The idea of dignity seems indissociable from that of humanity, whether in its universal dimension of ‘human dignity’, or in the individual ‘dignity of the person’. This paper provides an outlook on the ethics governing the sciences and technology, in particular the biological sciences and biotechnology, and recalls the notion of ‘glory’, both human and divine, as it infuses a great part of the Middle Ages and the Renaissance cultures, just before the scientific revolution in Europe.

The article explores epistemic and social conditions of the trustworthiness of scientific expertise. I claim that there are three kinds of conditions for the trustworthiness of scientific expertise. The first condition is epistemic and means that scientific knowledge enjoys high credibility. The second condition concerns the significance of scientific knowledge. It means that scientific generalizations are relevant for elucidating the particular cases that constitute the challenges for expert judgment. The third condition concerns the (...) social processes involved in producing science-based recommendations. In this context trust is created by social robustness, expert legitimacy, and social participation. (shrink)

Originally published in 1974. Scientific Knowledge and Sociological Theory centres on the problem of explaining the manifest variety and contrast in the beliefs about nature held in different groups and societies. It maintains that the sociologist should treat all beliefs symmetrically and must investigate and account for allegedly "correct" or "scientific" beliefs just as he would "incorrect" or "unscientific" ones. From this basic position a study of scientific beliefs is constructed. The sociological interest of such beliefs (...) is illustrated and a sociological perspective upon scientific change is developed. (shrink)

The aim of this book is to understand and critically appraise science-based transgression dynamics in their whole complexity. It includes contributions from experts with different disciplinary backgrounds, such as philosophy, history and sociology. Thus, it is in itself an example of boundary transgression. Scientific disciplines and their objects have tended to be seen as permanent and distinct. However, science is better conceived as an activity that constantly surpasses, erases and rebuilds all kinds of boundaries, either disciplinary, socio-ethical or ecological. (...) This transgressive capacity, a characteristic trait of science and its applications, defines us as "knowledge societies." However, scientific and technological developments are also sources of serious environmental and social concerns. Contents Disciplinary Transgression of Boundaries - Extra-Disciplinary Transgression of Boundaries - Radical Transgression of Boundaries Target Groups Scientists and students of philosophy, sociology, history of science, and interdisciplinary fields such as technology assessment, sustainable development, science and technology studies - Practitioners in research management Editors Bettina-Johanna Krings (MA in sociology, political science and anthropology; PhD in sociology) is head of the research department "Knowledge Society and Knowledge Policy" at the Institute for Technology Assessment and Systems Analysis (ITAS) at the Karlsruhe Institute of Technology (KIT). Hannot Rodríguez (PhD in philosophy) is Assistant Professor at the Department of Philosophy of the University of the Basque Country UPV/EHU. Anna Schleisiek (Dipl.-Soz.) is doing research on the role of economic principles in the scientific practice of research teams for her PhD project in sociology. <. (shrink)

Although science was once seen as the product of individual great men working in isolation, we now realize that, like any other creative activity, science is a highly social enterprise, influenced in subtle as well as obvious ways by the wider culture and values of its time. Scientific Knowledge is the first introduction to social studies of scientific knowledge. The authors, all noted for their contributions to science studies, have organized this book so that each chapter (...) examines a key step in the process of doing science. Using case studies from cognitive science, physics, and biology to illustrate their descriptions and applications of the social study of science, they show how this approach provides a crucial perspective on how science is actually done. Scientific Knowledge will be of interest not only to those engaged in science studies, but also to anyone interested in the practice of science. (shrink)

It is often said that knowledge is power, but more often than not relevant knowledge is not used when political decisions are made. This book examines how political decisions relate to scientific knowledge and what factors determine the success of scientific research in influencing policy. The authors take a comparative and historical perspective and refer to well-known theoretical frameworks, but the focus of the book is on three case studies: the discourse of racism, Keynesianism, and (...) climate change. These cases cover a number of countries and different time periods. In all three the authors see a close link between 'knowledge producers' and political decision makers, but show that the effectiveness of the policies varies dramatically. This book will be of interest to scientists, decision makers and scholars alike. (shrink)

