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  1. Engineering ethics: concepts and cases.Charles Edwin Harris, Michael S. Pritchard & Michael Jerome Rabins - 2009 - Boston, MA: Cengage. Edited by Michael S. Pritchard, Ray W. James, Elaine E. Englehardt & Michael J. Rabins.
    Packed with examples pulled straight from recent headlines, ENGINEERING ETHICS, Sixth Edition, helps engineers understand the importance of their conduct as professionals as well as reflect on how their actions can affect the health, safety and welfare of the public and the environment. Numerous case studies give readers plenty of hands-on experience grappling with modern-day ethical dilemmas, while the book's proven and structured method for analysis walks readers step by step through ethical problem-solving techniques. It also offers practical application of (...)
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  • Stages in the Empirical Programme of Relativism.Harry M. Collins - 1981 - Social Studies of Science 11:3-10.
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  • Broadening Ethics Teaching in Engineering: Beyond the Individualistic Approach. [REVIEW]Eddie Conlon & Henk Zandvoort - 2011 - Science and Engineering Ethics 17 (2):217-232.
    There is a widespread approach to the teaching of ethics to engineering students in which the exclusive focus is on engineers as individual agents and the broader context in which they do their work is ignored. Although this approach has frequently been criticised in the literature, it persists on a wide scale, as can be inferred from accounts in the educational literature and from the contents of widely used textbooks in engineering ethics. In this contribution we intend to: (1) Restate (...)
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  • Thinking like an engineer: studies in the ethics of a profession.Michael Davis - 1998 - New York: Oxford University Press.
    Michael Davis, a leading figure in the study of professional ethics, offers here both a compelling exploration of engineering ethics and a philosophical analysis of engineering as a profession. After putting engineering in historical perspective, Davis turns to the Challenger space shuttle disaster to consider the complex relationship between engineering ideals and contemporary engineering practice. Here, Davis examines how social organization and technical requirements define how engineers should (and presumably do) think. Later chapters test his analysis of engineering judgement and (...)
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  • Future directions in engineering ethics research: Microethics, macroethics and the role of professional societies.Joseph R. Herkert - 2001 - Science and Engineering Ethics 7 (3):403-414.
    Three frames of reference for engineering ethics are discussed—individual, professional and social—which can be further broken down into “microethics” concerned with individuals and the internal relations of the engineering profession and “macroethics” referring to the collective social responsibility of the engineering profession and to societal decisions about technology. Few attempts have been made at integrating microethical and macroethical approaches to engineering ethics. The approach suggested here is to focus on the role of professional engineering societies in linking individual and professional (...)
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  • Ways of thinking about and teaching ethical problem solving: Microethics and macroethics in engineering. [REVIEW]Joseph R. Herkert - 2005 - Science and Engineering Ethics 11 (3):373-385.
    Engineering ethics entails three frames of reference: individual, professional, and social. “Microethics” considers individuals and internal relations of the engineering profession; “macroethics” applies to the collective social responsibility of the profession and to societal decisions about technology. Most research and teaching in engineering ethics, including online resources, has had a “micro” focus. Mechanisms for incorporating macroethical perspectives include: integrating engineering ethics and science, technology and society (STS); closer integration of engineering ethics and computer ethics; and consideration of the influence of (...)
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  • (1 other version)Editorial Overview: Public Science and Technology Scholars: Engaging Whom?Erik Fisher - 2011 - Science and Engineering Ethics 17 (4):607-620.
    Science policy mandates across the industrialized world insinuate more active roles for publics, their earlier participation in policy decisions, and expanded notions of science and technology governance. In response to these policies, engaged scholars in science studies have sought to design and conduct exercises aimed at better attuning science to its public contexts. As demand increases for innovative and potentially democratic forms of public engagement with science and technology, so also do the prospects for insights from science studies to contribute (...)
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  • (1 other version)Editorial Overview.Erik Fisher - 2011 - Science and Engineering Ethics 17 (4):607-620.
    Science policy mandates across the industrialized world insinuate more active roles for publics, their earlier participation in policy decisions, and expanded notions of science and technology governance. In response to these policies, engaged scholars in science studies have sought to design and conduct exercises aimed at better attuning science to its public contexts. As demand increases for innovative and potentially democratic forms of public engagement with science and technology, so also do the prospects for insights from science studies to contribute (...)
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  • Responsibility Ascriptions in Technology Development and Engineering: Three Perspectives. [REVIEW]Neelke Doorn - 2012 - Science and Engineering Ethics 18 (1):69-90.
    In the last decades increasing attention is paid to the topic of responsibility in technology development and engineering. The discussion of this topic is often guided by questions related to liability and blameworthiness. Recent discussions in engineering ethics call for a reconsideration of the traditional quest for responsibility. Rather than on alleged wrongdoing and blaming, the focus should shift to more socially responsible engineering, some authors argue. The present paper aims at exploring the different approaches to responsibility in order to (...)
