If we were to rank concepts that we hope to see in reality soon, this one by Chris Harrison and Scott Hudson at the Carnegie Mellon University would top the list easily. The graduate student and computer science professor pair have developed a proof-of-concept display that makes haptic and audio feedback on current touchscreen panels look like child's play.
The prototype is made from several layers of specially cut acrylic. These form an air-tight chamber that reacts either positively or negatively when the air pressure between them changes. This, in turn, creates bumps (buttons) and depressions on the top translucent latex layer. Read more »
At first glance, QB1 appears to be a simple screen mounted onto a black arm and box. But it comes to life through human interaction, for now in the form of a sort of personal DJ service.
(Credit: OZWE)
When Swiss developers designed the QB1 robot, they weren't going for
human-like looks or cute puppydog mannerisms.
Instead, they're hoping QB1 will hook people in on a more meaningful
level--by providing a handy music-suggestion service--and thus giving the robot
continuous exposure to data stemming from real human interaction.
Artificial intelligence "systems need to learn in the real world, from real
people. You cannot program them with knowledge from the real world", said
Frederic Kaplan, CEO and co-founder of QB1 developer OZWE.
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Artificial Muscle believes that when you touch your computer or phone, it should touch back.
The Silicon Valley company is working on putting haptic feedback in a variety of devices, from laptops to touch-screen phones. Though forced feedback isn't a new concept, the way this company is going about it is different. It showed off some of its technologies at the Interactive Displays 2009 conference.
Instead of using the vibration motor in a phone to give feedback from a screen, the company has developed and patented an electroactive polymer that expands when it receives an electronic signal. In this case, it's an audio signal, which the actuator, as it is called, receives. Special software tells the actuator to give off a different sort of feedback depending on what a person is touching on the screen.
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The University of Waterloo's hovering micro-robot snaps its pincers shut.
(Credit: University of Waterloo)
A flying micro-robot has been developed by researchers at the University of Waterloo in Ontario.
A research team, led by Professor Mir Behrad Khamesee, manipulates magnetic fields to levitate and move around three axes a robot weighing about three-hundredths of an ounce.
According to a paper shared with ZDNet UK--"MechMN: Design and Implementation of a Micromanipulation System using a Magnetically Levitated MEMS Robot"--this is accomplished with an array of electromagnets that creates a three-dimensional parabolic magnetic field.
What's this gizmo? Another ridiculous lens thing for bolting on the front of
your phone to beef up that pitiful 2-megapixel camera? Actually, no: It's the
CellScope, which turns a normal mobile phone--in this
case, a rather venerable Nokia
N73--into a microscope. Limited access to microscopy in the developing
world makes this a handy tool for diagnosing diseases like tuberculosis and
malaria.
The CellScope works with handhelds and even Netbooks. The really clever bit is that it wirelessly transmits
patient data to clinical centers, allowing the patient to be evaluated remotely
and treatment suggested. Developed by Daniel Fletcher,
associate professor of bioengineering at the University of California, Berkeley,
the device could also be used for home monitoring of patients in the developed
world.
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