This paper presents scientists’ understanding of their roles in society and corresponding responsibilities. It discusses the researchers’ perspective against the background of the contemporary literature on scientific responsibility in the social sciences and philosophy and proposes a heuristic that improves the understanding of the complexity of scientific responsibility. The study is based on qualitative interviews with senior scientists. The presented results show what researchers themselves see as their responsibilities, how they assume them, and what challenges they perceive with respect to (...) their responsibilities. Regarding the latter, the interviewed researchers highlight those aspects of responsibility that go beyond the expertise of their professional role, and thus cannot be carried by scientists alone. For example, scientists alone cannot determine the general direction science takes, or the useful application of their research. The interviewed researchers describe those challenges as responsibilities that must be shared across different societal groups. In the theoretical literature, responsibility has been described as a relation between an actor (who), the action for which someone is responsible (what), and the normative framework against which someone is responsible (why). We will draw on this concept of “relational responsibility” to identify the various actors, normative frameworks, and actions relevant to scientific responsibility. This will serve as a heuristic tool to help identify the entanglement of responsibilities spread across several societal groups. (shrink)

In this project, we explore perceptions of the social and ethical implications of nanotechnology among US scientists who work at the nanoscale, and develop and pilot test an online training module to foster consideration of social and ethical implications in the lab. To meet our first goal, we drew qualitative insights from open-ended survey data collected from scientists affiliated with the National Nanotechnology Infrastructure Network. Our data suggest that while the survey participants responded positively to the idea that consideration of (...) SEI should be a part of the work they do, there was confusion about whether SEI refers to lab safety, research integrity, or something more. This is something we sought to address in the online training module that we developed based on that qualitative data and on feedback collected from experts in nanoethics and lab management. We then pilot tested the module with undergraduate students studying nanotechnology in the National Science Foundation’s Research Experiences for Undergraduates program and with scientists registered to use a National Nanotechnology Coordinated Infrastructure-funded microelectronics research lab. The undergraduate data suggested that students appreciated the SEI training but wished professors and scientists would begin integrating the ideas therein into coursework and mentoring. The scientist data suggested that the module increased understanding of “social and ethical implications,” increased the perceived need to implement SEI into workplace routines, and, interestingly, heightened perceptions of risk associated with the scientists’ own work. The practical and theoretical implications of this work are discussed. (shrink)

The desire to guide research and innovation in more ‘responsible’ directions is increasingly emphasised in national and international policies, the funding of inter- and trans-disciplinary collaborations and academic scholarship on science policy and technology governance. Much of this growth has occurred simultaneously with the development of nanoscale sciences and technologies, where emphasis on the need for responsible research and innovation has been particularly widespread. This paper describes an empirical study exploring the potential for RRI within nanosafety research in Norway and (...) Denmark. It identifies three different ways nanosafety scientists relate to core RRI criteria, demonstrating areas of both convergence and divergence between their views and those of academics and policymakers currently defining and working to promote RRI. The paper identifies a range of practical barriers and cultural differences that are creating such divergences and inhibiting the enactment of RRI within the particular site of research laboratories. It concludes that the identified differences and challenges demand critical reflection on both the appropriateness and applicability of RRI characteristics for enactment at the level of individual research scientists. Significant changes are therefore advocated as required if RRI, as currently imagined and promoted, is to become an integral mode of scientific culture. (shrink)

Technological innovation in general, and nanotechnology development in particular, happens often disconnected from people and places where these technologies eventually play out. Over the last decade, a diversity of approaches have been proposed and developed to engage people in the innovation process of nanotechnology much earlier than in their conventional role as consumers. Such “upstream” engagements are conducted at stages when nanotechnology products and services are still amenable to reframing and modification. These engagement efforts have enhanced technological literacy among stakeholders (...) and the general public. Yet, there is still potential for other types of impacts by leveraging links between nanotechnology and people’s everyday experiences. The present study explores a novel approach for participatory nanotechnology assessment and design, called Collaborative On-site Technology Exploration. The approach allows nanoscale scientists and engineers to explore nanotechnologies where they matter to people and places. We conducted a series of COTEs in the Gateway district in Phoenix addressing community challenges of renewable energy supply, water contamination, and public health issues. COTEs are proposed as a step toward bringing together nanoscale scientists and engineers and community stakeholders in need for solutions to urban challenges. (shrink)