Historical sciences like paleontology and archaeology have uncovered unimagined, remarkable and mysterious worlds in the deep past. How should we understand the success of these sciences? What is the relationship between knowledge and history? In Scientific Knowledge and the Deep Past: History Matters, Adrian Currie examines recent paleontological work on the great changes that occurred during the Cretaceous period - the emergence of flowering plants, the splitting of the mega-continent Gondwana, and the eventual fall of the dinosaurs (...) - to analyse the knowledge of historical scientists, and to reflect upon the nature of history. He argues that distinctively historical processes are 'peculiar': they have the capacity to generate their own highly specific dynamics and rules. This peculiarity, Currie argues, also explains the historian's interest in narratives and stories: the contingency, complexity and peculiarity of the past demands a narrative treatment. Overall, Currie argues that history matters for knowledge. (shrink)

In “Scientific Knowledge,” Philip Kitcher challenges arguments that deny the truth of the theoretical claims of science, and he attempts to discover reasons for endorsing the truth of such claims. He suggests that the discovery of such reasons might succeed if we ask why anyone thinks that the theoretical claims we accept are true and then look for answers that reconstruct actual belief‐generating processes. To this end, Kitcher presents the “homely argument” for scientific truth, which claims that (...) when a field of science is continually applied to yield precise predictions, then it is at least approximately true. He defends this approach and offers a supplementary account that gives more attention to detail. This account includes a historical aspect that must answer to skeptical challenges and a social aspect. (shrink)

In this article, I address the question of whether science can and should be seen as a common good. For this purpose, the first section focuses on the notion of knowledge and examines its main characteristics. I discuss and assess the core view of analytic epistemology, that knowledge is, basically, justified true belief. On the basis of this analysis, I then develop an alternative, multi-dimensional theory of the nature of knowledge. Section 2 reviews and evaluates several answers (...) to the question of what to understand by the notion of a common good. It discusses both economic and socio-political interpretations of this notion. In Section 3, I develop an alternative account of the common good of scientific knowledge. This knowledge constitutes a common good if it is both non-exhaustible and in the public interest. The two notions are equally important, but in this article, the focus is on the former. For reasons of space, a detailed discussion of the latter is impossible; it will be provided in a forthcoming book. My answer to the question posed in the title of this article builds on the critical discussion of extant views in Sections 1 and 2: some aspects of these views are included in this alternative account, while others are shown to be unhelpful or untenable. The final section discusses some practical implications of this account for the politics of science. The main conclusion is that scientific research should not be privatized through patenting its products. (shrink)

In his latest attack, even though he claims to be a practitioner of “close reading” (Wills 2018b, 34), it appears that Wills still has not bothered to read the paper in which I defend the thesis he seeks to attack (Mizrahi 2017a), or any of the papers in my exchange with Brown (Mizrahi 2017b; 2018a), as evidenced by the fact that he does not cite them at all. This explains why Wills completely misunderstands Weak Scientism and the arguments for the (...) quantitative superiority (in terms of research output and research impact) as well as qualitative superiority (in terms of explanatory, predictive, and instrumental success) of scientific knowledge over non-scientific knowledge. (shrink)

Philosophical debates about collective scientific knowledge concern two distinct theses: groups are necessary to produce scientific knowledge, and groups have scientific knowledge in their own right. Thesis has strong support. Groups are required, in many cases of scientific inquiry, to satisfy methodological norms, to develop theoretical concepts, or to validate the results of inquiry as scientific knowledge. So scientific knowledge‐production is collective in at least three respects. However, support for (...) is more equivocal. Though some examples suggest that groups have scientific knowledge independently of their individual members, these cases are also explained in terms of relational complexes of members’ beliefs. (shrink)

