Skip to main content

Morphing tire concept adapts to suit driving conditions



As the point of contact between a vehicle and the road, tires are one of the most important parts of a car. Unfortunately, there's no one size fits all, or rather, one tire fits all surfaces or weather conditions, tire and swapping them over when encountering changing conditions isn't exactly feasible. Kumho has come up with a concept tire that would avoid this problem by changing its tread to suit the conditions.
To pump water away from the contact patch between vehicle and road in wet conditions to prevent hydroplaning, the surface and circumference of the tire features specially-designed three-dimensional grooves. The placement of the grooves isn't just random or for show, with the design team using computer simulations to check the pattern's performance.Taking out a Platinum award in the Futuristic class on the Italian A’ Design Awards, Kumho's Maxplo tire takes the airless tire concept and takes things a few futuristic steps further. Rather than a fixed tread, it is designed to switch between a number of different surface configurations to deal with everything from dry to snow-covered roads.
If heading off road, the large intersectional tread blocks that make up the surface of the tire move apart, broadening the tire's footprint to increase traction. For snow and ice, the tire has one more trick up its sleeve in the form of spikes that remain hidden beneath the tread blocks in other conditions.
To finish their futuristic concept off, the designers added a hydrogen fuel-powered electric hub motor. The tires would measure 700 x 700 x 250 mm (27.5 x 27.5 x 9.8 in) and weigh 12 kg (26.4 lb).
"While Maxplo may not be hitting our roads in the near future, many of its concepts will flow into tire design over the next few years, and the overall concept will continue to be refined with a view to one-day offering tires such as this to consumers," says David Basha, Kumho Tyre Australia manager of marketing and training.

Comments

Popular posts from this blog

Google and Stanford early adopters of Honda Fit EV

Honda's first all-electric vehicle is hitting the streets a little early. The  Honda Fit EV  debuted at the Los Angeles Auto Show in November 2011, and it's expected to be     available for lease this summer. However,  Honda announced  that Google and Stanford University got a special early delivery of the tiny EV this week.The Honda Fit EV is equipped with a 20kWh lithium ion battery, and has an EPA estimated driving range of 76 miles. Google added the EV to its  car -sharing service for employees, dubbed the G-Fleet, in    Mountain View, Calif. The search giant maintains several electric and plug-in vehicles that it uses for research and to cart Googlers around town and between buildings on campus. Stanford University also is an early adopter of the Fit EV, but will be using it primarily for research. The university's automotive research department will study the difference in psychological and physical reactions of using battery...

Hand-manipulated objects and transparent displays - the computer desktop of tomorrow

A see-through screen, digital 3D objects manipulated by hand, perspective adjustments according to the user's viewing angle - these are the core features of a prototype computer desktop user interface created by Microsoft's Applied Sciences Group. The prototype uses a "unique" Samsung transparent OLED display through which the user can see their own hands to manipulate 3D objects which appear to be behind the screen. A demo video appears to show a working prototype of a computer markedly different from those we use today. Yes it includes a familiar keyboard and trackpad - but these are placed behind the OLED display. The user simply lifts their hands from these input devices to manipulate on-screen (or more accurately  behind -screen) objects, such as selecting a file or window. The video shows the interface in action with a series of program windows stacked behind one another, with the user selecting the desired program by hand, using the depth of the w...

Bioengineers develop smart, self-healing hydrogel

Velcro is pretty handy stuff, but imagine if there was a soft, stretchy material with the same qualities. Well, now there is. Scientists from the University of California, San Diego have created a self-healing hydrogel that binds together in seconds, essentially copying the Velcro process at a molecular level. The new material could potentially find use in medical sutures, targeted drug delivery, industrial sealants and self-healing plastics. The secret to the jello-like polymer hydrogel is its "dangling side chain" molecules, that reach out toward one another like long, spindly fingers. When developing the gel, a team led by bioengineer Shyni Varghese ran computer simulations, in order to determine the optimal length for these molecules. The resulting substance is capable of healing cuts made to itself - or of bonding with another piece of hydrogel - almost instantly. The behavior of the material can be controlled by adjusting the pH of its environment. In lab t...