On a mountainside in sunny Tuscany, in October 1989, 96 people from 23 countries on five continents gathered to learn and teach about the problems of managing contemporary science. The diversity of economic and political systems represented in the group was matched by our occupations, which stretched from science policy practitioners, through research scientists and engineers, through academic observers of science and science policy. It was this diversity, along with the opportunities for infonnal discussion provided by long meals and remote location, that made the conference a special learning experience. Except at lecture time, it was impossible to distinguish the "students" at this event from the "teachers," and even the most senior members of the teaching staff went away with a sense that they had learned more from this group than from many a standard conference on science policy they had attended. The flavor of the conference experience cannot be captured adequately in a proceedings volume, and so we have not tried to create a historical record in this book. Instead, we have attempted to illustrate the core problems the panicipants at the conference shared, discussed, and debated, using both lectures delivered by the fonnal teaching staff and summaries of panel discussions, which extended to other panicipants and therefore increased the range of experiences reponed.

Countries establish defence industries for various reasons. Chief among these are usually a concern with national security, and a desire to be as independent as possible in the supply of the armaments which they believe they need. But defence industries are different from most other industries. Their customer is governments. Their product is intended to safeguard the most vital interests of the state. The effectiveness of these products (in the real, rather than the experimental sense) is not normally tested at the time of purchase. If, or when, it is tested, many other factors (such as the quality of political and military leadership) enter into the equation, so complicating judgments about the quality of the armaments, and about the reliability of the promises made by the manufacturers. All of these features make the defence sector an unusually political industrial sector. This has been true in both the command economies of the former Soviet Union and its satellites, and in the market or mixed economies of the west. In both cases, to speak only a little over-generally, the defence sector has been particularly privileged and particularly protected from the usual economic vicissitudes. In both cases, too, its centrality to the perceived vital interests of the state has given it an unusual degree of political access and support.

List of Figures - List of Tables - Acknowledgements - PART 1 INTRODUCTION - Introduction: How to Study the Force of Science; M.Callon, J.Law and A.Rip - PART 2 THE POWER OF TEXTS IN SCIENCE AND TECHNOLOGY - The Sociology of an Actor-Network: The Case of the Electric Vehicle; M.Callon - Laboratories and Texts; J.Law - Writing Science: Fact and Fiction: The Analysis of the Process of Reality Construction through the Application of Socio-Semiotic Methods to Scientific Texts; B.Latour and F.Bastide - The Heterogeneity of Texts; J.Law - Mobilising Resources through Texts; A.Rip - PART 3 MAPPING SCIENCE AND TECHNOLOGY - Qualitative Scientometrics; M.Callon, A.Rip and J.Law - Aquaculture: A Field by Bureaucratic Fiat; S.Bauin - State Intervention in Academic and Industrial Research: The Case of Macromolecular Chemistry in France; W.Turner and M.Callon - Pinpointing Industrial Invention: An Exploration of Quantitative Methods for the Analysis of Patents; M.Callon - Technical Issues and Developments in Methodology; J-P.Courtial - Future Developments; M.Callon, J-P.Courtial and W.Turner - PART 4 CONCLUSIONS - Putting Texts in their Place; M.Callon, J.Law and A.Rip - Glossary - Bibliography - Index

This book charts the development of nanotechnology in relation to society from the early years of the twenty-first century. It offers a sustained analysis of the life of nanotechnology, from the laboratory to society, from scientific promises to societal governance, and attempts to modulate developments.

Part of a series examining different aspects of knowledge and society, this volume focuses on the anthropology of science and technology. Divided into three parts, it covers: the reconstruction of medical science and technology; science and technology at large; and discipline, culture and power.

Longer-term developments shape the present and endogenous futures of institutions and practices of science and technology in society and their governance. Understanding the patterns allows diagnosis and soft intervention, often linked to scenario exercises. The book collects six articles offering key examples of this perspective, addressing ongoing issues in the governance of science and technology, including nanotechnology and responsible research and innovation. And adds two more articles that address background philosophical issues.

