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Quote of the Week.
It's amazing what chip developers
now consider "common" technology!
NBIC Update.
This new "super-convergence" will
be changing ALL the rules.
What's Next?
Our technological future is not
without its risks!
Reshaping The World Around Us.
If Nature doesn't work the way we
want -- just change it!
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Back to Table of Contents
"We
are in development of a 1-billion transistor
microprocessor.
It's not rocket science, and we are well on our
way."
Paul Otellini, president and chief operating
officer, Intel,
at the Sept. 10 Intel Developer's Conference.
http://www.eet.com/story/OEG20020909S0083
(Brought to our attention by reader Sander Olson.)
These and other advances in computing capability
that we're going to be experiencing in the near
future are pretty impressive.
For example, it's Intel's expectation that they
will offer a 3.0+ GHz Pentium -- well before this
holiday shopping season! And they've just
demonstrated a "tri-gate" transistor (http://www.siliconstrategies.com/story/OEG20020916S0088
- also with thanks to reader Sander Olson).
AMD has just announced their fabrication of "the
world's smallest double-gate transistors" with gate
lengths of a mere 10 nanometers
(http://www.siliconstrategies.com/story/OEG20020909S0106).
And IBM describes its "Fin-Fet" version of a
double-gate transistor at
http://news.com.com/2100-1001-957087.html
(with thanks to reader Sanford Forte.)
Don't Blink!
Back to Table of Contents
NBIC, or the convergence of Nanotechnology,
Biology, Information sciences, and Cognitive
sciences, is going to be producing an incredible
array of products and services that I suspect will
go far beyond where even science fiction writers
have yet to tread. Take, for example, these
preliminary indications of an innovative, "stickless"
way for diabetics to keep track of their glucose
levels, as reported in the Sept. 1 BBC News and
brought to our attention by reader Kenneth LaCrosse
(http://news.bbc.co.uk/2/hi/health/2225404.stm):
High Tech Tattoos.
The system starts with a very high-tech tattoo.
But instead of ink that is absorbed by cells, this
tattoo uses polyethylene-glycol beads, which are
coated with fluorescent molecules, which happen to
be just a bit larger than ink molecules. Which is
quite important, because this allows the tattoo to
remain in the interstitial fluid between cells,
where glucose levels closely mirror the glucose
levels in the blood. (Why not let the molecules
enter the cells like traditional tattoo ink?
Because the glucose within cells is rapidly
converted to energy and so would show consistently
low levels.)
Because the tattoo's molecules fluoresce more
brightly as the glucose levels fall, a watch or
other sensor over the tattoo can track and record
glucose levels, and alarm the wearer when
necessary. I can also imagine that this technique
might be very useful for future embedded dispensing
devices that might do away with constant insulin
injections.
Of course this tattoo is still in the laboratories,
but it seems to be working on rats, which is a good
initial indication. And it is most certainly, "out
of the box!"
Better "Video Cards"
For Restoring Sight!
On another NBIC front, Ken points us to a Sept. 5
announcement from Sandia National Labs (http://www.sandia.gov/news-center/news-releases/2002/mat-chem/blindsee.html)
that describes work going into an artificial retina
that would generate "1,000 points of light;" it's in
the form of an array of MEMS stimulators that could
stand-in for damaged rods and cones, or for eyes
damaged by certain diseases. The camera would sit
on eyeglasses, and it would send the image data and
the power run the implant (at the back of the eye)
via a radio signal!

Of course a 1,000-point array is far coarser
than normal eyesight's million or so pixels, but it
could free up otherwise blind people to be far more
self-sufficient.
And things will only get better:
"Compared to the
elegance of the original biological design, what
we’re doing is extremely crude," says Wessendorf.
"We are trying to build retinal implants in the form
of electrode arrays that sit on the retina and
stimulate the nerves that the eye's rods and cones
formerly served."
"The size of cones
and rods, as well as nerve connections, are in the
micron range -- a difficult but doable realm for
scientists used to working with micromachines.
'We'll [initially]
use a crude, shotgun approach that fires groups of
nerves. In the long run, of course, we’d like to
stimulate each individual nerve.'"
Nanomedicine.
For another example, consider the idea of tiny
nanomachines traveling your bloodstream, designed to
home-in on specific types of tissue. If these come
to pass, you might program these machines to
congregate at the vessels that supply blood to
cancerous tumors, choking-off the blood supply and
thereby killing the tumor. Or how about
nanomachines that target the lymphatic vessels that
drain tumors -- close them down and the tumor might
also be shut down. But this isn't science fiction
-- it's just another example of sci fi coming true
(at least in the laboratory, so far) -- researchers
at the Burnham Institute and UCSD's Jacobs School of
Engineering have combined nanotechnology and biology
to successfully home in on these specific tissue
types!
According to the 9/11 MIT Technology Review
brought to our attention by reader Rocky Rawstern
(http://www.technologyreview.com/offthewire/3001_1192002_2.asp),
these folks,
"...programmed
miniature, nanocrystalline semiconductor particles,
called quantum dots ("qdots"), and wrapped them with
tiny pieces of protein that home to specific
addresses inside living tissue ("homing peptides")."
