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Knowledge Agents from the iterations
Knowledge Base
Compiled for Greene,
Tweed & Co., June 29, 2001
For more information contact Jeffrey
Johnston, Ph.D., (650) 470-1171
Click here for
the list of articles collected in November 2001.
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"Read not to contradict and confute,
nor to believe and take for granted, not to find talk and
discourse, but to weigh and consider."
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Francis Bacon
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How to use these articles
syntopically
To read syntopically is to read many books or
articles simultaneously, and to study each work in relation to
the others and to the subject around which they revolve. Syntopical
reading demands that the reader bring a new synthesis to construct
an analysis of the subject that is not in any single article or
book.
In this spirit, approach the articles on this
page as a coherent body of knowledge, rather than just a collection
of articles. Individually, as single views, these articles are
not particularly insightful, but read as a collection they provide
a wealth of information from which insights not contained in any
one of the articles can be formulated.
What does this body of knowledge say about the
field of materials science? Look for patterns in the article titles,
in the topics, in the methods, and in the conclusions. Look for what the articles say, as well as what they don't
say. What are the authors missing? Individually and collectively.
Look for the connections, the things that tie even the seemingly
unrelated articles together. What are the emerging trends? Where
is innovation happening? What are the opportunities for Greene,
Tweed to leverage its strengths and create new markets?
As you think about these questions, keep in mind
that this body of knowledge is not necessarily comprehensive or
complete. It is a mere snapshot, one person's catch of information
relevant to the field of materials science. The more you expand
this body of knowledge by following-up on these articles and following
your curiosity to expand the list of sources, the more meaningful
the answers and the insights to and from the above questions will
be.
While individuals can read syntopically, the
process is most powerful when it is approached by a group. To
facilitate this, we often break this exercise down into three
parts.
1. Spend time individually with different selections
of articles, reading some articles in depth and scanning others.
2. Take time as a group to discuss the articles and their implications
for Greene, Tweed. If you were the author, what advice would you
have for Greene, Tweed? What questions would you ask? What steps
would you take?
3. Take this information and as a team, identify the key implications
of your reading to the long-term success of Greene, Tweed. Define
the terrain, the issues, the concerns, and impacts of technological
and social change that must be tracked and considered to achieve
a long-term strategy.
This type of exercise could be conducted periodically
with different groups within Greene, Tweed. If shared between
groups, the output of each of these sessions could be very powerful
in helping drive the organizational transformation efforts.
(The concept of syntopical reading
comes from How
to Read a Book, by Mortimer Adler and Charles Van Doren.)
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| Most of the agent titles below are hyperlinked to the original article.
Note however, that a number of the sources limit access to paid subscribers.
In general: |
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Access to these sources is open:
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Access to these sources is restricted to
subscibers:
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Fortune
New Scientist
Physics Today
Red Herring
Scientific American
Technology Review
The Scientist (registration required)
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C&E News
Nature
Science
Science News
The Chronicle of Higher Education
The Wall Street Journal
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While the links to the articles were all working on June 29, 2001
when this page was assembled, links change with time and some articles
may no longer be available. Please e-mail me
dead links that you find and I'll try to update them if possible.
New Scientist recreated their website shortly after this
page was published, so none of the links to New Scientist articles
appear to be working.
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Agent Title
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Agent Author
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Agent Source
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Agent Date
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Keywords
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David Adam
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Nature
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May 17, 2001
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materials science, textiles, warfare,
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Alexander H. Tullo
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C&E News
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March 5, 2001
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energy, electricity, fuel cell, transportation,
auto, materials science, chemistry,
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Richard P. Wool
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Nature
|
February 15, 2001
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materials science, polymer, smart materials, self-heal,
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Peter Fairley
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Technology Review
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July/August 2001
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energy, electricity, power grid,
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Alexandra Stikeman
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Technology Review
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July/August 2001
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materials science, magnetic,
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S. R. White et al.
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Nature
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February 15, 2001
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materials science, polymer, smart materials,
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Linda Wang
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Technology Review
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September/October 2000
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nanotechnology, biotechnology, DNA, molecular
computing,
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Mitch Jacoby
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C&E News
|
March 19, 2001
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nanotechnology, materials science, chemistry,
nanotubes,
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Gary Stix
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Scientific American
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July 2001
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optics, broadband, innovation, Corning, fiber,
materials science,
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David Voss
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Nature
|
September 28, 2000
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computing, organics, chips, electronics, chemistry,
plastic,
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Philip Ball
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Nature
|
July 13, 2000
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computing, chemistry, molecular electronics, nanowires,
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Mark A. Reed and James M. Tour
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Scientific American
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June 2000
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molecular computing, nanoelectronics, self-assembly,
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Yury Gogotsi, Sascha Weiz, Daniel A. Ersoy, and
Michael J. McNallan
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Nature
|
May 17, 2001
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materials science, diamonds, chemistry,
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Duncan Graham-Rowe
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New Scientist
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April 21, 2001
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smart materials, green, building, paint
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W. Wayt Gibbs
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Scientific American
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May 1996
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materials science, science policy, smart materials,
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Jonathan W. Steed
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Nature
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August 31, 2000
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materials science, crystals, chemistry, nanostructures,
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Michael L. Roukes
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Nature
|
June 14, 2001
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materials science, electronics, physics, spintronics,
quantum computing, qubits,
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Philip G. Collins, Michael S. Arnold, and Phaedon
Avouris
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Science
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April 27, 2001
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materials science, nanotubes, computing,
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Celia M. Henry
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C&E News
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March 5, 2001
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microfabrication, materials science, origami,
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Jeff Hecht
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Technology Review
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March 27, 2001
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optics, broadband, Internet, high speed, Alcatel,
NEC,
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George M. Whitesides and Abraham D. Stroock
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Physics Today
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June 2001
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materials science, MEMS, chemistry, microfluidics,
biology,
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David H. Gracias et al.
