Brune, H.; Ernst, H.; Grunwald, A.; Grünwald, W.; Hofmann, H.; Krug, H.; Janich, P.; Mayor, M.; Rathgeber, W.; Schmid, G.; Simon, U.; Vogel, V.; Wyrwa, D.
Berlin: Springer, ISBN 3-540-32819-X, 492 Seiten, 106,95 Euro
[Titelbild]
[Preface]
[Foreword]
[List of Authors]
Contents
Appraisal and Recommendations | 1 | |||
Scientific and Technical Needs | 1 | |||
Commercial Needs | 3 | |||
Societal and Ethical Aspects | 4 | |||
Education | 5 | |||
Recommendations | 5 | |||
1 | Introduction and Summaries | 9 | ||
1.1 | Introduction | 11 | ||
1.2 | Summaries | 11 | ||
1.3 | Zusammenfassungen | 17 | ||
2 | Nanotechnology and Philosophy of Science | 25 | ||
2.1 | Icons of Nanotechnology | 25 | ||
2.2 | The Approach | 29 | ||
2.3 | The Nano Domain as a Product of Non-Linguistic and Linguistic Human Action | 31 | ||
2.3.1 | What detines a Measurement? | 32 | ||
2.3.2 | A Critique of the Empiricist Theory of Measurement | 33 | ||
2.3.3 | What Defines Nano Size? | 34 | ||
2.4 | Epistemology of Innovation and Progress | 37 | ||
2.4.1 | Constructive Progress | 37 | ||
2.4.2 | Empirical Progress | 38 | ||
2.4.3 | The Principle of Methodical Order | 39 | ||
2.4.4 | The Foundation of Nanotechnology | 40 | ||
2.4.5 | Techniques, Technology, and Theory | 41 | ||
2.5 | Discoveries, Inventions, and Applications: The Role of Purposes in Nanotechnology | 43 | ||
2.5.1 | What Does it Mean to Apply Knowledge? | 43 | ||
2.5.2 | Discovery versus Invention | 44 | ||
2.5.3 | Acting Nano Scientists | 46 | ||
2.6 | Nanotechnology - Technical Know-How or Basic Scientific Research? | 49 | ||
2.6.1 | Technical or Natural? | 49 | ||
2.6.2 | Top Down or Bottom Up? | 50 | ||
2.6.3 | Historical Development versus Methodical Foundation | 51 | ||
2.6.4 | Classes of Substances, Nano-Scale and Protochemistry | 53 | ||
2.6.5 | Pictures or Artifacts Through Nano-Microscopy? | 54 | ||
2.7 | Consequences | 59 | ||
2.7.1 |
Is Nanotechnology a "Paradigm Change"? (An Epistemic Consequence) |
59 | ||
2.7.2 |
Responsibility for Effects and Side Effects (an Ethical Consequence) |
60 | ||
2.7.3 |
Where do the Aims and Purposes Come From? (A Political Consequence) |
61 | ||
2.7.4 | A Definition of Nanotechnology | 62 | ||
3 | Fields of Research and Technology | 67 | ||
3.1 | Materials | 69 | ||
3.1.1 | Metals | 69 | ||
3.1.2 | Semiconductors | 95 | ||
3.1.3 | Insulators | 97 | ||
3.1.4 | Molecules / Assemblies / Biomolecules | 99 | ||
3.1.5 | Hybrids / Composites | 121 | ||
3.1.6 | Boundary Surfaces | 137 | ||
3.2 | Information Storage | 143 | ||
3.2.1 | Stimulus: Electric / Electronic | 143 | ||
3.2.2 | Stimulus: Magnetic | 176 | ||
3.2.3 | Stimulus: Optical | 182 | ||
3.2.4 | Stimulus: Mechanic | 193 | ||
3.2.5 | Stimulus: Thermal | 196 | ||
3.3 | Biomedical Opportunities & Applications | 197 | ||
3.3.1 | A: Nanoparticles and their Biomedical Applications | 197 | ||
3.3.2 | B: Nanoanalytical Tools | 216 | ||
3.3.3 | B & C: Nanotechnology and Systems Biology | 230 | ||
3.3.4 | C: Bioinspired Engineering, Biomineralisation and Tissue Engineering | 235 | ||
