A new, innovative television model has been created that uses facial recognition technology to determine when you're starting to snooze, and actually switches off the picture when you nod off.
According to The Guardian, the Sony Bravia WE5 comes with a heat and motion sensor that lets the system switch off the set it's playing in an empty room, and an ambient light sensor that can reduce the output from the TV's backlight if the room gets dim, reports The New York Daily News.
"If you wander to make a cup of tea you will still be able to hear the TV but it won't be wasting energy showing the picture," a Sony spokesperson explained. As soon as the TV "senses" that you're back, the picture returns.
Sunday, May 16, 2010
Tuesday, May 11, 2010
Nanotechnology in Communication
Washington, May 4 (ANI): Communication devices will soon
turn smaller, more flexible and more powerful, thanks to a
nano-based technology that can make computers and the
Internet hundreds of times faster.
Currently being created by Dr. Koby Scheuer of Tel Aviv
University's School of Electrical Engineering, the
communications technology "enabler" could only be used in
five or ten years in the future.
Scheuer has developed a new plastic-based technology for
the nano-photonics market, which manufactures optical
devices and components.
The plastic-based "filter" is made from nanometer-sized
grooves embedded into the plastic.
When used in fibre optics cable switches, the new device
will make our communication devices smaller, more flexible
and more powerful, he said.
"Once Americans have a fibre optics cable coming into
every home, all communication will go through it -
telephone, cable TV, the Internet. But to avoid
bottlenecks of information, we need to separate the
information coming through into different channels. Our
polymeric devices can do that in the optical domain - at a
speed, quality and cost that the semi-conductor industry
can't even imagine," said Scheuer.
Every optical device used in today's communication tools
has a filter.
Ten years from now, fibre optic cables that now run from
city to city will feed directly into every individual
home.
When that technology comes to light, the new plastic-based
switches could revolutionize the way we communicate.
"Right now, we could transmit all of the written text of
the world though a single fiber in a fiber optics cable in
just a few seconds. But in order to handle these massive
amounts of communication data, we need filters to make
sense of the incoming information. Ours uses a
plastic-based switch, replacing hard-to-fabricate and
expensive semi-conductors," said Scheuer.
Semi-conductors, grown on crystals in sterile labs and
processed in special ovens, take days and sometimes months
to manufacture. They are delicate and inflexible as well,
said Scheuer.
"Our plastic polymer switches come in an easy-to-work-with
liquid solution. Using a method called 'stamping,' almost
any laboratory can make optical devices out of the silicon
rubber mold we've developed," he added.
The silicon rubber mould is scored with nano-sized
grooves, invisible to the eye and each less than a
millionth of a meter in width.
A plastic solution can be poured over the mould to
replicate the optical switch in minutes.
When in place in a fibre-optic network, the grooves on the
switch modulate light coming in through the cables, and
the data is filtered and encoded into usable information.
The device can also be used in the gyros of planes, ships
and rockets; inserted into cell phones; and made a part of
flexible virtual reality gloves so doctors could "operate"
on computer networks over large distances.
turn smaller, more flexible and more powerful, thanks to a
nano-based technology that can make computers and the
Internet hundreds of times faster.
Currently being created by Dr. Koby Scheuer of Tel Aviv
University's School of Electrical Engineering, the
communications technology "enabler" could only be used in
five or ten years in the future.
Scheuer has developed a new plastic-based technology for
the nano-photonics market, which manufactures optical
devices and components.
The plastic-based "filter" is made from nanometer-sized
grooves embedded into the plastic.
When used in fibre optics cable switches, the new device
will make our communication devices smaller, more flexible
and more powerful, he said.
"Once Americans have a fibre optics cable coming into
every home, all communication will go through it -
telephone, cable TV, the Internet. But to avoid
bottlenecks of information, we need to separate the
information coming through into different channels. Our
polymeric devices can do that in the optical domain - at a
speed, quality and cost that the semi-conductor industry
can't even imagine," said Scheuer.
Every optical device used in today's communication tools
has a filter.
Ten years from now, fibre optic cables that now run from
city to city will feed directly into every individual
home.
When that technology comes to light, the new plastic-based
switches could revolutionize the way we communicate.
"Right now, we could transmit all of the written text of
the world though a single fiber in a fiber optics cable in
just a few seconds. But in order to handle these massive
amounts of communication data, we need filters to make
sense of the incoming information. Ours uses a
plastic-based switch, replacing hard-to-fabricate and
expensive semi-conductors," said Scheuer.
Semi-conductors, grown on crystals in sterile labs and
processed in special ovens, take days and sometimes months
to manufacture. They are delicate and inflexible as well,
said Scheuer.
"Our plastic polymer switches come in an easy-to-work-with
liquid solution. Using a method called 'stamping,' almost
any laboratory can make optical devices out of the silicon
rubber mold we've developed," he added.
The silicon rubber mould is scored with nano-sized
grooves, invisible to the eye and each less than a
millionth of a meter in width.
A plastic solution can be poured over the mould to
replicate the optical switch in minutes.
When in place in a fibre-optic network, the grooves on the
switch modulate light coming in through the cables, and
the data is filtered and encoded into usable information.
The device can also be used in the gyros of planes, ships
and rockets; inserted into cell phones; and made a part of
flexible virtual reality gloves so doctors could "operate"
on computer networks over large distances.
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