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  • An overview: Origins and development of green chemistry.J. A. Linthorst - 2009 - Foundations of Chemistry 12 (1):55-68.
    This article provides an overview of the origins and development of green chemistry. Aiming to contribute to the understanding of green chemistry, basically from a historical point of view, this overview argues that contextual influences and the user friendliness of the term are drivers for the explosive growth of green chemistry. It is observed that political support for its development has been significant, in which the Pollution Prevention Act of 1990 was a formal political starting-point, but informally the origins of (...)
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  • Responsibility without Moralism in Technoscientific Design Practice.Jaap Jelsma & Tsjalling Swierstra - 2006 - Science, Technology, and Human Values 31 (3):309-332.
    While engineering ethics usually addresses the responsibility of engineers in rare cases of whistle blowing, the authors broach the question to what extent engineers can be held responsible in normal practice. For this purpose, they define the conditions under which individuals can be imputable as they prevail in ethics and common sense. From outcomes of science and technology studies research, the authors conclude that these conditions are seldom met in modern technoscientific research practice. By examining such practice in a case (...)
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  • Interests and the growth of knowledge.Barry Barnes - 1977 - Boston: Routledge and Kegan Paul.
    THE PROBLEM OP KNOWLEDGE l CONCEPTIONS OF KNOWLEDGE An immediate difficulty which faces any discussion of the present kind is that there are so many ...
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  • Philosophy, rhetoric, and the end of knowledge: a new beginning for science and technology studies.Steve Fuller - 2004 - Mahwah, N.J.: Lawerence Erlbaum. Edited by James H. Collier.
    This volume explores Science & Technology Studies (STS) and its role in redrawing disciplinary boundaries. For scholars/grad students in rhetoric of science, science studies, philosophy & comm, English, sociology & knowledge mgmt.
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  • Engineering ethics, individuals, and organizations.Michael Davis - 2006 - Science and Engineering Ethics 12 (2):223-231.
    This article evaluates a family of criticism of how engineering ethics is now generally taught. The short version of the criticism might be put this way: Teachers of engineering ethics devote too much time to individual decisions and not enough time to social context. There are at least six version of this criticism, each corresponding to a specific subject omitted. Teachers of engineering ethics do not (it is said) teach enough about: 1) the culture of organizations; 2) the organization of (...)
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  • A Systematic Approach to Engineering Ethics Education.Jessica Li & Shengli Fu - 2012 - Science and Engineering Ethics 18 (2):339-349.
    Engineering ethics education is a complex field characterized by dynamic topics and diverse students, which results in significant challenges for engineering ethics educators. The purpose of this paper is to introduce a systematic approach to determine what to teach and how to teach in an ethics curriculum. This is a topic that has not been adequately addressed in the engineering ethics literature. This systematic approach provides a method to: (1) develop a context-specific engineering ethics curriculum using the Delphi technique, a (...)
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  • Technological risk and small probabilities.Kristin Shrader-Frechette - 1985 - Journal of Business Ethics 4 (6):431 - 445.
    Many scientists, businessmen, and government regulators believe that the criteria for acceptable societal risk are too stringent. Those who subscribe to this belief often accept the view which I call the probability-threshold position. Proponents of this stance maintain that society ought to ignore very small risks, i.e., those causing an average annual probability of fatality of less than 10–6.After examining the three major views in the risk-evaluation debate, viz., the probability-threshold position, the zero-risk position, and the weighted-risk position, I focus (...)
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  • Primate Visions: Gender, Race, and Nature in the World of Modern Science.Donna J. Haraway - 1990 - Journal of the History of Biology 23 (2):329-333.
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  • Engineering Ethics Beyond Engineers' Ethics.Josep M. Basart & Montse Serra - 2013 - Science and Engineering Ethics 19 (1):179-187.
    Engineering ethics is usually focused on engineers’ ethics, engineers acting as individuals. Certainly, these professionals play a central role in the matter, but engineers are not a singularity inside engineering ; they exist and operate as a part of a complex network of mutual relationships between many other people, organizations and groups. When engineering ethics and engineers’ ethics are taken as one and the same thing the paradigm of the ethical engineer which prevails is that of the heroic engineer, a (...)
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  • What happens in the Lab: Applying Midstream Modulation to Enhance Critical Reflection in the Laboratory. [REVIEW]Daan Schuurbiers - 2011 - Science and Engineering Ethics 17 (4):769-788.
    In response to widespread policy prescriptions for responsible innovation, social scientists and engineering ethicists, among others, have sought to engage natural scientists and engineers at the ‘midstream’: building interdisciplinary collaborations to integrate social and ethical considerations with research and development processes. Two ‘laboratory engagement studies’ have explored how applying the framework of midstream modulation could enhance the reflections of natural scientists on the socio-ethical context of their work. The results of these interdisciplinary collaborations confirm the utility of midstream modulation in (...)
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  • Editors' Overview Perspectives on Teaching Social Responsibility to Students in Science and Engineering.Henk Zandvoort, Tom Børsen, Michael Deneke & Stephanie J. Bird - 2013 - Science and Engineering Ethics 19 (4):1413-1438.
