Prandtl's work on the boundary layer theory is an interesting example for illustrating several important issues in philosophy of science such as the relation between theories and models and whether it is possible to distinguish, in a principled way, between pure and applied science. In what follows I discuss several proposals by the symposium participants regarding the interpretation of Prandtl's work and whether it should be characterized as an instance of applied science. My own interpretation (...) of this example (1999) emphasised the degree of autonomy embedded in Prandtl's boundary layer model and the way it became integrated in the larger theoretical context of hydrodynamics. In addition to extending that discussion here I also claim that the characterization of applied science which formed the basis for the symposium does not enable us to successfully distinguish applied science from the general practice of 'applying' basic scientific knowledge in a variety of contexts. (shrink)

In this empirical study, we investigate _what_ and _how_ teachers in Dutch universities of applied sciences (UAS) think they contribute to the development of students’ ethical compasses. Six focus groups were conducted with teachers across three programmes: Initial Teaching Education, Business Services, and Information and Communication Technology. This study revealed that teachers across the three different professional disciplines shared similar ideas about what should be addressed in the development of students’ ethical compasses. Their contributions were grouped into three core (...) themes: creating students’ moral awareness, developing students’ moral skills and promoting students’ moral professional behaviour. The majority of the teachers used a wide range of planned and unplanned pedagogic–didactic actions (reflecting individual learning and cooperative and group learning) to enhance the development of students’ ethical compasses. However, teachers’ strategies were mostly unstructured and unreflective and depended on the individual teacher’s ability and knowledge to address moral themes. Furthermore, the study revealed two incompatible ideals: as role models, the teachers aimed to exemplify explicitly how to be a professional with an ethical compass. However, they also wanted to adopt a neutral stance because they were afraid to manipulate the students’ ethical compasses. Therefore, they avoided promoting _the_ ethical compass that they believed to be the best. (shrink)

In pure science, the standard approach to non-epistemic values is to exclude them as far as possible from scientific deliberations. When science is applied to practical decisions, non-epistemic values cannot be excluded. Instead, they have to be combined with scientific information in a way that leads to practically optimal decisions. A normative model is proposed for the processing of information in both pure and applied science. A general-purpose corpus of scientific knowledge, with high entry requirements, (...) has a central role in this model. Due to its high entry requirements, the information that it contains is sufficiently reliable for the vast majority of practical purposes. However, for some purposes, the corpus needs to be supplemented with additional information, such as scientific indications of danger that do not satisfy the entry requirements for the corpus. The role of non-epistemic values in the evaluation of scientific information should, as far as possible, be limited to determining the level of evidence required for various types of practical decisions. (shrink)

(1) For much of this century, moral philosophy has been constrained by the supposed absolute gap between is andought, and the consequent belief that the facts of life cannot of themselves yield an ethical blueprint for future action. For this reason, ethics has sustained an eerie existence largely apart from science. Its most respected interpreters still believe that reasoning about right and wrong can be successful without a knowledge of the brain, the human organ where all the decisions about (...) right and wrong are made. Ethical premises are typically treated in the manner of mathematical propositions: directives supposedly independent of human evolution, with a claim to ideal, eternal truth. (shrink)

There has been a resurgence between two closely related discussions concerning modern science funding policy. The first revolves around the coherence and usefulness of the distinction between basic and applied science and the second concerns whether science should be free to pursue research according to its own internal standards or pursue socially responsible research agendas that are held accountable to moral or political standards. In this paper, I argue that the distinction between basic and applied (...) science, and the concomitant debate about freedom and social responsibility, require revision. I contend that the distinction can only be maintained in cases of _urgent science_. I go on to elucidate the notion of urgent science using a case study from research of the climate refugee crisis. (shrink)

(1) For much of this century, moral philosophy has been constrained by the supposed absolute gap between is andought, and the consequent belief that the facts of life cannot of themselves yield an ethical blueprint for future action. For this reason, ethics has sustained an eerie existence largely apart from science. Its most respected interpreters still believe that reasoning about right and wrong can be successful without a knowledge of the brain, the human organ where all the decisions about (...) right and wrong are made. Ethical premises are typically treated in the manner of mathematical propositions: directives supposedly independent of human evolution, with a claim to ideal, eternal truth. (shrink)