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Science
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August 18, 2000
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computing, self-assembly, electronics,
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Ricki Lewis
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The Scientist
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February 19, 2001
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buckyballs, nanotubes, microscopy, nanotechnology,
materials science,
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A. Maureen Rouhi
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C&E News
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June 11, 2001
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materials science, nanotubule, membrane, sensors,
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Stephen R. Quake and Axel Scherer
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Science
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November 24, 2000
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nanotechnology, materials science, fabrication,
microfluidics,
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Steve Jurvstson
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Red Herring
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June 15 & July 1, 2001
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nanotechnology, investing, biotech, MEMS,
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Steven Ashley
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Scientific American
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July 2001
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energy, fuel cell, power, cell phone, materials
science,
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Leigh Canham
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Nature
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November 23, 2000
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computing, materials science, silicon, optical
electronics, laser,
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Stuart F. Brown
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Fortune.com
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June 25, 2001
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energy, fuel cells, material science, transportation,
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Linda Wang
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Science News
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May 5, 2001
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nanotubes, nanoelectronics, nanowires,
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Ian Sample
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New Scientist
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May 12, 2001
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Design, smart materials, bridges, engineering,
material science
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Nature
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April 19, 2001
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energy, materials science, fuel cells, chemistry,
alternative energy,
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Alexandra Stikeman
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Technology Review
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June 2001
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materials science, shape memory polymers, smart
materials,
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Inorganic Tubes Get Smaller Than Ever
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J.G.
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Science News
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May 5, 2001
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nanotubes, molybdenum disulfide,
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Molly Williams
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The Wall Street Journal
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June 11, 2001
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computing, Intel, innovation, Moores Law,
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Ian Sample
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New Scientist
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May 26, 2001
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computing, Internet, optical transistor
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Nature
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March 29, 2001
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materials science, spider silk, polymer, liquid
crystal, biomimicry
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Rachel Nowak
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New Scientist
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October 7, 2001
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transportation, emissions, pollution, solution,
auto, materials science, diamonds,
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John Cumings and A. Zettle
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Science
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July 28, 2000
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nanotechnology, bearings, materials science, nanotubes,
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Making Molecules Into Motors
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R. Dean Astumian
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Scientific American
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July 2001
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nanotechnology, molecular motors, engineering,
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Robert F. Service
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Science
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June 16, 2000
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energy, fuel cells, materials science, chemistry,
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Paul Calvert
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Nature
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May 28, 1998
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materials science, spider silk,
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Josette Chen
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Nature
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May 17, 2001
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materials science, MEMS,
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Pamela Zurer
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C&E News
|
March 12, 2001
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nanotechnology, materials science, nanotubes,
fullerenes,
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Philip E. Ross, Stephan Herrera, and Lee Bruno
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Red Herring
|
June 15 & July 1, 2001
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nanotechnology, materials science, health, optics,
Quantum Dot,
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Laszlo Forr
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Science
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July 28, 2000
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nanotechnology, materials science, bearings, nanotubes,
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Dan Feldhheim
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Nature
|
November 2, 2000
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nanotechnology, nanoelectronics, molecular electronics,
chemistry,
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Ben L. Feringa
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Nature
|
November 9, 2000
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nanotechnology, molecular motors,
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Peter Monaghan
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The Chronicle of Higher Education
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December 15, 2000
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nanotechnology,
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C&E News
|
October 16, 2001
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nanotechnology, materials science, nanoelectronics,
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Oliver G. Schmidt and Karl Eberl
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Nature
|
March 8, 2001
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nanotechnology, nanotubes,
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Ron Dagani
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C&E News
|
April 16, 2001
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nanotechnology, materials science, nanotubes,
C60, crystals,
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Jack Mason
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Technology Review
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May 24, 2001
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materials science, nanotubes, buckyballs, self-assembly
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Ron Dagani
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C&E News
|
November 20, 2000
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nanotechnology, materials science, fibers, nanotubes,
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Karl Ziemelis
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Nature
|
August 31, 2000
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computing, microelectronics, physics, materials
science,
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Novel Nanotubes Are Now Made-To-Order
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J.G.
