Care to guess how this truck is moving at all without a front wheel?
Have you ever wondered why during the evolution of iPhones, right from the first model to the recently announced 5th generation iPhone 4S, the screen has retained the same dimension?
Although many of the contemporary phones sport a much larger screen of more than 4″, why has Apple stuck to the 3.5″ screen for iPhone?
Dustin Curtis has probably found the answer – simple human ergonomics:
Touching the upper right corner of the screen on the Galaxy S II using one hand, with its 4.27-inch screen, while you’re walking down the street looking at Google Maps, is extremely difficult and frustrating.
I pulled out my iPhone 4 to do a quick test, and it turns out that when you hold the iPhone in your left hand and articulate your thumb, you can reach almost exactly to the other side of the screen.
This means it’s easy to touch any area of the screen while holding the phone in one hand, with your thumb. It is almost impossible to do this on the Galaxy S II.
“At times, the simplest form with least manipulation from its original form can offer visual amenities and adapted solution to the context.
California Roll prefabricated house takes this methodology to create its morphological adaptation to its environemt : desert.
Homogeneous exterior material which provides high grade of energy efficiency and reflects heat from the sun covers the entire surface except for glass panels which is electronically controlled to change its transparency.
Modularization of every structure members and finish materials are maximized to provide mobilty with rapid assembly and disassembly on site.
To sustain its challenging structural stand, carbon fibre truss frame under neath the exterior material holds the entire architecture.
Hydraulic powered automatic doors and security system is used for main entrance door which allows less spaces to operate the door mechanism.
California Roll house features these latest technologies applied to architecture which breaks the boundary of product or vehicle design and architectural design which brings more mobility to living spaces.”
“For years, the military has turned to the birds and the bees for inspiration, churning out mechanical hummingbirds and remote-controlled insect cyborgs.
Now the Pentagon wants its mini-drones to have hairy wings and bug eyes, too. It’ll help the tiny machines spy on — and creep out — any enemies, military researchers promise…
Nature will be the engineers’ muse. A project to equip MAVs with hair-like sensors hopes to produce “the flight efficiency and agility of the hawkmoth,” the insect known for its hovering flight patterns.
To figure out how MAVs could keep flying smoothly even when the wind pipes up, another group is looking at how hair cells on bees’ bodies sense changes in air flow.”
“Sorry, kid, but you’ve got the arms of a 12-year-old, and you’re not watching the Spice Channel tonight.
That’s the idea floated by Microsoft in a patent filing made public this week, proposing to use a 3D depth camera (such as the one in its Kinect sensor for Xbox 360) to digitally measure the proportions of a person’s body and estimate age based on the data, such as head width to shoulder width, and torso length to overall height.
The system could then automatically restrict access to television shows, movies and video games accordingly, using ratings for each type of content.
It might sound like science fiction, but it’s actually not a huge stretch, given the detailed skeletal tracking that Kinect already uses to let people control games.
As described in the patent application, the approach would give parents a new advantage over their tech-savvy kids, many of whom can easily circumvent existing parental controls.
But more than that, the technology could work dynamically — detecting when a kid enters the room, for example, and switching to more appropriate content.”
“Naturally, it starts with your brain.
A little set up: The part of the brain that handles what you see is called the occipital lobe,; it’s located at the back of your head. Its job is to take the information sent from the retina and turn it into something that makes sense to you.
So before you know that the thing in front of you is actually your cat chewing on a power cord, your retina has to take the observable light, convert it first into a chemical signal, and then into an electrical impulse, before sending back to you brain for interpretation.
The occipital lobe will then say, yup, based on this information, that’s your cat trying to off himself. You get the idea: Your eyes and your brain work together to understand what’s in front of you.
Your brain reads other types of stimulation, too. Robert Wade Crow, an assistant clinical professor of neuro-ophthalmology at UC Irvine explains, “If you irritate the brain, it may create a response like it’s normally used to creating, which is, in this case, a visual response.”
Poking the occipital lobe can make it cry vision. The thing is, the response is not anchored to anything, so instead of seeing floating suicidal cats or baseballs speckling your vision when the occipital lobe is bumped, you just see light.”