Discovering obligations that are ascribed to them by others is potentially an important element in the development of the moral imagination of engineers. Moral imagination cannot reasonably be developed by contemplating oneself and one’s task alone: there must be some element of discovering the expectations of people one could put at risk. In practice it may be impossible to meet ascribed obligations if they are completely general and allow no exceptions — for example if they demand an unlimited duty to (...) avoid harm. But they can still serve to modify engineers’ prior ethics, for example by limiting a purely utilitarian approach to deciding who should bear risk and how much risk they should bear. Ascribed obligations can also give engineers insight into the public reaction to risks that arise from engineered systems, and the consequent expectations that the public have about how much protection is desirable and where the responsibility for this protection lies. This article analyses the case for taking ascribed obligations seriously, and reviews some of the obligations that have been ascribed in the aftermath of recent engineering failures. It also proposes ways in which ascribed obligations could be used in engineers’ moral development. (shrink)

Over the past two decades, ethical challenges related to robotics technologies have gained increasing interest among different research and non-academic communities, in particular through the field of roboethics. While the reasons to address roboethics are clear, why not to engage with ethics needs to be better understood. This paper focuses on a limited or lacking engagement with ethics that takes place within some parts of the robotics community and its implications for the conceptualisation of the human being. The underlying assumption (...) is that the term ‘ethical’ essentially means ‘human’. Thus, this paper discusses a working hypothesis according to which by avoiding to engage with roboethics, roboticists contribute to the tacit dehumanisation process emerging in and outside of robotics. An alternative approach includes ‘lived ethics’ which involves not only incorporating formal ethical approaches into the roboticists’ work but also ‘being’ ethical and actually engaging with ethical reflection and practice. (shrink)

: Professional engineers are bound by their code of ethics to place paramount the health, safety, and welfare of the public. If the "public" includes future people, then the engineer is also morally responsible for not destroying the supporting environment that will make future generations possible. In this essay I suggest that the present engineering codes of ethics are inadequate in addressing the problem of maintaining environmental quality. Engineers can, while staying well within the bounds of the present codes of (...) ethics, destroy or modify the environments that support the global ecosystem and in such manner kill future humans on a grand scale. The moral responsibilities of engineers must therefore include the commitment to provide a high quality and sustainable environment for future generations and this requires that the engineering codes of ethics be modified to encourage engineers to make decisions that promote environmental stability and sustainability. (shrink)

Engineering programs in the United States have been experimenting with diverse pedagogical approaches to educate future professional engineers. However, a crucial dimension of ethics education that focuses on the values, personal commitments, and meaning of engineers has been missing in many of these pedagogical approaches. We argue that a value-based approach to professional ethics education is critically needed in engineering education, because such an approach is indispensable for cultivating self-reflective and socially engaged engineers. This paper starts by briefly comparing two (...) prevalent approaches to ethics education in science and engineering: professional and philosophical. While we acknowledge that both approaches help meet certain ethics education objectives, we also argue that neither of these is sufficient to personally engage students in authentic moral learning. We make the case that it is important to connect ethics education to the heart, which is extensively driven by values, and present a value-based approach to professional ethics education. We provide some classroom practices that cultivate a safe, diverse, and engaging learning environment. Finally, we discuss the implications of a value-based approach to professional ethics education for curriculum design and pedagogical practice, including opportunities and challenges for engineering faculty eager to incorporate value-based inquiry into their classrooms. (shrink)

The teaching of engineering ethics is on the increase at universities around the United States. The motivation for this increase (WHY?) has several driving forces, including: a new Accreditation Board for Engineering and Technology (ABET) accreditation criteria; new questions on Professional Engineering (PE) licensing examinations; new industrial marketplace needs; and a growing awareness in the engineering profession of a need for ethical sensitivity to the consequences of our actions as engineers. The subject (WHAT?) is likely to be taught quite differently (...) at each school, depending upon who is teaching it, in which department, and to which audience. The approach may range from applied ethical moral theory to case-based engineering consequences; with many different mixes within these two extremes. Common features for all approaches are the generic kinds of problems dealt with and the kinds of cases utilized. (shrink)

