaphysical cosmology, notably regarding the origins of life. The contributors take up a wide range of traditional metaphysics and philosophy of science topics, including natural kinds, medicine, ecology, genetics, scientific pluralism, reductionism, operationalism, mechanisms, the nature of information, and more. Many of the chapters represent the first philosophical treatments of significant biological practices. From causality and complexity to niche constructions and inference, the contributors review and discuss long-held objections to metaphysics by natural scientists. They illuminate how, in order to learn about the world as it truly is, we must look not only at what scientists say but also what they do: for ontology cannot be read directly from scientific claims. (shrink)

The traditional sciences have always had trouble with ambiguity. To overcome this barrier, ‘science’ has imposed “enabling constraints”—hidden assumptions which are given the status of ceteris paribus. Such assumptions allow ambiguity to be bracketed away at the expense of transparency. These enabling constraints take the form of uncritically examined presuppositions, which we refer to throughout the article as “uceps.” The meanings of the various uceps are shown via their applicability to the science of climate change. Second order (...) class='Hi'>science examines variations in values assumed for these uceps and looks at the resulting impacts on related scientific claims. Second order science reveals hidden issues, problems and assumptions which all too often escape the attention of the practicing scientist. This article lays out initial foundations for second order science, its ontology, methodology, and implications. (shrink)

The general framework of this paper relies on the observation that the practice of science as an experimental research program involves a social network of subjects working together, both as co-researchers and as co-subjects of experiments. We want to take this basic observation seriously in order to explore how the objectivity of scientific results obtained thereby is highly affected and dependent on multifarious ‘intersubjective regulations.’ By intersubjective regulations we mean the different ways in which each subject/ researcher is (...) able to account for his or her experience and share it with other subjects/researchers to the point of giving way to a re-styled objectivity founded on such ruled inter-individual practices : More specifically, ‘third-person’ protocols are not neutral, that is, true independently of the very situatedness of each subject in its own individuated space and time, but must take into consideration ‘first-person’ accounts and furthermore are inherently dependent on specific ‘second-person’ validations. (shrink)

Many commentators suppose that the principles of Aristotle’s Politics are received from his theoretical works. Yet this way of understanding the Politics does not sufficiently appreciate Aristotle’s division of sciences, and it obscures the relevance of his political reflections for our time. We argue that Aristotle’s treatment of the polis and all it entails does not require his natural science and the principles of theoretical fields. Instead, despite wording that recalls theoretical treatises, Aristotle is careful to develop his political (...) argumentation without any such dependence. (shrink)

Bridging the gap between the world of science and the realm of the spiritual, B. Alan Wallace introduces a natural theory of human consciousness that has its roots in contemporary physics and Buddhism. Wallace's "special theory of ontological relativity" suggests that mental phenomena are _conditioned_ by the brain, but do not _emerge_ from it. Rather, the entire natural world of mind and matter, subjects and objects, arises from a unitary dimension of reality that is more fundamental than these dualities, (...) as proposed by Wolfgang Pauli and Carl Jung. To test his hypothesis, Wallace employs the Buddhist meditative practice of _samatha_, refining one's attention and metacognition, to create a kind of telescope to examine the space of the mind. Drawing on the work of the physicist John Wheeler, he then proposes a more general theory in which the participatory nature of reality is envisioned as a self-excited circuit. In comparing these ideas to the Buddhist theory known as the Middle Way philosophy, Wallace explores further aspects of his "general theory of ontological relativity," which can be investigated by means of _vipasyana_, or insight, meditation. Wallace then focuses on the theme of symmetry in reference to quantum cosmology and the "problem of frozen time," relating these issues to the theory and practices of the Great Perfection school of Tibetan Buddhism. He concludes with a discussion of the general theme of complementarity as it relates to science and religion. The theories of relativity and quantum mechanics were major achievements in the physical sciences, and the theory of evolution has had an equally deep impact on the life sciences. However, rigorous scientific methods do not yet exist to observe mental phenomena, and naturalism has its limits for shedding light on the workings of the mind. A pioneer of modern consciousness research, Wallace offers a practical and revolutionary method for exploring the mind that combines the keenest insights of contemporary physicists and philosophers with the time-honored meditative traditions of Buddhism. (shrink)

Unity of science was once a very popular idea among both philosophers and scientists. But it has fallen out of fashion, largely because of its association with reductionism and the challenge from multiple realisation. Pluralism and the disunity of science are the new norm, and higher-level natural kinds and special science laws are considered to have an important role in scientific practice. What kind of reductionism does multiple realisability challenge? What does it take to reduce one (...) phenomenon to another? How do we determine which kinds are natural? What is the ontological basis of unity? In this Element, Tuomas Tahko examines these questions from a contemporary perspective, after a historical overview. The upshot is that there is still value in the idea of a unity of science. We can combine a modest sense of unity with pluralism and give an ontological analysis of unity in terms of natural kind monism. This title is available as Open Access on Cambridge Core. (shrink)

In this paper we will present the philosopher Friedrich Nietzsche’s main reflections on the scientific enterprise, its relation to the metaphysical tradition, and how the German author drew on the nineteenth century cosmological discussion to develop a worldview that ultimately endorses a dynamic and more creative form of science, whose representations and values should not be separated from human interests.