This book aims to provide scientists and engineers, and those interested in scientific issues, with a concise account of how the nature of scientific knowledge evolved from antiquity to a seemingly final form in the Twentieth Century that now strongly limits the knowledge that people would like to gain in the Twenty-first Century. Some might think that such issues are only of interest to specialists in epistemology (the theory of knowledge); however, today's major scientific (...) and engineering problems--in biology, medicine, environmental science, etc.--involve enormous complexity, and it is precisely this complexity that runs up against the limits of what is scientifically knowable. To understand the issue, one must appreciate the radical break with antiquity that occurred with the birth of modern science in the Seventeenth Century, the problems of knowledge and truth engendered by modern science, and the evolution of scientific thinking through the Twentieth Century. While originally aimed at practicing scientists and engineers, it is my hope that this book can provide a generally educated person with a basic understanding of how our perspective on scientific knowledge has evolved over the centuries to escape pre-Galilean commonsense thinking. Such an appreciation is not only beneficial for one's general education, but is important for non-scientists who must teach young students or make policy decisions in government or business. (shrink)

I argue that scientific knowledge is collective knowledge, in a sense to be specified and defended. I first consider some existing proposals for construing collective knowledge and argue that they are unsatisfactory, at least for scientific knowledge as we encounter it in actual scientific practice. Then I introduce an alternative conception of collective knowledge, on which knowledge is collective if there is a strong form of mutual epistemic dependence among scientists, which (...) makes it so that satisfaction of the justification condition on knowledge ineliminably requires a collective. Next, I show how features of contemporary science support the conclusion that scientific knowledge is collective knowledge in this sense. Finally, I consider implications of my proposal and defend it against objections. (shrink)

This paper investigates the applicability of reliabilism to scientific knowledge, and especially focuses on two doubts about the applicability: one about its difficulty in accounting for the epistemological role of scientific instruments, and the other about scientific theories. To respond to the two doubts, we extend virtue reliabilism, a reliabilist-based virtue epistemology, with a distinction of two types of epistemic virtues and the extended mind thesis from Clark and Chalmers (Analysis 58:7–19, 1998 ). We also present (...) a case study on the quantitative research methodology of social sciences to show that the methodology is actually an extended virtue reliabilism on how social science instruments and theories contribute to the formation of social scientific knowledge. (shrink)

The paper examines one implication of pluralism, the view that all values are conditional and none are overriding. This implication is that since scientific knowledge is one of the conditional values, there are circumstances in which the pursuit of even the most basic scientific knowledge is legitimately curtailed. These circumstances occur when the pursuit of scientific knowledge conflicts with moral and political values which, in that context, are more important than it. The argument focuses (...) on the case for and against space exploration in search of intelligent extraterrestrial life. The widely held supposition that search for pure scientific knowledge cannot be reasonably curtailed is identified as the fallacy of overriding values. (shrink)

This book offers a comprehensive and accessible introduction to the epistemology of science. It not only introduces readers to the general epistemological discussion of the nature of knowledge, but also provides key insights into the particular nuances of scientific knowledge. No prior knowledge of philosophy or science is assumed by The Nature of Scientific Knowledge. Nevertheless, the reader is taken on a journey through several core concepts of epistemology and philosophy of science that not (...) only explores the characteristics of the scientific knowledge of individuals but also the way that the development of scientific knowledge is a particularly social endeavor. The topics covered in this book are of keen interest to students of epistemology and philosophy of science as well as science educators interested in the nature of scientific knowledge. In fact, as a result of its clear and engaging approach to understanding scientific knowledge The Nature of Scientific Knowledge is a book that anyone interested in scientific knowledge, knowledge in general, and any of a myriad of related concepts would be well advised to study closely. (shrink)

Early modern commentaries on Aristotle’s Metaphysics contain a lively debate on whether experience is ‘rational’, so that it may count as ‘proto-knowledge’, or whether experience is ‘non-rational’, so that experience must be regarded as a primarily perceptual process. If experience is just a repetitive apprehension of sensory contents, the connection of terms in a scientific proposition can be known without any experiential input, as the ‘non-rational’ Scotists state. ‘Rational’ Thomists believe that all principles of scientific knowledge (...) must rely on experiential data, because experience consists in an apprehension of facts rather than objects. And it is only apprehension of facts that can justify knowledge of principles. In this context, the role of mathematical knowledge is special, because it is self-evident. So Thomists must either show that mathematical principles do rely on experience, or that they do not express knowledge claims. (shrink)

I. Science, myth, magic: three components of knowledge, in other words three types of activity in man who, in interaction with his surrounding environment seeks to accomodate himself to the constraints which this environment imposes on him while at the same time seeing to his own immediate or far-reaching needs.

