Changes in the past two decades of goals for science education in schools have induced new orientations in science education worldwide. One of the emerging complementary approaches was the science-technology-society (STS) movement. STS has been called the current megatrend in science education. Others have called it a paradigm shift for the field of science education. The success of science education reform depends on teachers' ability to integrate the philosophy and practices of current programs of science education reform with their existing (...) philosophy. Thus, when considering the STS approach to science education, teacher beliefs about STS implementation require attention. Without this attention, negative beliefs concerning STS implementation and inquiry learning could defeat the reform movements emphasizing STS. This article argues the role of STS in science education and the importance of considering science teachers' beliefs about STS in implementing significant reforms in science education. (shrink)

The course Science, Technology, and Society is taken by about 500 engineering students each year at Bilkent University, Ankara. Aiming to complement the highly technical engineering programs, it deals with the ethical, social, cultural, political, economic, legal, environment and sustainability, health and safety, reliability dimensions of science, technology, and engineering in a multidisciplinary fashion. The teaching philosophy and experiences of the instructor are reviewed. Community research projects have been an important feature of the course. Analysis of teaching style based on (...) a multi-dimensional model is given. Results of outcome measurements performed for ABET assessment are provided. Challenges and solutions related to teaching a large class are discussed. (shrink)

Science, Technology and Society: A Sociological Approach is a comprehensive guide to the emergent field of science, technology, and society (STS) studies and its implications for today’s culture and society. Discusses current STS topics, research tools, and theories Tackles some of the most urgent issues in current STS studies, including power and culture, race, gender, colonialism, the Internet, cyborgs and robots, and biotechnology Includes case studies, a glossary, and further reading lists.

Interdisciplinary work is intractable because the search for knowledge in different fields entails different interests, and thereby different values too; and the different possibilities of knowledge about different subjects also lead to different epistemologies. Thus differ ences among practitioners of the various disciplines are pervasive and aptly described as cultural ones, and interdisciplinary work requires transcending unconscious habits of thought. The more those unconscious habits are explicated and the more we under stand how the disparate characteristics of the various intellectual (...) cultures are related to the necessarily different interests, values, and epistemologies, the more feasible becomes the goal of transcending thought habits. Two sorts of interdisciplinary effort seem to have been successful: specific, delimited problems have been solved by teams in what is actually multidisciplinary rather than interdisciplinary work, and new disciplines have sprung up at the intersections of existing ones. STS fits neither of those patterns. Can it nevertheless be viable? (shrink)

A reanalysis of selected national and state-level STS implementation data is reported in this article. The results indicate that teacher education, suitable curriculum materials, and insufficient class time are major issues affecting STS implementation in the United States. Only three states have addressed 50% or more of the STS implementation criteria in their science curriculum frameworks as recommended by the National Science Education Standards. A closer look at one state (Florida) revealed that approximately half of the school districts had STS (...) in science, nearly a third had it in social studies, and the majority of STS instruction occurred at the middle and secondary levels. Additionally, STS is often taught via environmental concerns, and as such, it may be skewed toward activist positions rather than analyzing all (positive and we negative) aspects of the impact of science and technology on society. Using the data as a base, implications are drawn for teacher education, the development of materials, and general policy concerns regarding STS. (shrink)

This article presents a brief argument for STS studies as grounded in fundamental historical transformations of the human condition, outlines seven distinct approaches to STS, and concludes with a brief for STS as the new form of a liberal education.