Philosophers, historians, and sociologists of science have grown interested in the daily practices of scientists. Recent studies have drawn linkages between scientific innovations and more ordinary procedures, craft skills, and sources of sponsorship. These studies dispute the idea that science is the application of a unified method or the outgrowth of a progressive history of ideas. This book critically reviews arguments and empirical studies in two areas of sociology that have played a significant role in the 'sociological turn' (...) in science studies: ethnomethodology and the sociology of scientific knowledge. In both fields, efforts to study scientific practices have led to intractable difficulties and debates, due in part to scientistic and foundationalist commitments that remain entrenched with social-scientific research policies and descriptive language. The central purpose of this book is to explore the possibility of an empirical approach to the epistemic contents of science that avoids the pitfalls of scientism and foundationalism. (shrink)

The term ‘scientism’ has not attracted consensus about its meaning or about its scope of application. In this paper, we consider Mizrahi’s suggestion to distinguish ‘Strong’ and ‘Weak’ scientism, and the consequences this distinction may have for philosophical methodology. While we side with Mizrahi that his definitions help advance the debate, by avoiding verbal dispute and focussing on questions of method, we also have concerns about his proposal as it defends a hierarchy of knowledge production. Mizrahi’s position is that Weak (...) Scientism should be adopted, stating that “of all the knowledge we have, scientific knowledge is the best knowledge”. This version of scientism, however, has consequences for philosophical methodology. In particular, if one conceives of philosophy as an a priori discipline and holds Weak Scientism, the introduction of empirical methods in philosophy may threaten its very essence or soul. In this chapter, we will defend the move to adopt empirical methods in philosophy and argue that, rather than threatening its essence or soul, these methods put philosophy in a better position to contribute to knowledge production, an endeavor shared with the sciences, and in a very interdisciplinary spirit. Our point of disagreement with Mizrahi is that we should avoid any hierarchy of knowledge, and instead focus on what each perspective -- scientific, philosophical, historical, or other -- can contribute to understanding phenomena. (shrink)

Frederick Grinnell’s “Everyday Practice of Science” is an ambitious attempt to survey the methodological issues facing practicing scientists. His examples and anecdotes are mainly drawn from his own field of biochemistry, which he argues is representative of the scientific method in general because, quoting Nobel Laureate Sir Peter Medawar, “Biologists work very close to the frontier between bewilderment and understanding.”(p.4) Grinnell’s goal is to explore the ambiguity and messiness of actual scientific practice, but not with an eye (...) to undermine its credibility. Rather, he tries to show how the day-to-day practice of science functions to generate reliable hypotheses from the complexity of reality. (shrink)

The “practice turn” in philosophy of science has strengthened the connections between philosophy and scientific practice. Apart from reinvigorating philosophy of science, this also increases the relevance of philosophical research for science, society, and science education. In this paper, we reflect on our extensive experience with teaching mandatory philosophy of science courses to science students from a range of programs at University of Copenhagen. We highlight some of the lessons we have learned (...) in making philosophy of science “fit for teaching” outside of philosophy circles by taking selected cases from the students’ own field as the starting point. We argue for adapting philosophy of science teaching to particular audiences of science students, and discuss the benefits of drawing on research within science education to inform curriculum and course design. This involves reconsidering teaching resources, assumptions about students, intended learning outcomes, and teaching formats. We also argue that to make philosophy of science relevant and engaging to science students, it is important to consider their potential career trajectories. By anticipating future contexts and situations in which methodological, conceptual, and ethical questions could be relevant, philosophy of science can demonstrate its value in the education of science students. (shrink)

The present work aims to present the notion of eidetic agency as a novel account for the understanding of an epistemic normativity based on practices. The eidetic agency (Fonseca, 2020) and (Fonseca, 2023) is a modality of material agency that, scaffolded and extensively, delegates epistemic agency to formal artifacts that become evident in the materiality of the signifiers of artificial languages. Such eidetic artifacts constitute an epistemic normativity that, although it is based on implicit practices and norms of scientific practices, (...) overcome certain problems derived from that reading. The first section of the text presents a definition and general analysis of the project of a normative epistemology based on practices. In the second part, the relationship between practices in science and scientific regulations is deeply analyzed, based on the premises of Martínez and Huang (2011). Finally, a possible solution to the theoretical problems derived from such reading is proposed, with the approach of an epistemic normativity based on eidetic agents. (shrink)

Scientific realism is the optimistic view that modern science is on the right track: that the world really is the way our best scientific theories describe it. In his book, Stathis Psillos gives us a detailed and comprehensive study which restores the intuitive plausibility of scientific realism. We see that throughout the twentieth century, scientific realism has been challenged by philosophical positions from all angles: from reductive empiricism, to instrumentalism and to modern sceptical empiricism. _Scientific Realism_ explains that the (...) history of science does not undermine the arguments for scientific realism, but instead makes it reasonable to accept scientific realism as the best philosophical account of science, its empirical success, its progress and its practice. Anyone wishing to gain a deeper understanding of the state of modern science and why scientific realism is plausible, should read this book. (shrink)