Across the European research area and beyond, efforts are being mobilized to align research and innovation processes and products with societal values and needs, and to create mechanisms for inclusive priority setting and knowledge production. A central concern is how to foster a culture of “Responsible Research and Innovation” among scientists and engineers. This paper focuses on RRI teaching at higher education institutions. On the basis of interviews and reviews of academic and policy documents, it highlights the generic aspects of (...) teaching aimed at invoking a sense of care and societal obligation, and provides a set of exemplary cases of RRI-related teaching. It argues that the Aristotelian concept of phronesis can capture core properties of the objectives of RRI-related teaching activities. Teaching should nurture the students’ capacity in terms of practical wisdom, practical ethics, or administrative ability in order to enable them to act virtuously and responsibly in contexts which are often characterized by uncertainty, contention, and controversy. (shrink)

This paper focuses on the contribution of meta-regulation in responding to the regulatory needs of a field beset by significant uncertainties concerning risks, benefits and development trajectories and characterised by fast development. Meta-regulation allows regulators to address problems when they lack the resources or information needed to develop sound “discretion-limiting rules”; meta-regulators exploit the information advantages of those actors to be regulated by leveraging them into the task of regulating itself. The contribution of meta-regulation to the governance of nanotechnologies is (...) assessed in terms of responsibilisation. Responsibilisation is regarded as a pre -requisite for regulatory actors to internalise social values (such as consumer safety and occupational health) and to ensure that these values are built into regulatory practice. In order to explore the potential of responsibilisation, the Code of Conduct for Responsible Nanosciences and Nanotechnologies Research launched by the European Commission in 2008 is evaluated. The Code is a good case of meta-regulation that aims to steer the self-regulation of nanotechnological business and research organisations. The paper concludes that, while efforts were made on the part of meta-regulators and self-regulators to contribute to responsibilisation, important opportunities for responsibilisation such as dissemination and promotion of the Code, trust-building activities, and failure to provide rewards, incentives and stakeholder guidance were not taken up. In order to foster responsibilisation within the meta-regulatory instrument of the EC Code, a number of crucial activities to be undertaken by meta-regulators are recommended. (shrink)

Research integrity and misconduct have recently risen to public attention as policy issues. Concern has arisen about divergence between this policy discourse and the language and concerns of scientists. This interview study, carried out in Denmark with a cohort of highly internationalised natural scientists, explores how researchers talk about integrity and good science. It finds, first, that these scientists were largely unaware of the Danish Code of Conduct for Responsible Conduct of Research and indifferent towards the value of such codes; (...) second, that they presented an image of good science as nuanced and thereby as difficult to manage through abstracted, principle-based codes; and third, that they repeatedly pointed to systemic issues both as triggering misconduct and as ethical problems in and of themselves. Research integrity is framed as a part of wider moves to ‘responsibilise’ science; understood in these terms, resistance to codes of conduct and the representation of integrity as a problem of science as a whole can be seen as a rejection of a neoliberal individualisation of responsibility. (shrink)

Responsible research and innovation has come to represent a change in the relationship between science, technology and society. With origins in the democratisation of science, and the inclusion of ethical and societal aspects in research and development activities, RRI offers a means of integrating society and the research and innovation communities. In this article, we frame RRI activities through the lens of layers of science and technology governance as a means of characterising the context in which the RRI activity is (...) positioned and the goal of those actors promoting the RRI activities in shaping overall governance patterns. RRI began to emerge during a time of considerable deliberation about the societal and governance challenges around nanotechnology, in which stakeholders were looking for new ways of integrating notions of responsibility in nanotechnology research and development. For this reason, this article focuses on nanotechnology as the site for exploring the evolution and growth of RRI. (shrink)

Nanoparticles have multifaceted advantages in drug administration as vaccine delivery and hence hold promises for improving protection of farmed fish against diseases caused by pathogens. However, there are concerns that the benefits associated with distribution of nanoparticles may also be accompanied with risks to the environment and health. The complexity of the natural and social systems involved implies that the information acquired in quantified risk assessments may be inadequate for evidence-based decisions. One controversial strategy for dealing with this kind of (...) uncertainty is the precautionary principle. A few years ago, an UNESCO expert group suggested a new approach for implementation of the principle. Here we compare the UNESCO principle with earlier versions and explore the advantages and disadvantages by employing the UNESCO version to the use of PLGA nanoparticles for delivery of vaccines in aquaculture. Finally, we discuss whether a combined scientific and ethical analysis that involves the concept of responsibility will enable approaches that can provide a supplement to the precautionary principle as basis for decision-making in areas of scientific uncertainty, such as the application of nanoparticles in the vaccination of farmed fish. (shrink)