ABSTRACT Before “applied science” and “technology” became keywords, the concept of art was central to discourse about material culture and its connections to natural knowledge. By the late nineteenth century, a new discourse of applied science had replaced the older discourse of art. This older discourse of art, especially as presented in Enlightenment encyclopedias, addressed the relationship between art and science in depth. But during the nineteenth century the concept of fine art gradually displaced the (...) broader meanings of “art,” thus undermining the utility of the term for discourse on the relationship between knowledge and practice. This narrowed meaning of “art” obscured key aspects of the industrial world. In effect, middle-class agents of industrialism, including “men of science,” used the rhetoric of “applied science” and, later, “technology” to cement the exclusion of artisanal knowledge from the discourse of industrial modernity. (shrink)

In this paper I argue that the appropriate analogy for “understanding what makes simulation results reliable” in global climate modeling is not with scientific experimentation or measurement, but—at least in the case of the use of global climate models for policy development—with the applications of science in applied design problems. The prospects for using this analogy to argue for the quantitative reliability of GCMs are assessed and compared with other potential strategies.

Proponents of empirically supported treatment have argued that psychotherapists have an ethical obligation to make an EST the first choice in clinical practice. This paper challenges this idea. The EST program assumes a model of therapy as technology or applied science that poorly fits the reality of psychotherapeutic practice. The problems brought to therapy implicate fundamental questions regarding what constitutes a good life. A therapeutic response to such problems is not a technical means to change a circumscribed disorder, (...) but an engagement with the client that has relevance to broader moral concerns. Further, the picture of therapy as technology of change implicitly proposes views of a good life, while not acknowledging that it is doing so. 2012 APA, all rights reserved). (shrink)

This chapter contains sections titled: References and Further Reading.

Unlike basic sciences, scientific research in advanced technologies aims to explain, predict, and describe not phenomena in nature, but phenomena in technological artefacts, thereby producing knowledge that is utilized in technological design. This article first explains why the covering‐law view of applying science is inadequate for characterizing this research practice. Instead, the covering‐law approach and causal explanation are integrated in this practice. Ludwig Prandtl’s approach to concrete fluid flows is used as an example of scientific research in the engineering (...) sciences. A methodology of distinguishing between regions in space and/or phases in time that show distinct physical behaviours is specific to this research practice. Accordingly, two types of models specific to the engineering sciences are introduced. The diagrammatic model represents the causal explanation of physical behaviour in distinct spatial regions or time phases; the nomo‐mathematical model represents the phenomenon in terms of a set of mathematically formulated laws. (shrink)

This paper addresses the problem of the distinction between basic science and applied science. It also explores their differences with regard to technology. For this analysis, as well as a general epistemological and methodological approach, we study a particular case: information science. As the emphasis of the paper is on the category of applied science, it includes a critical analysis of Philip Kitcher's proposal. First, there is an examination of Ph. Kitcher's thought, because he (...) has addressed this issue without offering a clear distinction between the various categories. I then consider the contributions of I. Niiniluoto, which determine in a more genuine way the features that distinguish applied science from basic science. Here, I focus on the ideas of H. A Simon on the science of design, to the extent that it is an applied science. This then allows us to shed light on the disciplinary field of information science, which is characterized as an applied science of design. This is a case that shows the need to distinguish three epistemological and methodological domains: basic science, applied science and technology. (shrink)

In this paper I argue that the appropriate analogy for “understanding what makes simulation results reliable” in Global Climate Modeling is not with scientific experimentation or measurement, but—at least in the case of the use of global climate models for policy development—with the applications of science in engineering design problems. The prospects for using this analogy to argue for the quantitative reliability of GCMs are assessed and compared with other potential strategies.

