The traditional sciences have always had trouble with ambiguity. Through the imposition of “enabling constraints” -- making a set of assumptions and then declaring ceteris paribus -- science can bracket away ambiguity. These enabling constraints take the form of uncritically examined presuppositions or “uceps.” Second order science examines variations in values assumed for these uceps and looks at the resulting impacts on related scientific claims. After rendering explicit the role of uceps in scientific claims, the scientific method is used to (...) question rarely challenged assertions. This article lays out initial foundations for second order science, its ontology, methodology, and implications. (shrink)

This inaugural handbook documents the distinctive research field that utilizes history and philosophy in investigation of theoretical, curricular and pedagogical issues in the teaching of science and mathematics. It is contributed to by 130 researchers from 30 countries; it provides a logically structured, fully referenced guide to the ways in which science and mathematics education is, informed by the history and philosophy of these disciplines, as well as by the philosophy of education more generally. The first handbook to cover the (...) field, it lays down a much-needed marker of progress to date and provides a platform for informed and coherent future analysis and research of the subject. -/- The publication comes at a time of heightened worldwide concern over the standard of science and mathematics education, attended by fierce debate over how best to reform curricula and enliven student engagement in the subjects There is a growing recognition among educators and policy makers that the learning of science must dovetail with learning about science; this handbook is uniquely positioned as a locus for the discussion. -/- The handbook features sections on pedagogical, theoretical, national, and biographical research, setting the literature of each tradition in its historical context. Each chapter engages in an assessment of the strengths and weakness of the research addressed, and suggests potentially fruitful avenues of future research. A key element of the handbook’s broader analytical framework is its identification and examination of unnoticed philosophical assumptions in science and mathematics research. It reminds readers at a crucial juncture that there has been a long and rich tradition of historical and philosophical engagements with science and mathematics teaching, and that lessons can be learnt from these engagements for the resolution of current theoretical, curricular and pedagogical questions that face teachers and administrators. (shrink)

The traditional sciences often bracket away ambiguity through the imposition of “enabling constraints”—making a set of assumptions and then declaring ceteris paribus. These enabling constraints take the form of uncritically examined presuppositions or “uceps.” Second order science reveals hidden issues, problems and assumptions which all too often escape the attention of the practicing scientist. These hidden values—precisely because they are hidden and not made explicit—can get in the way of the public’s acceptance of a scientific claim. A conflict in understood (...) meaning—between the scientist’s restricted claims and the public’s broader understanding of those same claims can result in cognitive dissonance or the equivalent of the Mori Uncanny Valley. Scientists often react to these differences by claiming “incommensurability” between their restricted claim and the public’s understanding. Second order science, by explicating the effects of variations in values assumed for these uceps and associated impacts on related scientific claims, can often moot these assertions of incommensurability and thereby promote greater scientific understanding. This article explores how second order science can address issues of public doubt regarding the scientific enterprise using examples from medicine, diet and climate science. (shrink)

Este artigo tem como objetivo discutir algumas das teses centrais do físico teórico e epistemólogo John Michael Ziman relativas à dimensão social da ciência. Ziman sustenta que, para um melhor entendimento das mudanças ocorridas na prática científica contemporânea, sobretudo das consequências geradas nas últimas décadas pelo que ele denominou de "ciência pós-acadêmica", é necessária uma abordagem que inclua aspectos não somente filosóficos, mas também sociológicos e históricos. Segundo Ziman, a supervalorização, na ciência pós-acadêmica, de valores ligados a uma cultura gerencial (...) tem como consequências, a curto prazo, a alteração do éthos mertoniano e dos princípios filosóficos utilizados historicamente pelos cientistas como ideais reguladores; e, a longo prazo, a redução da capacidade cognitiva da ciência de produzir "novos mapas" da realidade. Ao analisar alguns conceitos-chave da obra de Ziman, tais como "consensibilidade", "consensualidade", "conhecimento público" e "ciência pós-acadêmica", esperamos debater a concepção de ciência desse autor, ainda pouco citado no Brasil. The main objective of this article is to discuss some of the central theses on the work of the physicist and epistemologist John Michael Ziman concerned with the social dimension of science. Ziman supports the thesis that in order to have a better understanding of the recent changes in scientific practice, especially the consequences brought by a new mode of knowledge production, in the last decades, which he names "post-academic", it is necessary a new methodological approach is necessary that includes, not only philosophical aspects, but also sociological and psychological ones. According to Ziman, one of the consequences of the overvaluation of a managerial culture in post academic science is, in the short term, the deflation of the Mertonian ethos and also of the philosophical principles which were historically shared amongst scientists as regulatory ideals; and in the long run, the major consequence of post-academic science would be the reduction of cognitive capacity of science to produce "new maps" of the world. By the analysis of some key-concepts in Ziman's work, such as "consensibility", "consensuality", "public knowledge" and "post-academic science", we aim to make the Brazilian reader acquainted with his conception of science. (shrink)