    Global society is facing formidable current and future problems that threaten the prospects for justice and peace, sustainability, and the well-being of humanity both now and in the future. Many of these problems are related to science and technology and to how they function in the world. If the social responsibility of scientists and engineers implies a duty to safeguard or promote a peaceful, just and sustainable world society, then science and engineering education should empower students to fulfil this responsibility. (...)
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  • Lab Work Goes Social, and Vice Versa: Strategising Public Engagement Processes: Commentary on: “What Happens in the Lab Does Not Stay in the Lab: Applying Midstream Modulation to Enhance Critical Reflection in the Laboratory”.Brian Wynne - 2011 - Science and Engineering Ethics 17 (4):791-800.
    Midstream modulation is a form of public engagement with science which benefits from strategic application of science and technology studies (STS) insights accumulated over nearly 20 years. These have been developed from STS researchers’ involvement in practical engagement processes and research with scientists, science funders, policy and other public stakeholders. The strategic aim of this specific method, to develop what is termed second-order reflexivity amongst scientist-technologists, builds upon and advances earlier more general STS work. However this method is focused and (...)
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  • Erratum to: What Happens in the Lab Does Not Stay in the Lab: Applying Midstream Modulation to Enhance Critical Reflection in the Laboratory. [REVIEW]Daan Schuurbiers - 2011 - Science and Engineering Ethics 17 (4):789-789.
    Erratum to: What Happens in the Lab Does Not Stay in the Lab: Applying Midstream Modulation to Enhance Critical Reflection in the Laboratory Content Type Journal Article Category Erratum Pages 789-789 DOI 10.1007/s11948-011-9334-7 Authors Daan Schuurbiers, Centre for Society and Genomics, Radboud University Nijmegen, Nijmegen, The Netherlands Journal Science and Engineering Ethics Online ISSN 1471-5546 Print ISSN 1353-3452 Journal Volume Volume 17 Journal Issue Volume 17, Number 4.
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  • Teaching Science, Technology, and Society to Engineering Students: A Sixteen Year Journey.Haldun M. Ozaktas - 2013 - Science and Engineering Ethics 19 (4):1439-1450.
    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 (...)
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  • Primate Visions: Gender, Race, and Nature in the World of Modern Science.Donna Jeanne Haraway - 1992
    In "Primate visions" schetst de wetenschapshistorica Donna Haraway de evolutie van de primatologie van de jaren 20 tot de jaren 80. Primaten lijken zozeer op mensen dat zij het onderzoeksobject bij uitstek vormen waarop wetenschappers, bewust of onbewust, hun ideeën over natuur en cultuur projecteren. Tegelijk is de primatologie een wetenschap waar ongewoon veel vrouwen in betrokken zijn. Haraway grijpt deze twee gegevens aan om uitvoerig in te gaan op het thema van vrouwen in de wetenschap, op de wetenschappelijke constructie (...)
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  • Logic and Society: Contradictions and Possible Worlds.Jon Elster - 1978 - Wiley.
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  • Engineering Practice and Engineering Ethics.Ronald Kline & William T. Lynch - 2000 - Science, Technology, and Human Values 25 (2):195-225.
    Diane Vaughan’s analysis of the causes of the Challenger accident suggests ways to apply science and technology studies to the teaching of engineering ethics. By sensitizing future engineers to the ongoing construction of risk during mundane engineering practice, we can better prepare them to address issues of public health, safety, and welfare before they require heroic intervention. Understanding the importance of precedents, incremental change, and fallible engineering judgment in engineering design may help them anticipate potential threats to public safety arising (...)
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  • Undone Science: Charting Social Movement and Civil Society Challenges to Research Agenda Setting.David J. Hess, Gwen Ottinger, Joanna Kempner, Jeff Howard, Sahra Gibbon & Scott Frickel - 2010 - Science, Technology, and Human Values 35 (4):444-473.
    ‘‘Undone science’’ refers to areas of research that are left unfunded, incomplete, or generally ignored but that social movements or civil society organizations often identify as worthy of more research. This study mobilizes four recent studies to further elaborate the concept of undone science as it relates to the political construction of research agendas. Using these cases, we develop the argument that undone science is part of a broader politics of knowledge, wherein multiple and competing groups struggle over the construction (...)
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  • Green Chemistry as Social Movement?Steve Breyman & Edward J. Woodhouse - 2005 - Science, Technology, and Human Values 30 (2):199-222.
    Are there circumstances under which scientists and engineers doing their ordinary jobs can be thought of as participants in a social movement? The technoscientists analyzed in this article are at the forefront of a new way of doing chemistry; they are attempting to redesign chemical products and synthesis pathways to significantly reduce health effects and environmental damage from industrial chemicals. Green chemistry practitioners and entrepreneurs now constitute a small minority of chemists and chemical engineers in the university, government, and corporate (...)
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