El artículo menciona el giro en favor de los enfoques participativos o comprometidos políticamente en el campo CTS, realizando una propuesta para su profundización desde una senda alineada con la teoría crítica de la tecnología. Inspirado en los aportes de Andrew Feenberg y Johan Söderberg, el artículo emprende esta tarea mediante la conjunción de conceptos de la perspectiva de la construcción social de la tecnología con aquellos de una tradición hegeliano-marxista interesada en visiones del sistema capitalista como una totalidad que (...) limita la contingencia en el desarrollo tecnológico. Así, propone el rescate de conceptos como clase, capitalismo y lógica del capital, para la comprensión del desarrollo tecnológico. En el curso de esta tarea, el relativismo constructivista es considerado un problema central para profundizar este giro y se lo reemplaza por una evaluación de los códigos técnicos y del contexto social más amplio que el capitalismo representa. En el trascurso del texto, se expone una reutilización de los conceptos constructivistas con arreglo a los intereses de una posición alineada con la teoría crítica de la tecnología. Así, el concepto "marco tecnológico" se asociará con el de "código técnico", de Feenberg, y con el rescate de la lógica mercantil pregonada por la teoría crítica y Söderberg. The paper mentions the turn in favor of participatory or politically engaged approaches in the STS field, and outlines a proposal for deepening this turn within a critical theory of technology route. Inspired in the contributions of Andrew Feenberg and Johan Söderberg, the paper undertakes this task through a combination of concepts from the perspective of social construction of technology with those of a Hegelian-Marxist tradition interested in visions of the capitalist system as a whole posing limits to contingency in technological development. Thus, it offers to rescue such concepts as class, capitalism, market relations and logic of the capital, to better understand technological development. During this task, constructivist relativism is considered a central problem to deepen this turn and thus replaced by an assessment of the technical codes and the wider social context represented by capitalism. In the following parts the paper presents a reuse of constructivist concepts according to the interests of a position aligned with critical theory of technology. Thus, the concept of "technological frame" will be associated with Feenberg's "technical code" and with the rescue of the market logic advocated by critical theory and Söderberg. (shrink)

This study develops a Science–Technology–Society (STS)-based science ethics education program for high school students majoring in or planning to major in science and engineering. Our education program includes the fields of philosophy, history, sociology and ethics of science and technology, and other STS-related theories. We expected our STS-based science ethics education program to promote students’ epistemological beliefs and moral judgment development. These psychological constructs are needed to properly solve complicated moral and social dilemmas in the fields of science and (...) engineering. We applied this program to a group of Korean high school science students gifted in science and engineering. To measure the effects of this program, we used an essay-based qualitative measurement. The results indicate that there was significant development in both epistemological beliefs and moral judgment. In closing, we briefly discuss the need to develop epistemological beliefs and moral judgment using an STS-based science ethics education program. (shrink)

This article describes and analyzes the process of institutionalizing studies on science, technology, and society in Cuba, and the social and academic circumstances in which these studies are implemented there. The authors give a brief account of how science and technology have evolved in Cuba over the last four decades. The authors argue that the promotion of science and technological innovation in Cuba has purposely taken the form of social innovation. The authors offer our view of how the changes and (...) demands on science, technology, and education can take advantage of the approaches and proposals of STS studies. The authors consider the traditions of thought that have influenced Cuban culture and construct a specific conceptual framework through which contemporary developments in STS are assimilated. Finally, on the basis of the above analysis, the authors describe experiences of the institutionalization of STS and their underlying objectives. (shrink)

In April 2017, scientists took to the streets in a historically unprecedented Global March for Science. The event was seen as symbolic of a crisis in the relationship of science and society. This book considers the Global March for Science from a postcolonial perspective to inquire into the toolkit that the academic field of Science & Technology Studies (STS) has to offer. It argues that new concepts and analytical approaches are necessary to investigate current global dynamics in science, technology and (...) society, so as to deliver insights that the recent expansion of STS scholars beyond Western Europe and North America alone is unlikely to provide. The book presents a Programme in Science Studies Elsewhere (SSE) to demonstrate the urgent need to carry postcolonial issues right into the centre of STS's intellectual programme. (shrink)

A proposal is presented for the incorporation of the concepts of STS into the teaching of science and technology at the Faculty of Engineering, Mexicali Campus, of the University of Baja California. The method outlined for the development of research and the application of the “Opinions Questionnaire on Science, Technology and Society” is described. This method allows an assessment of the views and attitudes of students and teachers on STS issues to identify their strong and weak points and to detect (...) the teaching and learning needs. Also, it is adequate to investigate the students’ attitudinal changes, their increased interest in the processes of learning, and the contribution of STS to their education and integration into the society. (shrink)

