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Nanotechnology

A big future for small things? Global Investor Focus, 02/2005 Credit Suisse

A big future for small things?
Global Investor Focus, 02/2005
Credit Suisse

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GLOBAL INVESTOR FOCUS<br />

<strong>Nanotechnology</strong>—21<br />

Arthur Vayloyan, member of the Credit Suisse Executive Board and<br />

Head Private Banking Switzerland: “It is one of our primary responsibilities to<br />

provide timely, well-founded advice, identify investment trends and new<br />

markets at an early stage, and to realistically evaluate opportunities and risks.”<br />

Maria Custer, biochemist, Credit Suisse Equity Research: “Although its<br />

potential is difficult to assess, the chances that nanotechnology will change<br />

traditional industries and global economic structures are high.”<br />

the 20th century – and before. However, Europe missed the three<br />

major technology developments: microelectronics or microtechnology<br />

as a whole, computers and informatics, and biotechnology. Let’s<br />

hope for the best this time.<br />

Viola Vogel: In terms of governmental investments in nanotechnology,<br />

Europe, Asia and the US are shoulder to shoulder. The question<br />

will be how well Europe is prepared to convert new discoveries<br />

into competitive products.<br />

Hans-Joachim Güntherodt: Let me focus on Switzerland,<br />

where Heinrich Rohrer and Gerd Binning invented a major ingredient<br />

of nanoscience, the scanning tunneling microscope, in 1981. This<br />

triggered nationwide efforts in the field. Nearly every university and<br />

other academic institutions are working in nanoscience. In the past<br />

few years, the Technology Oriented Program (TOP) NANO 21, which<br />

was created to ensure that Swiss businesses can make rapid use of<br />

nanometer-based technologies, has tried to promote cooperation<br />

between academia and industry. In addition, the Commission for<br />

Technology and Innovation’s nano/micro branch, in collaboration with<br />

the Swiss Academy of Engineering Sciences (SATW), established a<br />

transfer college. The National Center of Competence in Research<br />

“Nanoscale Science” has developed into a center of excellence, and<br />

a nano curriculum has been started at the University of Basel, where<br />

a new type of scientist will be educated. All this might further contribute<br />

to the very good position of Switzerland in this emerging<br />

field.<br />

Arthur Vayloyan: What are the short-, medium-, and long-term<br />

objectives and application areas of nanotechnology?<br />

Viola Vogel: The availability of nanoprobes and instrumentation<br />

to visualize and manipulate biological nanosystems will fundamentally<br />

change our knowledge base in the biosciences, and will contribute<br />

in a major way to transitioning biology from a descriptive to a<br />

quantitative science. Beyond providing new insights into how cells<br />

and organs work, the biggest pay-off for society might come from<br />

utilizing these quantitative insights combined with advanced imaging<br />

and analytical technologies for the early detection of diseases and<br />

their more effective treatment.<br />

Heinrich Rohrer: In the short term, we can expect nanotechnology<br />

to be applied to instrumentation and analytics; imaging and<br />

sensors are examples. Another rapidly growing area deals with nanostructured<br />

materials. In the medium term, it will be applied to molecular<br />

components, novel mechanical and chemical components (such as<br />

holes as gates to count electrons and ions, nanochemistry laboratories<br />

for in-situ synthesis), simple nanosystems (such as Millipede,<br />

a novel type of storage device developed in the IBM Rüschlikon<br />

Laboratory) ; in-situ growth and self-assembly of nanostructures and<br />

simple components; and the study of complex nanoprocesses (such<br />

as systems biology of cells ). In the long term, we might see remote<br />

(wireless) control of autonomous nanosystems and nanorobots, and<br />

self-assembly of whole nanosystems from nanocomponents (living<br />

objects are such self-assemblies; however, they are not subject of<br />

nanotech).<br />

Arthur Vayloyan: Along with the benefits also come potential<br />

and perceived risks. For example, there will certainly be public policy<br />

and social issues, such as safety, health risks, fear of unemployment<br />

(human labor made redundant by machines that produce better<br />

machines ), and moral issues (genetic manipulation ) to be considered.<br />

What are the true negative implications?<br />

Heinrich Rohrer: Today, we should be better prepared than we<br />

were when for example DDT and other pesticides, Freons, and dangerous<br />

chemicals were produced and used. We also recognize that<br />

it is not just a question of “what?” but also of “how much?” The true<br />

negative implication of nanotech is – as with other technical<br />

and social developments – the ever-growing separation of humankind<br />

into those who can keep up with change and those who cannot and,

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