When is a law too idealized to be usefully applied to a specific situation? To answer this question, this essay considers a law in hydrogeology called Darcy''s Law, both as it is used in what is called the symmetric-cone model, and as it is used in equations to determine a well''s groundwater velocity and hydraulic conductivity. After discussing Darcy''s law and its applications, the essay concludes that this idealized law, as well as associated models and equations in hydrogeology, are (...) not realistic in the sense required by the D-N account. They exhibit what McMullin calls mathematical idealization, construct idealization, empirical-causal idealization, and subjunctive-causal idealization. Yet this lack of realism in hydrogeology is problematic for reasons unrelated to the status of the D-N account. These idealizations are also problematic in applied situations. Their problems require developing two supplemental criteria, necessary for their productive application. (shrink)

Regarding the dichotomy between applied science and pure science, there are two apparently paradoxical facts. First, they are distinguishable. Second, the outcomes of pure sciences (e.g. scientific theories and models) are applicable to producing the outcomes of applied sciences (e.g. technological artefacts) and vice versa. Addressing the functional roles of applied and pure science, i.e. to produce design representation and science representation, respectively, I propose a new characterisation of the dichotomy that explains these (...) two facts. (shrink)

The traditional distinction between basic and applied science has been much criticized in recent decades. The criticism is based on a combination of historical and systematic epistemic argument. The present paper is mostly concerned with the historical aspect. I argue that the critics impose an understanding at odds with the way the distinction was understood by its supporters in debates on science education and science policy in the nineteenth and twentieth centuries. And I show how a (...) distinction that refers to difference on several epistemic and social dimensions makes good sense of representative historical cases. If this argument is tenable it suggests more continuity in the epistemology and politics of science than has been claimed by a new paradigm of science studies and politics during recent decades. (shrink)

This essay argues for the historicity of applied science as a contested category within laissez-faire Victorian British science. This distinctively pre-twentieth-century notion of applied science as a self-sustaining, autonomous enterprise was thrown into relief from the 1880s by a campaign on the part of T. H. Huxley and his followers to promote instead the primacy of “pure” science. Their attempt to relegate applied science to secondary status involved radically reconfiguring it as the (...) mere application of pre-existing pure science. This new notion of extrinsically funded pure science that would produce only contingently future social benefits as a mere by-product came under pressure during World War I, when military priorities focused attention once again on science for immediate utility. This threatened the Cambridge-based promoters of self-referential pure science who collectively published Science and the Nation in 1917. Yet most contributors to this work discussed forms of “applied” science that had no prior “pure” form. Even the U.K.'s leading government scientist, Lord Moulton, dismissed the book's provocative distinction between pure and applied science as unhelpfully “vague and artificial.”. (shrink)

How is scientific knowledge used, adapted, and extended in deriving phenomena and real-world systems? This paper aims at developing a general account of 'applying science' within the exemplar-based framework of Data-Oriented Processing (DOP), which is also known as Exemplar-Based Explanation (EBE). According to the exemplar-based paradigm, phenomena are explained not by deriving them all the way down from theoretical laws and boundary conditions but by modelling them on previously derived phenomena that function as exemplars. To accomplish this, DOP proposes (...) to maintain a corpus of derivation trees of previous phenomena together with a matching algorithm that combines subtrees from the corpus to derive new phenomena. By using a notion of derivational similarity, a new phenomenon can be modelled as closely as possible on previously explained phenomena. I will propose an instantiation of DOP which integrates theoretical and phenomenological modelling and which generalises over various disciplines, from fluid mechanics to language technology. I argue that DOP provides a solution for what I call Kuhn's problem and that it redresses Kitcher's account of explanation. (shrink)

The aim of this empirical study is to understand how bachelor students at universities of applied sciences (UAS) use their ethical compasses during internships. Semi-structured interviews were held with 36 fourth-year bachelor students across four UAS and three different programs in the Netherlands: Initial Teacher Education, Business Services, and Information and Communication Technology. To our knowledge, no studies appear to have investigated and compared students from multiple professional fields, nor identified the dynamics and the sequence of the strategies in (...) the decision-making process that students use when faced with ethical dilemmas during internships. We found that students’ ethical dilemmas stemmed from: mentors’ or managers’ behaviours/requests, colleagues’ behaviours, organisations’ morally questionable incentives, pupils’ home situations, and pupils’ behaviours/personal stories. The majority of students used multiple strategies and first investigated the ethical dilemmas they encountered and then avoided, intervened, delegated responsibilities, or adjusted to their environments. Students’ values played an important role in experiencing an ethical dilemma, however, these values were not always acted upon. We identified that rather students’ beliefs about having influence and/or ownership (or not), personal interest(s) and power relations influenced the way how they used their ethical compasses. Thus, instead of navigating on moral standards (of their profession), students reacted on beliefs which reflected the ways in which they constructed their internship contexts, social relationships and their own (and others) needs. As a result, half of the mentioned dilemmas were resolved in a prudent-strategic manner (e.g., by prioritising personal interests), instead of morally. This indicates that students did not always convert (moral) values into moral action and did not use their ethical compasses in the way UAS aspires. Finally, this study found that the ways in which students used their ethical compasses were strongly influenced by their environments. (shrink)