In Posterior Analytics 71b9 12, we find Aristotle’s definition of scientific knowledge. The definiens is taken to have only two informative parts: scientific knowledge must be knowledge of the cause and its object must be necessary. However, there is also a contrast between the definiendum and a sophistic way of knowing, which is marked by the expression “kata sumbebekos”. Not much attention has been paid to this contrast. In this paper, I discuss Aristotle’s definition paying (...) due attention to this contrast and to the way it interacts with the two conditions presented in the definiens. I claim that the “necessity” condition ammounts to explanatory appropriateness of the cause. (shrink)

Scientific knowledge-building is the consequence of a relational process, not of an utilitarian socio-economic process. Translation theory expresses the way in which science is constructed and used as a social link. In fact, translation theory contends that scientific knowledge is somehow governed by the logic of exchange. This logic of exchange would ultimately be the source of science and well being and characterize the way in which science and technology work in our contemporary world especially regarding (...) healing processes through mobilising a kind of hidden energy. (shrink)

What Is Scientific Knowledge? is a much-needed collection of introductory-level chapters on the epistemology of science. Renowned historians, philosophers, science educators, and cognitive scientists have authored 19 original contributions specifically for this volume. The chapters, accessible for students in both philosophy and the sciences, serve as helpful introductions to the primary debates surrounding scientific knowledge.First-year undergraduates can readily understand the variety of discussions in the volume, and yet advanced students and scholars will encounter chapters rich enough (...) to engage their many interests. The variety and coverage in this volume make it the perfect choice for the primary text in courses on scientific knowledge. It can also be used as a supplemental book in classes in epistemology, philosophy of science, and other related areas. (shrink)

Representation of scientific knowledge in ontologies suffers so often from the lack of computational knowledge required for inference. This article aims to perform quantitative analysis on physical systems, that is, to answer questions about values of quantitative state variables of a physical system with known structure. For this objective, we incorporate procedural knowledge on two distinct levels. At the domain-specific level, we propose a representation model for scientific knowledge, i.e. variables, theories, and laws of (...) nature. At the domain-independent level, we provide an algorithm which, given a system S with known structure and a relevant scientific theory T, extracts a constraint network, whose variables are state variables of S defined by T, and whose constraints raise from relevant laws in T. The constraint network is then solved, to build a system of equations whose unknowns are the output variables of S. The proposed representation model and reasoning algorithm are evaluated by applying them to classic analysis examples. (shrink)

With increasing publication and data production, scientific knowledge presents not simply an achievement but also a challenge. Scientific publications and data are increasingly treated as resources that need to be digitally ‘managed.’ This gives rise to scientific Knowledge Management : second-order scientific work aiming to systematically collect, take care of and mobilise first-hand disciplinary knowledge and data in order to provide new first-order scientific knowledge. We follow the work of Leonelli, Efstathiou (...) and Hislop in our analysis of the use of KM in semantic systems biology. Through an empirical philosophical account of KM-enabled biological research, we argue that KM helps produce new first-order biological knowledge that did not exist before, and which could not have been produced by traditional means. KM work is enabled by conceiving of ‘knowledge’ as an object for computational science: as explicated in the text of biological articles and computable via appropriate data and metadata. However, these founded knowledge concepts enabling computational KM risk focusing on only computationally tractable data as knowledge, underestimating practice-based knowing and its significance in ensuring the validity of ‘manageable’ knowledge as knowledge. (shrink)

I examine whether or not it is apt to attribute knowledge to groups of scientists. I argue that though research teams can be aptly described as having knowledge, communities of scientists identified with research fields, and the scientific community as a whole are not capable of knowing. Scientists involved in research teams are dependent on each other, and are organized in a manner to advance a goal. Such teams also adopt views that may not be identical to (...) the views of the individual members of the group. (shrink)

Francis Remedios provides important criticisms of Fuller's position and Fuller's responses to philosophical debates, as well as reconstructions of Fuller's arguments. The result is a carefully argued, in-depth analysis of the work of a very important philosopher of science."--Jacket.