The creation of new technologies that serve humanity holds the potential to help end global poverty. Unfortunately, relatively little is done in engineering education to support engineers’ humanitarian efforts. Here, various strategies are introduced to augment the teaching of engineering ethics with the goal of encouraging engineers to serve as effective volunteers for community service. First, codes of ethics, moral frameworks, and comparative analysis of professional service standards lay the foundation for expectations for voluntary service in the engineering profession. Second, (...) standard coverage of global issues in engineering ethics educates humanitarian engineers about aspects of the community that influence technical design constraints encountered in practice. Sample assignments on volunteerism are provided, including a prototypical design problem that integrates community constraints into a technical design problem in a novel way. Third, it is shown how extracurricular engineering organizations can provide a theory-practice approach to education in volunteerism. Sample completed projects are described for both undergraduates and graduate students. The student organization approach is contrasted with the service-learning approach. Finally, long-term goals for establishing better infrastructure are identified for educating the humanitarian engineer in the university, and supporting life-long activities of humanitarian engineers. (shrink)

Many blame politicians, governments, and markets for the technically-driven problems the world faces. But why is it that there are almost always engineers and corporations willing to design and build the technologies that cause those problems, many times in spite of knowing about the negative consequences of those technologies? I offer in this paper practical guidance on how to engage in activist engineering, the goal of which is to get engineers to step back from their work and be able to (...) ask and have a conversation about the question, “What is the real problem, and does this problem ‘require’ an engineering solution?” Building on research in the history and philosophy of engineering, and engineering ethics and education, as well as current events—all of which highlight important issues of debate within engineering practice—I provide a list of questions that engineers can start with for self-reflection to better understand their motivations for doing engineering work, and to better understand the implications of their work. The questions relate to considerations engineers must make regarding the social, environmental, economic, and peace implications of their work, and relate to alternative and non-technical interventions to the problem at hand. I believe that each engineer should, in the end, be able to answer the questions: Why am I an engineer? For whose benefit do I work? What is the full measure of my moral and social responsibility? (shrink)

In this paper, we reflect on current notions of engineering practice by examining some of the motives for engineered solutions to the problem of climate change. We draw on fields such as science and technology studies, the philosophy of technology, and environmental ethics to highlight how dominant notions of apoliticism and ahistoricity are ingrained in contemporary engineering practice. We argue that a solely technological response to climate change does not question the social, political, and cultural tenet of infinite material growth, (...) one of the root causes of climate change. In response to the contemporary engineering practice, we define an activist engineer as someone who not only can provide specific engineered solutions, but who also steps back from their work and tackles the question, What is the real problem and does this problem “require” an engineering intervention? Solving complex problems like climate change requires radical cultural change, and a significant obstacle is educating engineers about how to conceive of and create “authentic alternatives,” that is, solutions that differ from the paradigm of “technologically improving” our way out of problems. As a means to realize radically new solutions, we investigate how engineers might deploy the concept of praxis, which raises awareness in engineers of the inherent politics of technological design. Praxis empowers engineers with a more comprehensive understanding of problems, and thus transforms technologies, when appropriate, into more socially just and ecologically sensitive interventions. Most importantly, praxis also raises a radical alternative rarely considered—not “engineering a solution.” Activist engineering offers a contrasting method to contemporary engineering practice and leads toward social justice and ecological protection through problem solving by asking not, How will we technologize our way out of the problems we face? but instead, What really needs to be done? (shrink)

This study explores building code negotiation between straw bale advocates’ ecology-oriented values and health and safety values that underlie building codes in general by focusing on how values and ethics are articulated and embodied in practice and discourse in the two states where straw bale building standards were first initiated. The local, contingent nature of interactions, grounded in particular practices, material culture, and written and visual texts in which values were embedded, coupled with organizational factors contributed to strategies for a (...) prescriptive code in Arizona and for a performance code in New Mexico. Examination of situated practice in standards development for unconventional materials that may not fit well with practices based on conventional technologies sheds light on how norms associated with the ethics of safe building are enmeshed in existing practice where they can be taken for granted as ethical absolutes and illustrates the kinds of insights available through paying attention to ethics in practice. (shrink)