Introducing the 2035 ZAIRE all-terrain concept car

No, this isn’t Batman out on safari. It’s the 2035 ZAIRE concept car, an advanced all-terrain vehicle designed for National Geographic ‘s photography team. Assuming this badboy actually gets developed, it’ll help the photographers traverse the often challenging and unpredictable African terrain. All images via Yanko Design . Designed by Dong Man Joo. The car can seat up to five members and is equipped with a number of advanced features, including a unique transforming maglev wheel system and a seat that can extend high above the vehicle. From the designer: “The vehicle is based on an innovative mechanism, as it possesses both frequency abilities and previous wheel mobility. Since it heads towards the hexagonal direction of greenhouse, it has been designed so that more diverse directions can be filmed. In addition, it has been designed in the way that it possesses spacious interior space with very wide left-and-right body and safe un-turning position.” Designed by Volkswagen, the chasis can remain relatively horizontal even when driving at extreme angles. Its suspension system “allows for movement similar to human joints.” More at Yanko Design .

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Introducing the 2035 ZAIRE all-terrain concept car

Manufacturing Techniques: Honda Figures Out How to Bond Steel with Aluminum

Materials movement sucks, and it’s our job as designers, engineers or craftspersons to learn tricks to deal with it. You’ll put a slight arc in a plastic surface that’s supposed to be flat, so that after it comes out of the mold and cools the surface doesn’t get all wavy; a furniture builder in Arizona shipping a hardwood table to the Gulf states will use joinery that compensates for the humidity and attendant wood expansion; and similar allowances have to be made when joining steel and aluminum, as they expand at different rates when the temperature changes. On this latter front, Honda’s engineers have made a breakthrough that those who work with fabrics may find interesting: They’ve discovered that by creating a “3D Lock Seam”—essentially a flat-felled seam for you sewists—and using a special adhesive in place of the spot-welding they’d use with steel-on-steel, they can bond steel with aluminum in a way that negates the whole thermal deformation thing. Practically speaking, what this new process enables them to do is create door panels that are steel on the inside and aluminum on the outside. This cuts the weight of the door panels by some 17%, which ought to reduce fuel consumption. (Honda also mentions that “In addition, weight reduction at the outer side of the vehicle body enables [us] to concentrate the point of gravity toward the center of the vehicle, contributing to improved stability in vehicle maneuvering,” but that sounds like spin to us.) Unsurprisingly they’re mum on how they’ve pulled this off or what exactly the adhesive is, but they do mention that “these technologies do not require a dedicated process; as a result, existing production lines can accommodate these new technologies.” The language is kind of vague but it sounds like they’re saying they don’t require massive re-tooling, which is a manufacturing coup. Honda’s U.S. plants are the first to get this manufacturing upgrade, and we’ll be seeing the new doors as soon as next month, on the U.S.-built Acura RLX. (more…)

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Manufacturing Techniques: Honda Figures Out How to Bond Steel with Aluminum

The PhoneJoy Play: A Gaming-Geek Device Makes a Larger Comment About the Shortcomings of Touchscreen Interface Design

Whether or not you’re interested in videogames, this device is kind of fascinating from an industrial design/interface design point of view. The PhoneJoy Play is essentially a portable input device with a slick mechanical design: The two holdable halves can spread sideways, connected by a telescoping mechanism. Your smartphone or mini-tablet can then be “docked” in the middle, and the variety of buttons and motion pads interact with your device wirelessly. (more…)

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The PhoneJoy Play: A Gaming-Geek Device Makes a Larger Comment About the Shortcomings of Touchscreen Interface Design

Microsoft Kills Expression Suite — And Makes It Free, For Now

mikejuk writes “Microsoft has announced that the Expression suite of design tools is no more. It has been removed from sale immediately and it has been placed on a maintenance only status until it reaches its end of life. Expression was Microsoft’s offering for designers and competed directly with Adobe products. You can now download the components of Expression — Design 4, Web 4 and Encoder 4 — for free but you can’t buy them. Of course, knowing that you are using ‘doomed’ products, even for free, takes some of the icing off the cake.The central component of the suite the UI designer Blend is to be integrated with Visual Studio 2012 probably along with Update 2. It looks as if Microsoft is giving up on trying to get designers to use its tools.” Read more of this story at Slashdot.

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Microsoft Kills Expression Suite — And Makes It Free, For Now

GrinOn Industries’ System for Providing Immediate Beer– By Filling Through the Bottom of the Cup

Many of us enjoy a beer after work (and some of you, during), but for the most part we’re not in a rush; we understand the tap dispenses beer at a set pace, and I almost like the anticipation that comes with watching the glass slowly fill with amber up to the top. In a sports stadium, however, you want beer NOW. You sneak away from your seat because they called a time-out and you think you can make it back before they take the ball out; otherwise you wait in an interminable line during halftime, wondering if the Miami fan behind you will ever shut his mouth, or if he’ll require your assistance. To beer people faster, an Indiana-based company called GrinOn Industries has invented the Bottoms Up Beer Draft Dispensing System . As the name suggests, the system’s innovation is to inject beer into a cup through the botttom , which greatly speeds the filling time—they’re claiming it’s nine times faster than a tap, and that one person can fill 44 pint cups in one minute—while leaving a decent head on the brew. Observe: (more…)

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GrinOn Industries’ System for Providing Immediate Beer– By Filling Through the Bottom of the Cup

Surprising News About Bicycle-Powered Electricity Generators

That hourglass-shaped device is the PowerPac, an energy storage device meant to be powered by a human on a stationary bicycle. Conceived of by South African design firm Ideso , the PowerPac won a Red Dot Design Award in the “Best of the Best” category. “Our aim was to create an aesthetically pleasing, user-friendly and functional design that marries the fluidity of cycling with dynamic power generation,” says Ideso MD, Marc Ruwiel. “It can be used by avid cyclists who can reduce CO2 emissions and generate their own electrical power, while enjoying a good workout at home.” I’m all for people-powered electricity generators, and I would’ve loved to have one of these during the recent blackout, but something struck me in the copy: “…An average cyclist could fully charge the battery from empty with 80 minutes of cycling and 132Wh of charge/potential energy can be stored in the battery.” The “Wh” designation stands for watt-hour , and “132Wh” means you could power a 132-watt device for 1 hour. For 80 minutes of cycling to yield, say, just over two hours of light from a 60-watt bulb sounds like a low yield, doesn’t it? My first thought was, can that be right? I did a little digging, and here’s what I found. It turns out hooking a bicycle up to something that directly powers a mechanical device is a fairly efficient way to generate energy. Rig a bicycle up to drive a sewing machine or a hand mixer and you get decent bang for your buck. But the second you get batteries and electricity involved, the efficiency drops way, way off. An article in Low-tech Magazine called ” Bike powered electricity generators are not sustainable ” explains why: …Generating electricity is far from the most efficient way to apply pedal power, due to the internal energy losses in the battery, the battery management system, other electronic parts, and the motor/generator. These energy losses add up quickly: 10 to 35 percent in the battery, 10 to 20 percent in the motor/generator and 5 to 15 percent in the converter (which converts direct current to alternate current). The energy loss in the voltage regulator (or DC to DC converter, which prevents you from blowing up the battery) is about 25 percent. This means that the total energy loss in a pedal powered generator will be 42 to 67.5 percent…. And it even turns out that the bicycle itself has mechanical inefficiencies that suck up more energy: (more…)

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Surprising News About Bicycle-Powered Electricity Generators