During the first half of the twentieth century, mainstream answers to the foundational crisis, mainly triggered by Russell and Gödel, remained largely perfectibilist in nature. Along with a general naturalist wave in the philosophy of science, during the second half of that century, this idealist picture was finally challenged and traded in for more realist ones. Next to the necessary preliminaries, the present paper proposes a structured view of various philosophical accounts of mathematics indebted to this general idea, laying the (...) ground for a desirable integration of their strenghts. (shrink)

The distinction between sociology of science on the one hand and methodology and systematics on the other, is an established historical fact. Thus, even in modern methodologically orientated philosophy, epistemological analyses still tend to disregard the pragmatic contexts within which scientific knowledge is produced, processed and applied. This situation also reflects the well-known fact that philosophy of science has largely ignored the conceptual and methodological foundations of technology, that is, those disciplines directly and explicitly linked to the practical implications and (...) intended applications of scientific research. The following considerations suggest that the methodology of technology provides useful and generally applicable criteria of the evaluation and acceptance of the hypotheses and theories of empirical science. (shrink)

In Canada, education is a provincial responsibility. Given a geographically expansive country, a diversity of cultures, and 13 provinces and territories, the role of history and philosophy of science (HPS) in science education varies considerably across the nation. In the last decade, some attempts have been made to provide some national consistency in science curricula across provincial boundaries (Pan-Canadian Frameworks for Science). While a focus for this work is on scientific literacy that incorporates in some ways teaching about the nature (...) of science, implementation at the provincial level, often guided by textbooks, has not been widespread. -/- In this chapter, I will explore a wide range of aspects of HPS and the teaching of science in Canada. These aspects include the historical underpinnings of the history and philosophy of science and science curricula and the influence HPS has had on national and provincial documents and the inclusion of HPS in teacher education programs (including some best practices). Additionally, some time will be taken to examine the status of local indigenous knowledge and its relationship to science curricula and teaching in provincial curriculum. (shrink)

Our relationship with technology has become co-dependent and somehow a personal and an intimate one. Generally speaking, we tend to think that we experience the world around us as it is, but that is not what we really do. In a lifetime, we learn and store knowledge, but we only use from it what we think and feel it will help us to realize the most important projects in our lives. Therefore, we invent things that have the purpose to make (...) our lives easier, just to have time to manage and work on the other part of life – the non-material part of it -, that concerns the personal development of human. First of all, that is or that should be the idea for developing technology, but on second thoughts, we somehow fail to adapt to it, and from that it deceives us – transforming itself in an insecurity, like high-tech products that are too hard to use, or too unreliable to be counted on, the lack of necessary knowledge in order to use it, the costs. Even if we have these technologies as available, we manage to lose ourselves, by becoming more into it than into us and those around us. We like to think we possess knowledge, that we are experts in some areas, we hold and keep lectures on ethics, moral values, efficient communication, but all become a strategic action – from ones that have the power to others that need guidance and confirmation for looking good for others, to win over, convince or convert new adepts to the proposed ideas of ones that have the power, to court those in power, to please everyone, except yourself. But all of that leads to failure – a self-failure, an inner weakness – and we are becoming our own adversaries, which are silent ones. But if technology is so worthy, why we do not manage so well on moral and ethical aspects? (shrink)

This research was inspired by Werner Callebaut's (1993) classic in which he interviewed major contemporary philosophers of science (specifically of biology) at a time when the interdisciplinary label of "science studies" had hardly been invented. The "real" in his title, Taking the Naturalistic Turn: How Real Philosophy of Science is Done, was a playful reference to debates over realism in Philosophy—the title as a whole drawing attention to his intent to study science studies empirically. That, for Callebaut, was "real" philosophy.In (...) the research reported on here, the works of ten major theorists of the scientific/scholarly process were studied (but not exclusively of biology and chosen from a larger set which .. (shrink)

Physicists were asked the question, “What do you think are the most important qualities needed to be successful at the type of work you do?” The results demonstrate which qualities physicists value and how values vary among the qualities they identified. The results also show how physicists’ beliefs about success vary by the rank of their department, age, productivity, and gender. More generally, the findings cast light on the moral order of physics by eliciting how members of an occupation construe (...) the structure of success in their line of work. (shrink)

: This paper discusses the American scientist and philosopher Charles S. Peirce's (1839–1914) classification of the sciences from the contemporary perspective of interdisciplinary studies. Three theses are defended: (1) Studies on interdisciplinarity pertain to the intermediate class of Peirce's classification of all science, the sciences of review (retrospective science), ranking below the sciences of discovery (heuretic sciences) and above practical science (the arts). (2) Scientific research methods adopted by interdisciplinary inquiries are cross-categorial. Making them converge to an increasing extent with (...) the sciences of discovery, especially the methodeutic of normative logic, is one of the future challenges for studies on interdisciplinarity. (3) The overall structure of Peirce's classification, were it to be applied in today's situation, would not, in any major respect, be radically different from what it was designed to reflect a hundred years ago, in spite of the virtually exponential creation and production of new domains and the massive increase in investment in research and scientific publication. Accordingly, charges that the sciences of discovery are becoming ever more fragmented are not new. (shrink)