Sangeeta Bhatia, developer of these qdots, summed
up their excitement,
"We are enthusiastic
about these results because we showed that qdots
could be successfully used inside the body without
causing blood clotting, and because the homing
peptides successfully directed the qdots to a
specific type of cancer, in this case, breast
cancer."
Just The VERY
Beginning!
NBIC is indeed going to
be DRAMATICALLY changing our lives!
Don't Blink!

Back to Table of Contents
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Jeff Harrow
Back to Table of Contents
We spend a lot of time, here in The Harrow
Technology Report, exploring the positive
potentials, and sometimes the risks, that our
exponentially-growing technologies may deliver.
Often, this is my take of where these trends may
lead. But it's also important to look at other
views for balance. Which is why it's my pleasure to
point you to the "What's Next" paper written by
British Telecom's ("BTexact Technologies'") well
known futurist, Ian Pearson.
INTRODUCTION:
Let's begin with an overview of what's ahead, as
Ian sets the stage:
"We are already
witnessing disruptive technologies in action. New ad
hoc networks and powerful terminals with large
storage capability are threatening the future
profitability of public networks. Discussions
relating to network disposal are therefore highly
appropriate and disposal may prove good sense; but,
however much this may affect us, it is a very minor
disturbance compared to what lies ahead.
I have been a
futurist for many years and for most of that time I
was very optimistic about our future, believing that
whatever problems come our way, technology will save
us. Industries may come and go and empires rise and
fall, but humans as a whole would be much better
off. In recent years, I have become rather less
optimistic, for good reason. I will share my
concerns in this paper as some other futurists have
done recently, even in the certain knowledge that
doing so will not change anything.
Scientific
understanding in many fields is quickly followed by
commercial exploitation of the knowledge through
advanced technology. This has brought about a
greatly improved quality of life over the last few
centuries. But more recently, technology development
has accelerated much faster than basic science.
Commercial needs often push science into the
background, providing only the funding required to
attack the next blockage, and this trend even
affects university-based research, which has had to
become much more commercially focused. Fields that
are not immediately obvious as being commercially
important attract much less funding. This dangerous
trend comes at the time when we are embarking on the
creation of several new technologies that are
capable of making life on earth extinct, or at least
wiping out a large part of it. Developing such
technologies in the absence of a much more developed
scientific understanding seems reckless. The
technologies in question today are:
-
Artificial intelligence, especially
when coupled with robotics;
-
Nanotechnology; and
-
Biotechnology, especially genetic
modification technologies.
These could
undoubtedly bring many benefits, but only if we are
still alive to enjoy them. They can only be
developed safely if we either dramatically speed up
scientific study, or greatly slow down technology
development. The problems are made all the more
difficult because of their complex interaction with
human systems, which are often far from rational.
Many future dangers might arise simply from the
attempts of people to stop problems. An anti-science
backlash would be irrational but fairly likely, and
thereby present an ongoing danger. The subsequent
sections highlight just a few of the potential
dangers ahead that are linked to technological
progress."
Continuing on, let's look at a brief (annotated)
highlight of several chapters. Of course these
discussions are only intended to whet your appetite
for reading the entire paper, which is at
http://www.sc-server1.bt.com/bttj/vol19no4/wsn/fulltext.htm
!
DISRUPTION:
Could Douglas Adam's rather powerful "do
everything, instantly, from anywhere in the galaxy"
future PDA become a reality? Possible, although
still in the future. But think of the "disruption"
this would cause across many industries and
businesses.
For another example of "disruption," look at the
competition that free WiFi (802.11) wireless
networks have already created in the wireless world,
with some people even renting planes to "scout" a
city for open 802.11 networks and mapping them for
all ("War-flying.") (For additional insights, see
the Oct. 10 Wired article "Being Wireless" at
http://www.wired.com/wired/archive/10.10/wireless.html
by Nicholas Negroponte, for his views of why WiFi,
or 802.11 wireless networks, are poised to
"transform the future of telecom").
ARTIFICIAL INTELLIGENCE AND ARTIFICIAL LIFE:
"AI researchers are
not generally trying to emulate human thinking, but
to enable computers to do those tasks for which
humans need intelligence, by any means that work."
Nevertheless, although not "intelligent" as we
might define it for a human (or a dog, or even
tool-using monkeys), specialized AI systems are
continuously getting better at performing their
individual tasks:
"One day there will
be little left that only we can do, and by then,
machines will be able to do many things that we will
be unable to do! It would seem unlikely that
human-level intelligence is the maximum possible
level, and there is little reason to believe that
machines will stop improving when they start
approaching human levels. Soon, most knowledge will
be machine knowledge, and most of the systems on
which we all depend will only be understood by
machines."
Which is something we're already seeing take
place. Can you imagine doing any modern design task
without computer assistance?
"Dependence on AI presents a human threat,
too..."
Consider this at the time that we have little
nanomachines running around in our bodies. Not to
mention the already-taking-place automation of much
of our critical infrastructure...