On a mountainside in sunny Tuscany, in October 1989, 96 people from 23 countries on five continents gathered to learn and teach about the problems of managing contemporary science. The diversity of economic and political systems represented in the group was matched by our occupations, which stretched from science policy practitioners, through research scientists and engineers, through academic observers of science and science policy. It was this diversity, along with the opportunities for infonnal discussion provided by long meals and remote location, that made the conference a special learning experience. Except at lecture time, it was impossible to distinguish the "students" at this event from the "teachers," and even the most senior members of the teaching staff went away with a sense that they had learned more from this group than from many a standard conference on science policy they had attended. The flavor of the conference experience cannot be captured adequately in a proceedings volume, and so we have not tried to create a historical record in this book. Instead, we have attempted to illustrate the core problems the panicipants at the conference shared, discussed, and debated, using both lectures delivered by the fonnal teaching staff and summaries of panel discussions, which extended to other panicipants and therefore increased the range of experiences reponed.

Countries establish defence industries for various reasons. Chief among these are usually a concern with national security, and a desire to be as independent as possible in the supply of the armaments which they believe they need. But defence industries are different from most other industries. Their customer is governments. Their product is intended to safeguard the most vital interests of the state. The effectiveness of these products (in the real, rather than the experimental sense) is not normally tested at the time of purchase. If, or when, it is tested, many other factors (such as the quality of political and military leadership) enter into the equation, so complicating judgments about the quality of the armaments, and about the reliability of the promises made by the manufacturers. All of these features make the defence sector an unusually political industrial sector. This has been true in both the command economies of the former Soviet Union and its satellites, and in the market or mixed economies of the west. In both cases, to speak only a little over-generally, the defence sector has been particularly privileged and particularly protected from the usual economic vicissitudes. In both cases, too, its centrality to the perceived vital interests of the state has given it an unusual degree of political access and support.

This book charts the development of nanotechnology in relation to society from the early years of the twenty-first century. It offers a sustained analysis of the life of nanotechnology, from the laboratory to society, from scientific promises to societal governance, and attempts to modulate developments.

List of Figures - List of Tables - Acknowledgements - PART 1 INTRODUCTION - Introduction: How to Study the Force of Science; M.Callon, J.Law and A.Rip - PART 2 THE POWER OF TEXTS IN SCIENCE AND TECHNOLOGY - The Sociology of an Actor-Network: The Case of the Electric Vehicle; M.Callon - Laboratories and Texts; J.Law - Writing Science: Fact and Fiction: The Analysis of the Process of Reality Construction through the Application of Socio-Semiotic Methods to Scientific Texts; B.Latour and F.Bastide - The Heterogeneity of Texts; J.Law - Mobilising Resources through Texts; A.Rip - PART 3 MAPPING SCIENCE AND TECHNOLOGY - Qualitative Scientometrics; M.Callon, A.Rip and J.Law - Aquaculture: A Field by Bureaucratic Fiat; S.Bauin - State Intervention in Academic and Industrial Research: The Case of Macromolecular Chemistry in France; W.Turner and M.Callon - Pinpointing Industrial Invention: An Exploration of Quantitative Methods for the Analysis of Patents; M.Callon - Technical Issues and Developments in Methodology; J-P.Courtial - Future Developments; M.Callon, J-P.Courtial and W.Turner - PART 4 CONCLUSIONS - Putting Texts in their Place; M.Callon, J.Law and A.Rip - Glossary - Bibliography - Index

The embedding of any new technologies in society is challenging. The evolving state of the scientific art, often-unquantifiable risks and ill-defined developmental trajectories have the potential to hinder innovation and/or the commercial success of a technology. The are, however, a number of tools that can now be utilized by stakeholders to bridge the chasm that exists between the science and innovation dimensions on the one hand, and the societal dimensions on the other. This edited volume will draw together leading researchers from the domains of law, philosophy, political science, public administration and the natural sciences in order to demonstrate how tools such as, for example, constructive technology assessment, regulatory governance and societal scenarios, may be employed by stakeholders to assist in successfully embedding new technologies into society. This volume will focus primarily on the embedding of two emergent and emerging technologies: nanotechnologies and synthetic biology. Government, industry and the epistemic community continue to struggle with how best to balance the promised benefits of an emerging technology with concerns about its potential impacts. There is a growing body of literature that has examined these challenges from various cultural, scientific and jurisdictional dimensions. There is, however, much work that still needs to be done; this includes articulating the successes and failures of attempts to the societal embedding of technologies and their associated products. This edited volume is significant and timely, as unlike other books currently on the market, it shall draw from real work experiences and experiments designed anticipate the societal embedding of emerging technologies. This empirical work shall be supported by robust theoretical underpinnings.