Pragmatism of Peirce and James overcomed traditional dualism between mind and matter, sense data and conceptions, and the severe differentiation between philosophy, science, art and religion. They made three types of synthesis- epistemological, metaphysical and religious, based on relations between belief, thought, and action. Within the framework of these the problem of relation between science and religion is solved. Peirce founded science on essentially religious metaphysics in such context in which knowledge and thought are grounded and become meaningful. Science (...) exists as a part of evolution of the universe not as end in itself. Without solving the metaphysical problems scientific knowledge is fallible and incomplete. Religious belief is another sort of knowledge for the evolution and in the future it would converge with science. -/- . (shrink)

Scientific cognitivism, a main position in Western environmental aesthetics, claims scientific knowledge plays a major role in the aesthetic appreciation of nature. However, the claim is controversial. This study reexamines the history of United States environmental attitudes around the nineteenth century and claims art has played the main role in nature appreciation, even with the emphasis on scientific knowledge. This paper proposes a tri-stage, Scientific Knowledge-Aesthetic Value Transformation Model and argues nature appreciation is (...) indirectly related to knowledge. Scientific knowledge plays a part in the first, pre-appreciation stage and helps build the impression of nature that bridges scientific cognition with aesthetic appreciation in the second, impression-rebuilt stage. Finally, the engagement model is required in the third, appreciation stage. This paper also presents a two-dimensional evaluation criterion to assess various approaches of nature appreciation and artworks. (shrink)

We have two theses about scientific knowledge in the age of computation. Our general claim is that scientific Knowledge Management practices emerge as second-order practices whose aim is to systematically collect, take care of and mobilise first-hand disciplinary knowledge and data. Our specific thesis is that knowledge management practices are transforming biological research in at least three ways. We argue that scientific Knowledge Management a. operates with founded concepts of biological knowledge (...) as explicated and computable, b. enables new outputs and ways of knowing within biology, and c. risks enforcing objectivist epistemologies of knowledge as some one objective thing. (shrink)

Large research collaborations constitute an increasingly prevalent form of social organization of research activity in many scientific fields. In the last decades, the concept of distributed cognition has provided a suitable basis for thinking about collective knowledge in the philosophy of science. Karin Knorr-Cetina’s and Ronald Giere’s analyses of high energy physics experiments are the most prominent examples. Although they both conceive the processes of knowledge production in these experiments in terms of distributed cognition, their accounts regarding (...) the epistemic subject of knowledge thus produced are quite different. While Knorr-Cetina argues for an irreducibly collective subject, Giere argues for eliminating the epistemic subject and opting for using the passive voice in describing collectively produced knowledge. Neither of these views are easy to assimilate within an epistemological account, since epistemology traditionally operates within an individualist framework. They both entail that we should deny knowledge to individuals when the processes of knowledge production are distributed. I will argue that epistemology should be extended in a way that can accommodate collectively produced knowledge, but that we would have a serious problem if we deny scientific knowledge to individuals. If the members of a large collaboration cannot be said to know, we have to accept the absurd conclusion that either no one or only a supra-individual entity learns from the most successful research collaborations we have. I will argue instead for conceiving research collaborations in terms of a cognitive system that produces knowledge, which can eventually be possessed by constituent individuals when certain conditions are met. Firstly, the distributed research process should be reliable in producing scientific evidence and secondly, there should be a reliable distributed process of criticism for scrutinizing the reliability of the scientific evidence that is collectively produced. I will analyze both conditions in terms of distributed first-order and second-order justification, where I put forward a reliabilist account of justification that is compatible with epistemic dependence. I will conclude that the notion of justified epistemic dependence enables us to attribute knowledge to individuals when knowledge production is irreducibly social. (shrink)