Scholars in science and technologies studies talk about a “pure science ideology” or “scientific ideology.” Stereotyping applied science as a dull and mindless practice that generates no new knowledge, the ideology grossly distorts both pure and applied science. What is its origin?

Applied Natural Science: Environmental Issues and Global Perspectives will provide the reader with a complete insight into the natural-scientific pattern of the world, covering the most important historical stages of the development of various areas of science, methods of natural-scientific research, general scientific and philosophical concepts, and the fundamental laws of nature. The book analyzes the main scientific trends and developments of modern natural science and also discusses important aspects of environmental protection. Topics include: the problem (...) of "the two cultures": the mathematization of natural sciences and the informatization of society; the non-linear nature of the processes occurring in nature and society; application of the second law of thermodynamics to describe the development of biological systems; global problems of the biosphere; theory and practice of stable organic paramagnetic materials; polymers and the natural environment. Key features include: an interdisciplinary approach in considering scientific and technical problems; a discussion of general scientific trends in modern natural science, including globalization challenges in nature and society, the organic chemistry of stable paramagnetic materials, the fundamentals of the environmental chemistry of polymeric materials, etc.; a justification of applying classical (non-equilibrium) thermodynamics to studying the behavior of open (including biological) systems. (shrink)

This volume, Applied Social Sciences: Philosophy and Theology, provides the reader with an important set of essays related to the two aforementioned fields of study. Aesthetics plays a key role in contemporary philosophy and several authors examine its various aspects, such as the question of identification of works of art; the concept of â oesocial aestheticsâ ; the social therapeutic function that art can have; and the relationships among hermeneutics, aesthetics and communication sciences. Other papers deal with ethical issues, (...) such as the role of human values in applied ethics and moral determinations in public life. The meaning and role of postmodernism in philosophy and society is examined at length in various contributions to the volume, and the same is true for phenomenology at large. Even the theoretical seduction and practical failure of Marxism is addressed, while anthropological issues are studied with reference to truth and other key philosophical concepts. John Searleâ (TM)s theory of intentionality is seen as a factor for creating social institutions, and the real meaning of â oeglobalizationâ is investigated in another article. Many essays deal directly with theological and religious topics. For instance the alleged â oeillusionâ of religion versus its persistency is analyzed, along with the current relations between Church and civil government in Romania, the presence of different forms of Christianity in the Romanian nation, the dialogue between social theology and anthropological research, and the antinomic nature of the Church. All papers included in the volume are original and open new perspectives on the many issues addressed by the authors. Even the philosophical styles are different: hermeneutics, analytic philosophy, historical approach, postmodernism, communication theory and linguistic approach. Some papers are theoretical and others have a more empirical or historical flavour. There is however an underlying unity because they all purport to provide new ideas to professionals involved in the socio-humanistic field. The information is divided into chapters in order to help readers to form by themselves an image of the issues that are studied. However, the volume is not addressed only to specialists, and is accessible to a wider public interested in an interdisciplinary approach. (shrink)

We conducted two in vivo studies to explore how scientists respond to anomalies. Based on prior research, we identify three candidate strategies: mental simulation, mental manipulation of an image, and comparison between images. In Study 1, we compared experts in basic and applied domains (physics and meteorology). We found that the basic scientists used mental simulation to resolve an anomaly, whereas applied science practitioners mentally manipulated the image. In Study 2, we compared novice and expert meteorologists. We (...) found that unlike experts, novices used comparison to address anomalies. We discuss the nature of expertise in the two kinds of science, the relationship between the type of science and the task performed, and the relationship of the strategies investigated to scientific creativity. (shrink)

