Like the Grand Theft Auto RC missions come to life, this helicopter can grasp objects for transport. They don’t have to be a special size or shape, and it can lift them even if they are not centered. This is thanks to a load-balancing hand (originally developed as a prosthesis) that relies on flexible joints and a tendon-like closing mechanism. As you can see in the video, the light-weight chopper has an on-board camera so that the operator can see what is being picked up. This little guy has no problem lifting objects that are over one kilogram while remaining stable in the air.
Brilliant sign hack up in NYC. More details from the NYPost:
TrustoCorp, a group of self-proclaimed urban artists, is adorning city poles in trendy neighborhoods like the East Village and Williamsburg with absurdist messages shaped like official street signs.
“Caution. God thinks you are stupid. Notice: Ignoring God is un-American,” warns one metal missive — complete with a hand firing a lightning bolt — attached below a Department of Transportation sign on East 10th Street near First Avenue.
Check out this Flickr pool for many more fine examples of their work.
So last week the Burj Khalifa in Dubai was opened, the latest building to be qualified as the world’s tallest. It cost something like 1.5 billion dollars to construct and is basically a vertical city. In fact:
A firm of Chicago architects have designed it so that those who so wish will never have to leave, or even descend below the 108th floor.
That level is the top floor of residential apartments. For work, you can go to the offices upstairs – anywhere up to the 160th floor. To eat, you can visit the restaurant on the 122nd and to exercise, you can use the gym on the 123rd, about 440 metres up. The gym has both an indoor and, unnervingly, an outdoor swimming pool.
To prevent the high-flying yet enclosed life from becoming dull, the tower’s developers have a solution – at least for the young. The Burj intends to host the world’s highest nightclub, 20 floors higher still than the gym.
Back in May, 2008 two men snuck in and base jumped off it. This is their story:
Scientists of the University of Pennsylvania are creating electronics that almost completely dissolve inside the body, through the use of thin, flexible silicon electronics on silk substrates.
While implanted electronics must usually be encased to protect them from the body, these electronics don’t need protection. The whole process is pretty much seamless: The electronics on the flexible silk substrates conform to biological tissue. The silk melts away over time and the thin silicon circuits left behind don’t cause irritation because they are just nanometers thick.
To make the devices, silicon transistors about one millimeter long and 250 nanometers thick are collected on a stamp and then transferred to the surface of a thin film of silk. The silk holds each device in place, even after the array is implanted in an animal – so far the technique is tested on mice – and wetted with saline, causing it to conform to the tissue surface.
In a paper published in the journal Applied Physics Letters, the researchers report that such circuits can be implanted in animals with no adverse effects. And the performance of the transistors on silk inside the body doesn’t suffer.
The researchers are now developing silk-silicon LEDs that might act as photonic tattoos that can show blood-sugar readings, as well as arrays of conformable electrodes that might interface with the nervous system.
The folks at BERG developed this neat method for visualizing the sensitivity of an RFID reader. Rather than using an expensive set of test equipment to measure the magnetic field intensity, they just hooked their reader up so that it lit an LED every time their card was detected, and then captured it using a camera.
After weeks of speculation, the Eigenharp is live! This crazy instrument is part woodwind, part drum, and part piano. You can blow it, tap it, and stroke it to make music and it includes a case and strap. It costs $5,800 dollars and is customizable at the new product page.
Interestingly, they also released the Eigenharp Pico for about $500. It’s more like a recorder (a simple flute) and has 18 keys and one slider.
A colorful and delicately woven tapestry is transformed into a poetic, almost surreal, musical instrument by artists Myrto Karanika and Jeremy Keenan.
Strings 2009 is a novel musical interface that combines rather disparate arts: the traditional craft of weaving, printmaking and embroidery with electronic music.
As is the case with any other musical instrument, the experience, for performer and audience alike, is visceral.
But unlike most other musical instruments, the interface is soft, supple and certainly unfamiliar. Gesture is key in creating sound at specific “touch nodes” creating with woven and embroidered conductive thread.
LA graffiti writer Tony, aka TemptOne, has a rare neuromuscular disease that has caused progressive muscle weakness and eventual paralysis. Despite not being able to move a muscle, his eyes still function normally. With the help of the Not Impossible Foundation, he was once again able to get back to work:
Design artist Mike Thompson has developed a one time use lamp that works by a flourescent reaction between human blood and an active chemical component dissolved in water.
Words and photo via medgadget.com. Interesting way to get light, emergency or otherwise.
His Ghost Detector is a musical instrument built by ‘hacking’ any electronic device that generates sound. Random lengths of wire are connected to randomly chosen places on its circuit board. The wires receive radiation of all kinds, and the results are translated into sound. The device becomes a “synthesizer”. It is unstable, responsive to slight influences and what it synthesizes can therefore not be controlled. A larger Ghost Detector randomly interconnects several such individual devices. Positioned all over a wall at HMKV, the network of “ghost detectors” read the “auras” of the audience. Rumour has it that the bodies or even the moods of visitors walking around the installation might affect the sonic output.
Now we have the Hap.tickle Greeting, designed by Lina Saleem, that allows us to send a tickle to our loved ones and dearest friends.
Since “tickling” strengthens social connections (according to Charles Darwin), Hap.tickle Greeting can help you connect with separated friends. The wearable itself is decadently designed with ruffles, frills and vibrating motors (of course) on the backs and sides of the garment. When the garment receives a message via SMS, the motors gently begin to pulse sending loving tickles down the sides and spine of the wearer.
Hugs, massages, and now tickles. The catalog continues to be built.
Regular velcro helps the slow and undexterous keep their shoes securely on. But steel velcro? Well, that stuff can support up to 35 tons of pressure.
Developed by German engineers, this new version of Velcro is dubbed Metaklett, and it can support 35 tons at temperatures up to 1472 degrees. It’s made from “perforated steel strips 0.2 millimetres thick, one kind bristling with springy steel brushes and the other sporting jagged spikes.”
The lush, white carpet is interwoven with conductive thread and transforms anyone who stands and walks across the carpet into a human antenna.
The carpet picks up the radio waves which your body receives and makes them “hearable.” When walking on the carpet you can tune it to a certain frequency, similar to the tuner of a radio.
Perhaps most perplexing is the question of legal responsibility. If someone wearing a neural prosthesis were to punch someone, who is to blame? The action may have been deliberate, in which case the patient is to blame, or the chip may have been malfunctioning and the responsibility would lie with the manufacturer. Discovering where the truth lay would be no easy task. The law has had trouble catching up with the self-parking car, never mind an electronically controlled limb gone wild.
MIT Professor Missy Cummings (a former F-18 Hornet Navy Pilot), and her team of 30 students and undergrads, have successfully demonstrated how an iPhone could be used to control an Unmanned Area Vehicle, or UAV.
As part of their work at MIT’s Humans and Automation Lab (HAL, heh), the team thought about ways to improve on the suitcase-sized controller that soldiers must currently lug around to control hand-thrown Raven UAVs.
The iPhone app they developed sends GPS coordinates to the craft, which then in turn can send photos and video back to the iPhone.
