Photo: Rick Friedman/WPN
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Matt Nagle, who is paralyzed from the
shoulders down, was the first person to test the
BrainGate Neural Interface System, which allowed
him to control a computer, a television, and a
robot using only his thoughts.
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In our latest survey of IEEE Fellows [“Bursting
Tech Bubbles Before They Balloon”],
conducted in conjunction with The Institute for the
Future, in Palo Alto, Calif., some 700 of the world’s
leading technological minds took an optimistic but
clear-eyed look at which technologies will—and won’t—be
making our lives bigger and better over the next 20 or
so years.
Most of them think that massively parallel-processing
computers will be used in mainstream applications and
that personal gigabit Internet access will be available
in developed countries. Virtually all see RFID becoming
ubiquitous and software-defined radio being commonly
integrated into consumer electronics. Our Fellows
predict a daily life saturated with information
technology. Kevin Kelly, a cofounder of Wired magazine,
calls this “zillionics”—rivers of sensory data flowing
day and night from zillions of sources.
And while some technologies of the future, like
quantum computing, nanotechnology, and autonomous
vehicles, may take longer than expected to arrive,
others may be closer than imagined. Take, for example,
neuroprosthetic devices. Brain chips that endow their
wearers with superhuman powers have long been a
mainstay of science fiction. But now “brain-machine
interfaces” are making a real-world splash in the field
of rehabilitative medicine.
A recent issue of Nature focused on the latest
developments in these devices, including an update on a
young paralyzed man, Matt Nagle, who was fitted with a
sensor chip designed to translate the electrical
impulses from his thoughts into commands to a computer
that controlled devices, such as an artificial limb. The
upshot of the report is that the experiment was a
success. The patient was able to maneuver a screen
cursor and some robotic devices—with his mind alone.
The article in question, “Neuronal Ensemble Control of
Prosthetic Devices by a Human with Tetraplegia,” by a
team from Brown University, in Providence, R.I., and
several U.S. hospitals, describes the use of neuromotor
prostheses “to replace or restore lost motor functions
in paralyzed humans by routing movement-related signals
from the brain, around damaged parts of the nervous
system, to external effectors.”
And then there is HP’s announcement of a new wireless
data chip smaller than a grain of rice that will take
the self-identifying capabilities of RFID chips to the
next level. Developed by the Memory Spot research team
at HP Labs, the new microchip is a CMOS device that is 2
to 4 millimeters square, with an antenna built onto its
silicon. Its immense writable memory and lightning-fast
data access let it tackle applications that RFID chips
can’t begin to manage.
HP claims that the Memory Spot chip can be used for
everything from storing medical records on a patient’s
wristband to helping keep identity cards and passports
secure. It transfers data at 10 megabits per second, and
early prototypes store as much as half a megabyte of
data. The minute size of the Memory Spot means it can be
used on almost anything, in the form of self-adhesive
dots.
Our survey authors, Marina Gorbis and David Pescovitz,
quote computing wizard Alan Kay’s famous adage, “The
best way to predict the future is to invent it.” And
IEEE Fellows, an elite group of men and women
representing the very best of their professions,
certainly have a big hand in that. Their forecast is
grounded in state-of-the-art engineering. Do you think
they got it right? Let us know. Drop us a line at
spectrum@ieee.org or visit our Web site
at http://www.spectrum.ieee.org.
The editorial content of IEEE Spectrum magazine
does not reflect official positions of the IEEE or
its organizational units. Please address comments to
Forum at n.hantman@ieee.org.