TERMINATOR SCENARIO:
"A potentially
bigger threat than other humans trying to bring down
our systems is mutiny by smart machines that do not
want to work for us any more. AI-enhanced weapon
systems could interact in unintended ways. In the
worst case, smart machines could eliminate humans.
The Nanotechnology Development Corporation (formerly
Robodyne Cybernetics) has already developed and
prototyped mechanisms that could be used to
construct a real-life version of the T1000 liquid
metal android from the Terminator 2 film!" ...
"The Terminator films are set a couple of decades
too early, and we have no idea how to do time
travel, but most of the rest of the film is
technologically feasible, the big exception being
that in the end the people win. Faced with a highly
superior life form that controls our life support
systems and is capable of designing weapons far
beyond our capability, this seems a most unlikely
outcome."
Do you remember "Colossus: The Forbin Project
(1970)? Info and trailers are at
http://us.imdb.com/M/title-exact?+Colossus:+The+Forbin+Project
.
AI-BASED CRIME:
Intelligent computers that could self-evolve
their computer code could revolutionize the still
slow, human-intensive, expensive, and "artistic"
rather than "scientific" way that we code most
computer programs today. But if this task is
eventually taken over by computers, will we really
know (or be able to figure out) what the program is
ACTUALLY doing? Combine this threat with the
growing number of "distributed processing
applications," such as SETI@home, and the growing
number of "media sharing" networks. Now, imagine
adding "exploits" into those distributed programs,
either by nefarious human programmers or as
unintended side effects of computer-generated code
-- suddenly, supercomputer power becomes available
to perform hidden tasks.
"Given the effective
intelligence of some of the code that will be
produced by these systems in the far future, it may
well be the case that the worst master-criminals in
the history of the world will actually be
software."
NANOTECHNOLOGY AND
SELF-REPLICATION:
"The engineering of components with feature
sizes less than 100 nanometres is called
nanotechnology. 100 nanometres is only the width
of 1000 hydrogen atoms, so the technology is one
that calls for thinking in terms of individual
atoms or molecules, rather than the bulk
quantities of atoms with which today’s engineering
works. Biology works at this scale within every
cell of our bodies, so it is only a matter of time
before engineers master the techniques. We will
eventually be able to routinely manufacture
atomically precise products." ...
"However, moving
down this road without absolute control over the
devices and their environment is a sure recipe for
disaster. Sadly, weapons using this technology have
already been conceived..."
GRADUALITY:
"Technology mostly
develops gradually, so gradually in fact that many
people tell me that nothing much has changed over
the last decade. Yet a decade ago, they were
probably not using a PC, or cellphone, satellite TV,
or even a fax, let alone a Palm Pilot or DVD drive.
People quickly forget what things used to be like.
In the same way, attitudes change gradually, yet
over a few years they can change dramatically." ...
"Graduality is also dangerous because people become
oblivious to a problem when it doesn’t occur for a
long time. A man falling off a cliff can tell
himself: 'It’s OK so far' -- all the way to the
bottom!"
Think about this in the context of any of the
exponential growth curves you've experienced.
Because things start out very slowly (the initial
almost-flat part of the curve), people don't get too
concerned. But as we know from the advances in CPU
power, communications speeds, and far more, during
the knee and the steeply-rising parts of the
exponential curve, people and businesses who don't
pay VERY careful attention can find themselves
superfluous in the new environment. And there are
some VERY significant technologies now headed in
this direction.
(Preventing this, of course, is
what "The Harrow Technology Report" is all
about!)
MUCH MORE!
These comments covered less than half of the
chapters in the paper (the others are Positive
Feedback; Star Trek, Or Brave New World?;
Globalization; Environmentalism And Anti-Science;
Networked Stupidity; Complexity And Emergent
Behaviors; Biotechnology; Wildcard Exponentiation;
and Conclusions. But those we've looked at
should give you a good sense of the sometimes
uncomfortable, but very-important-to-think-about
things that we may have ahead of us.
Check out the full paper at
http://www.sc-server1.bt.com/bttj/vol19no4/wsn/fulltext.htm
. And, yet again --
Don't Blink!

Back to Table of Contents
Finally, we tend to explore many of the
technological revolutions that, in various ways, are
changing the world around us, often through new ways
for us to interact with and "package" information.
But a picture that I came across in the June 20
issue of Ken Ruthowski's "Daily Tech News"
(http://kenradio.com/images/062002.jpg)
demonstrates a rather different approach to
"packing" things -- in this case, how to get big,
ungainly ovoid watermelons to better-fit into our
rectangular refrigerators. The answer -- grow
cube-shaped watermelons!

They come from farms in Zentsuji, Japan, and sell
for about $80 each.
Who says that you can't fit a round peg into a
square hole!!
I really have to give them an "A+" for, dare I
say it -- thinking INSIDE the box...?
"The Harrow Technology Report" explores the innovations and
trends of many contemporary and emerging technologies, and then draws some less
than obvious connections between them, to help us each survive and prosper in
the Knowledge Age.
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