We examine the relationship between scientific knowledge and the legal system with a focus on the exclusion of expert testimony from trial as ruled by the Daubert standard in the US.We introduce a simple framework to understand and assess the role of judges as “gatekeepers”, monitoring the admission of science in the courtroom. We show how judges face a crucial choice, namely, whether to limit Daubert assessment to the abstract reliability of the methods used by the expert witness (...) or also to check whether the application of those methods was correct. Undesirable outcomes result from both choices, thereby giving rise to the “gatekeeper’s dilemma.” We illustrate the dilemma by analyzing in some detail two well-known cases of Daubert challenges to economic experts. Finally, we present reasons for the absence of straightforward solutions to the dilemma and for its likely endurance. (shrink)

Science and scientific knowledge have been questioned in many ways for a long period of time. Especially, after the scientific revolution of 16th- and 17th-century Europe, science and its knowledge have been mainly accepted one of the most valuable and trustable information. However, in 20th century, autonomy of scientific knowledge and its dominant position over other kinds of knowledge have been mainly criticised. Social and other factors that were tried to be excluded before (...) have been incorporated into the work by the influence of the Strong Programme. In this article, it will be argued that while people are presenting scientific knowledge, their interests, beliefs and the communities they are involved in are also shown to be effective in producing this information. Thus, the desired result is that it is not reasonable to talk about the absolute autonomy of scientific knowledge. (shrink)

From antiquity to the end of the twentieth century, philosophical discussions of understanding remained undeveloped, guided by a 'received view' that takes understanding to be nothing more than knowledge of an explanation. More recently, however, this received view has been criticized, and bold new philosophical proposals about understanding have emerged in its place. In this book, Kareem Khalifa argues that the received view should be revised but not abandoned. In doing so, he clarifies and answers the most central questions (...) in this burgeoning field of philosophical research: what kinds of cognitive abilities are involved in understanding? What is the relationship between the understanding that explanations provide and the understanding that experts have of broader subject matters? Can there be understanding without explanation? How can one understand something on the basis of falsehoods? Is understanding a species of knowledge? What is the value of understanding? (shrink)

Knowledge does not exist as an isolated “piece” of knowledge. Knowledge exists in an aggregated collective state. I define knowledge as a capacity for social action and as a model for reality, as the possibility to set “something in motion”, for example, to solve a task, to produce a material object such as a semiconductor chip or to be competent to prevent something from occurring, for example, the onset of an illness. In this sense, knowledge (...) is a universal human phenomenon, or an anthropological constant. This definition of the term “knowledge” is indebted to Francis Bacon’s famous observation that knowledge is power, a somewhat misleading translation of Bacon’s Latin phrase: scientia potential est. A basic assumption should be that knowledge is not a priori practical. The transformation of knowledge as an ability to act into practical knowledge requires congenial circumstances, such as power or authority that dictates the concrete conditions for action. In this con text, it is helpful to ask about the increasingly prominent role of algorithms (intellectual technology) in relation to knowledge such as ChatGPT software as well as contentious issue of the relation/difference between knowledge and information. (shrink)

The paper highlights the contemporary discussions on the concept of objectivity in feminist epistemology, in which it is taken in its historical development. Following the works of S. Harding, L. Code, D. Haraway, L. Daston. J. Tannoch-Bland and others the author focuses mainly on one of the topics in feminist epistemology, namely the problematic of the so called "situated knowledge" as related to the objectivity of knowledge. The paper also gives a brief outline of the transformation of "aperspective (...) objectivity" and its becoming a "perspective objectivity", which is closely related to the conception of a situated knowledge as the basis of the feminist standpoint theory. Attention is paid also to the concept of "strong objectivity", in which the ontological importance of the objectivity is stressed and the empirical-realistic core of the standpoint epistemology preserved. (shrink)