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Science News
|
May 5, 2001
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nanotubes, materials science,
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Michael Freemantle
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C&E News
|
January 22, 2001
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computing, photonics, crystals, chips,
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Florence Olsen
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The Chronicle of Higher Education
|
June 8, 20001
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optics, Internet, broadband,
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Michael Freemantle
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C&E News
|
April 23, 2001
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display, materials science, organic
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Phillip John
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Science
|
June 8, 2001
|
laser, material science, diamond, UV,
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|
Jean-Pierra Sauvage
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Science
|
March 16, 2001
|
nanotechnology, molecular motors, chemistry,
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|
|
Mildred S. Dresselhaus
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Science
|
April 27, 2001
|
nanotechnology, nanoelectronics, nanotubes, materials
science,
|
|
|
Philip Ball
|
Nature Science Update
|
November 23, 2000
|
computing, materials science, silicon, optical
electronics, laser, nanocrystals,
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|
|
Steve Stinson
|
C&E News
|
February 19, 2001
|
materials science, smart materials,
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|
|
Michael Freemantle
|
C&E News
|
March 5, 2001
|
nanotechnology, materials science, nanowires,
chemistry, computing,
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|
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Gary Stix
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Scientific American
|
March 2001
|
materials science, self assembly, optoelectronics,
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|
|
Wil McCarthy
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Nature
|
October 5, 2000
|
spoze, material science, quantum
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|
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Gary Stix
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Scientific American
|
May 2001
|
electrorheological fluids, magnetorheological
fluids,
|
|
|
Elizabeth K. Wilson
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C&E News
|
November 6, 2000
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quantum computing, chemistry, materials science,
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|
Carter T. White and Tchavdar N. Todorov
|
Nature
|
June 7, 2001
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nanotubes, computing, quantum electronics,
|
|
|
Jack Mason
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Technology Review
|
April 9, 2001
|
material science, nanofilms,
|
|
|
Michael H. Huang et al.
|
Science
|
June 8, 2001
|
materials science, nano, laser, UV,
|
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Mitch Jacoby
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C&E News
|
August 21, 2000
|
computing, nanotechnology, self-assembly, chemistry,
electronics,
|
|
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Ron Dagani
|
C&E News
|
April 23, 2001
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nanotubes, materials science,
|
|
|
W. Wayt Gibbs
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Scientific American
|
May 1996
|
materials science, smart materials,
|
|
|
Sossina M. Haile et al.
|
Nature
|
April 19, 2001
|
fuel cell, energy, electricity, materials science,
chemistry,
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|
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Ron Dagani
|
C&E News
|
May 7, 2001
|
nanotechnology, nanotubes, materials science,
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|
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Mairin Brennan
|
C&E News
|
February 5, 2001
|
materials science, smart materials, shape-memory
polymer,
|
|
|
Robert Coontz and Phil Szuromi
|
Science
|
November 24, 2001
|
nanotechnology,
|
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|
Paul S. Peercy
|
Nature
|
August 31, 2000
|
computing, Moores Law, miniaturization,
materials science,
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|
Steve Silberman
|
WIRED
|
July 2001
|
energy, distributed power, micropower, EPRI,
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Philip S. Anton, Richard Silberglitt, and James
Scheider
|
RAND
|
2001
|
technology, bio, nano, materials science, information,
RAND,
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Philip Ball
|
Technology Review
|
May 2001
|
optics, broadband, materials science, Internet,
photonics,
|
|
|
Truis Norby
|
Nature
|
April 19, 2001
|
fuel cells, materials science, energy, chemistry,
|
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Claire Tristam
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Technology Review
|
November/December 2000
|
computing, software, Transmeta, chip,
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|
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Ivan Amato
|
Fortune.com
|
June 25, 2001
|
nanotechnology, nanotubes, soot, buckytubes, materials
science,
|
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|
Adam J. Ruben and Laura F. Landweber
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Nature Reviews - Molecular Cell Biology
|
October 2000
|
molecular computing, DNA, biology,
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Graham P. Collins
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Scientific American
|
March 2001
|
computing, physics, optics, quantum, materials
science,
|
|
|
Seth Lloyd
|
Nature
|
August 31, 2000
|
computing, physics, black hole, ultimate limits,
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Satoshi Koizumi et al.
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Science
|
June 8, 2001
|
materials science, laser, diamond, UV,
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Michael Brooks
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New Scientist
|
September 30, 2000
|
materials science, rapid prototyping, 3D printing,
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Mitch Jacoby
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C&E News
|
January 1, 2001
|
nanotechnology, computing, materials science,
nanotubes, nanowires,
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Alan Leo
|
Technology Review
|
February 8, 2001
|
computing, nanoelectronics, Intel, electronics,
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