3.3.5 | D: Interaction of Nanoparticles with Biosystems | 240 | ||
3.4 | Scaling Effects | 261 | ||
4 |
Commercial Perspectives ofNanotechnology - An AssessmentBased on Patent Data |
287 | ||
4.1 | Introductlon | 287 | ||
4.2 | Patents as Indicators of Technological Developments | 289 | ||
4.3 | Indicators and Tools for Systematic Patent Analyses | 293 | ||
4.3.1 | Patenting Indicators | 293 | ||
4.3.2 | Patent Portfolios | 294 | ||
4.4 | Patent Analysis in the Field of Nanotechnology | 299 | ||
4.4.1 | Patent Data Collection | 299 | ||
4.4.2 | Results | 301 | ||
4.4.3 | Bionanotechnology: Exploratory Patent Analysis in the Subfield Drug Delivery | 317 | ||
4.5 | Summary of Important Results and Implications | 319 | ||
5 | Risk Assessment and Risk Management | 329 | ||
5.1 | Introduction: Risks of New Technologies | 329 | ||
5.1.1 | Risk Issues of New Technologies | 330 | ||
5.1.2 | Risk Assessment and Risk Management - General Aspects | 333 | ||
5.1.3 | Risk Management of Nanotechnology - Specific Aspects | 336 | ||
5.2 | Risk Characterization in Nanotechnology | 339 | ||
5.2.1 | Production and Use ofNanomaterials | 341 | ||
5.3 | Risk Management | 369 | ||
5.3.1 | The Debate on Regulation Issues in Nanosciences | 369 | ||
5.3.2 | The Precautionary Principle | 372 | ||
5.3.3 | Dealing responsibly with Uncertainty about Nanotechnology Risks | 376 | ||
5.4 | Risk Communication | 381 | ||
5.4.1 | Emergence of the Public Risk Debate on Nanotechnology | 381 | ||
5.4.2 | Futuristic Visions in Public Debate | 382 | ||
5.5 | Prospective Risk Assessment as Concomitant Process | 395 | ||
6 | Ethical Aspects of Nanotechnology | 399 | ||
6.1 | The Relation between Science, Technology and Ethics | 401 | ||
6.2 | Ethically Relevant Fields of Nanotechnology | 405 | ||
6.2.1 | Nanoparticles - Chances versus Risks | 406 | ||
6.2.2 | Equity | 409 | ||
6.2.3 | Privacy and Control | 411 | ||
6.2.4 | Medical Applications | 413 | ||
6.2.5 | Crossing the Border between Technology and Life | 415 | ||
6.2.6 | Improving Human Performance by Converging Technologies | 417 | ||
6.3 | Are there Indicators for an Ethically Motivated Objection of Nanotechnology? | 421 | ||
6.4 | Ethical Vision Assessment | 423 | ||
6.4.1 | The Need for an Early Vision Assessment | 424 | ||
6.4.2 | Characteristics of Futuristic Visions | 425 | ||
6.4.3 | Vision Assessment with Respect to Ethical Issues | 427 | ||
6.4.4 | Responsibly Handling Futuristic Visions | 429 | ||
6.5 | Consequences and Conclusions | 433 | ||
6.5.1 | Do We Need a New "Nano-Ethics"? | 433 | ||
6.5.2 | Ethics as Concomitant Reflection of Nanotechnology | 434 | ||
6.5.3 | Ethics for Nanotechnology - Outline for Further Activities | 437 | ||
7 | Knowledge Transfer in Nanotechnology | 439 | ||
7.1 | Education at Academic LeveL | 439 | ||
7.2 | Knowledge Transfer to Industry and Regulatory Authorities | 445 | ||
7.3 | Knowledge Transfer to the Public(Science Goes Public) | 447 | ||
7.4 | Conclusions | 449 | ||
References | 451 |