The emergence of nanotechnology, with all its promises of economic, social, and medical benefits, along with dire predictions of environmental, health, and safety threats, has occasioned an active debate in the Science and Technology Studies field, in which we have seen five distinct conversations that frame the discussion. The topical threads include ethics, regulation, opportunities and threats including utopian/dystopian visions of the future, public perception, public participation. These conversational distinctions are not absolutes with firm borders as they clearly overlap at (...) many points. Nonetheless, common to all is a strong sense that control and consequence are significant problems that have yet to be addressed adequately by the promoters of nanotechnology. A final section addresses articles on nanotechnology that exemplify the social construction theory of technology. We include herein a selective summary of this recent body of science, technology, and society (STS) journal literature focused on the social and ethical interactions of nanotechnology (SEIN) that has emerged in the last few years. The intent is not to be encyclopedic in coverage, but rather to seek to understand, in a general way, the key issues and concepts STS scholars are discussing. It is clear that STS-oriented scholars are well poised to grapple explicitly with the cultural, socio-political, and ethical dimensions of nanotechnology. Drawing on understandings of earlier socio-technical areas of interest and concern—nuclear power, genetically modified organisms, the human genome—such scholars have moved well beyond the questions of whether and where nanotechnology intersects society. More important is their effort to seek an understanding in depth of exactly how they are socio-politically, culturally, and ethically interconnected. In doing so, SEIN studies have at the same time become increasingly diverse and more sophisticated and mature over the course of the past decade. Scholars have quite rightly recognized the inadequacies of blanket ideas of moratoria versus non-regulatory environments, utopian versus dystopian futures, and whether or not the public has a role to play in nanotechnology decision making. Rather, a more sophisticated, often case specific, flexible understanding of the societal context of a given issue or concern is called for. (shrink)

The topic of expertise has become especially lively in recent years in academic discussions and debates about the politics of science. It is easy to understand why the topic holds such strong interest in Science & Technology Studies and related fields. There are at least two basic reasons for such interest. One is that experts are undoubtedly important in modern societies, and the other is that trends in STS research tend to be critical of the cognitive authority associated with the (...) public role of the expert. Putting the two together, STS researchers often align themselves with environmentalist and other movements that question the impartiality of experts and seek to democratize decisions about science and technology. Though such alignment is in many respects laudable, it can also be a source of confusion and misplaced political criticism. Toward the end of this brief synopsis of current STS research and debates on the topic of expertise, I will suggest an alternative agenda for engaging the politics of science and technology. (shrink)

At Michigan Tech, science, technology, and society (STS) was introduced as a means of attracting new students to the school, providing general education courses more attractive to engineering students, and furnishing a focus for an unfocused, multidisciplinary department of the Social Sciences. STS enjoyed very limited success in the first two areas; however, using STS as a focus for a hitherto unfocused department has been highly successful and has led to the creation in the department of two new and successful (...) STS-related graduate programs in industrial archaeology and environmental policy. (shrink)

In this paper, we reflect on our experience as science and technology studies researchers who were members of the working group that produced A Synthetic Biology Roadmap for the UK in 2012. We explore how this initiative sought to govern an uncertain future and describe how it was successfully used to mobilize public funds for synthetic biology from the UK government. We discuss our attempts to incorporate the insights and sensibilities of STS into the policy process and why we chose (...) to use the concept of responsible research and innovation to do so. We analyze how the roadmapping process, and the final report, narrowed and transformed our contributions to the roadmap. We show how difficult it is for STS researchers to influence policy when our ideas challenge deeply entrenched pervasive assumptions, framings, and narratives about how technological innovation necessarily leads to economic progress, about public reticence as a roadblock to that progress, and about the supposed separation between science and society. We end by reflecting on the constraints under which we were operating from the outset and on the challenges for STS in policy. (shrink)

Globalization of markets and expanding communication technology networks affect all dimensions of education: curriculum, instructional method, learning environments, and administration. In this article, the author anticipates the impacts upon education in science, technology, and society (STS).