Science studies scholars of the twenty-first century have been arguing for a reconceptualization of science based on the emergence of new values and practices. Allegedly, these new norms have come from science in the context of application. However, the argument here is that science in the context of application is a phenomenon with as long and rich a history as so-called pure or basic science. Science in the context of application only appears to be (...) new since so little light has been shined on applied science by historians and philosophers of science. This article explores the consequences of reaching back into remote history seeking science in the context of application and finds that doing so helps scholars understand present day developments, as well. Three examples of historical applied science are explored: ancient Roman engineering, Enlightenment-era navigation and surveying, and American early Republic engineering. In addition, the work of I. Bernard Cohen is examined for historiographical evidence of a narrowing account of what counts as science in the post-WWII period. (shrink)

In the same spirit with the theme of last issue of this SGJ journal (“Ongoing creation”), this paper shortly reviews a plausible mechanism from Aether to become ordinary matter from the perspective of Neutrosophic Logic. We also discuss two other possible applications of Neutrosophic Logic, including a resolution of conflicting paradigms in medicine. We hope that some ideas as outlined herein will be proved useful in the near future.

The discussion among philosophers and experimental scientists on the pages of Problems of Philosophy [Voprosy filosofii] about the substance of and relations between the fundamental and applied sciences [1] persuades me that this remains a topical issue despite the very deep crisis that followed the breakup of the USSR in all spheres of society, including science, throughout the post-Soviet region. Most likely, it is precisely the crisis phenomena in society that impel its thinking part to answer the questions: (...) What has happened to us? Where are we now? Where do we go from here and by which paths? What is the role of science in changing the situation? And inasmuch as science and philosophy are the supreme creations of the human mind, called upon to reflect by specific means what is taking place in society, these questions have been at the center of philosophers' and scientists' attention. (shrink)

An analysis of the role of language in basic and applied science from the semantics of science and the theory of reference requires several steps. First, to specify the field of analysis in the light of several factors: the semantic problems of science; the reference in its triple dimension of relation between language and reality, of referent and of transmission in science; and the link between meaning and reference in science.Second, to consider the central (...) approach to the semantics of science, which forks into two main directions: the semantic line and the pragmatic path. De facto, they lead to different interpretations of the role of language in basic science and in applied science. The semantic line focuses on the content expressed through terms, statements and theories, which has been influential in important philosophical trends and still is prominent in some versions of scientific realism. Meanwhile, the pragmatic path emphasizes the meaning as use, which has influenced philosophers of science of diverse tendencies, such as S. Toulmin, Th. Kuhn, American pragmatists and supporters of the methodological pluralism.Third, to make explicit the leading conceptions regarding the theory of reference, both for the formal sciences and for the empirical sciences. There are a number of options, four of which are analyzed here. The view associated with the semantic role and the semantic value, which connects semantic, epistemological and ontological realms in basic science and in applied science. The causal theory of reference, which has shifted towards internal realism. Anti-realistic semantics, where truth is replaced by proof and the reference is the use made by someone of a term in a context. Kuhn’s approach in his linguistic period, where he rethinks the scientific revolutions taking into account the causal theory of reference.Fourth, to be aware of the consequences of these analyses for basic science and applied science in two ways: on the one hand, for the semantic differences between them, and, on the other, for the perspective of reference. (shrink)

ABSTRACT While interest in philosophy and medicine has burgeoned in the past two decades, there remains a need for an analysis of the intellectual activity embodied in good medical practice. In this setting, ethical and scientific decision‐making are complexly interrelated. The following paper, collaboratively written by physicians and philosophers, presents a view of applied (clinical) science and applied ethics. Making extensive use of illustrations drawn from routine case material, we seek to indicate a variety of philosophic issues (...) to be found in daily practice, elucidate various levels of critical reasoning within the medical setting, and demonstrate a remarkable similarity between medical and ethical decision‐making. (shrink)