The conceptual framework and core courses of the certificate program in Preventive Engineering and Social Development of the Centre for Technology and Social Development at the University of Toronto are briefly described. Preventive approaches for the engi neering, management, and regulation of technology examine how technology fits into, interacts with, and depends on human life, society, and the biosphere in order to apply this understanding in a negative feed back mode to avoid or reduce harmful effects to these contexts. These (...) approaches represent a new paradigm for engineering education and practice enriched through STS. (shrink)

Bioethicists, like many other academics, have a tendency to try to make things general and simpler by eliminating context. Particulars, such as race, economic class, and gender, often seem to be lost in this ocean of generality and abstraction. But in losing them, we are neglecting the analysis of serious moral problems and, with it, the possibility of offering some kind of solution to such problems. This article argues that particulars do matter very much. We will focus ourattention here on (...) gender. We will argue that ignoring questions of gender when evaluating genetic technologies is seriously problematic because it might lead to further injustices against women. Proceeding with a noncontextual understanding of genetic technologies will likely disregard the unjust ways in which the health care system treats women, as well as the ways in which genetic technologies impose extra burdens on them. (shrink)

As future citizens, students must make decisions requiring an understanding of the interaction of science and technology and its interface with society. STS education has been strongly identified with meeting this goal, but putting theory into practice has so far been difficult. This article asks, “What are the challenges influencing science teachers to implement STS education in the science classroom?” The author investigated using a mixed method research technique incorporating multiple sources of qualitative and quantitative data (questionnaire, interviews, field notes, (...) and classroom observations). Constraints a fecting teachers' practices in teaching science through STS education were identified and can be categorized into impersonal, interpersonal, and personal constraints. Findings indicated interactions within and between external and internal constraints. Suggestions are made for implementing change in various aspects of science teacher education. (shrink)

Engaged scholarship is an intellectual movement sweeping across higher education, not only in the social and behavioral sciences but also in fields of natural science and engineering. It is predicated on the idea that major advances in knowledge will transpire when scholars, while pursuing their research interests, also consider addressing the core problems confronting society. For a workable engaged agenda in science and technology studies, one that informs scholarship as well as shapes practice and policy, the traditional terms of engagement (...) must be renegotiated to be more open and mutual than has historically characterized the nature of inquiry in this field. At the same time, it is essential to protect individual privacy and preserve government confidentiality. Yet there is a scientific possibility for and benefit to introducing more collaborative and deliberative research approaches between scholar and subject in ways that will not violate these first-order ethics. To make the case, this article discusses the possibilities and perils of engaged science and technology scholarship by drawing on our own recent experiences to conduct and apply STS research while embedded in the National Science Foundation. Brief accounts of these experiences reveal the opportunities as well as the challenges of engaged scholarship. They also provide lessons for those fellow travelers who might follow the authors to this or other like host organizations with ambitions of increasing fundamental knowledge about and applying research to the policies, programs, and decisions of the scientific enterprise. (shrink)

The purpose of this study was to examine how different inquiry experiences affect in-service science teachers’ performance in terms of their questions and classroom actions. Teachers in a workshop experience proceeded through structured, guided, and full inquiry stations where materials to make foam were provided. Participants were 26 in-service science teachers who were enrolled in an 8-day workshop learning about science-technology-society (STS) approaches to teaching. Those who experienced full inquiry first resulted in more curiosity, more questions, and more unique experiments (...) than at the other two stations. Success in guided inquiry was observed when the guidance was provided by more open-ended questions posed by the leader teachers. The study raises questions concerning the limitations on student thinking when in structured and guided laboratories that characterize traditional science teaching. An analysis of this study may contribute important direction and information for science teaching and learning and encourage more moves for STS successes. (shrink)

We describe herein an introductory STS course, designed for large numbers of students, which uses a large number of faculty instructors. Its content and style has evolved continuously for 20 years in a major research university and been adapted for use in small two-year and four-year campuses.