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Mitsubishi Mi-Tech turbine-PHEV buggy blows the doors off our dreams

TOKYO — For this year's Tokyo Motor Show, Mitsubishi went all out with the Mi-Tech concept. It's a tough-looking open off-roader with a wild hybrid powertrain. It's glorious, which makes it all the more sad it will likely never see the light of day. From the outside, the Mi-Tech impresses with blocky lines and fat fender flares. But its star feature is the fact that it has no roof and no doors. The only thing that comes close is the pair of cowls behind the seats. The inside has a spare design with a body-color dash and cutouts for vents. It does have modern cues such as the piano-key buttons and fullscreen heads-up display. Under the skin, it's powered by four motors, each controlling an individual wheel. This allows it to adjust power precisely in off-road settings. It's a plug-in hybrid, and when the battery runs down, electricity is produced by a turbine engine, similar to the Jaguar C-X75 concept. Mitsubishi opted for the turbine for its high power, small size, smooth operation and the fact it can run on just about any combustible liquid. As much as we love the Mi-Tech, it's obvious it's not going into production anytime soon. Mitsubishi has no car-ready turbine engines, and it would be expensive to make an SUV with no doors, or even removable doors, pass safety standards. And the people that would buy a vehicle like this will probably be satisfied with a Jeep Wrangler or the upcoming Ford Bronco. Oh well, it's at least a pleasant dream, and a sign that Mitsubishi still has some spark.

Mitsubishi launches, prices 2018 Outlander PHEV for U.S.

We've been waiting on this one a long time. Mitsubishi has been selling the plug-in hybrid version of its Outlander crossover for a while now, just not here in the U.S. It has seen popularity overseas, though, and is Europe's best-selling plug-in hybrid. It surpassed the 100,000 sales mark back in early 2016, thanks to Europe and Japan. Now, Mitsubishi is looking to electrify our shores, and will bring the all-new Outlander PHEV to the U.S. by the end of the year. The Outlander PHEV is powered by a 2.0-liter engine and two 60-kW electric motors, one situated at each axle, for a total estimated output of 195 horsepower. That makes it all-wheel-drive as well, using Mitsubishi's Super All-Wheel Control (S-AWC) system borrowed from the Lancer Evolution, and it has already proven itself in off-road competition. A 300-volt, 12-kWh lithium-ion battery pack is located in the subfloor between the front and rear axles. It can be charged via plug (including DC fast-charging capability), or via the car's regenerative braking system (adjustable using paddle shifters). The vehicle features three different, automatically selected drive modes. EV Drive Mode makes use of the electric motors for all-electric driving. Parallel Hybrid Mode uses the gas engine to drive the front wheels, and provides added power from the electric motors as necessary (mainly at high speeds, where this mode is the most efficient). Series Hybrid Mode uses the gasoline engine as a generator to charge the battery and provide power to the electric motors, which are doing the propulsion work. There are also three driver-selected modes. Eco Mode reduces fuel and electricity consumption. Battery Save Mode conserves charge, operating in hybrid mode. Battery Charge Mode keeps the engine running to generate electricity and recharge the battery pack to make sure you'll have power for driving uphill or towing, for instance. EV driving range and fuel economy figures will be released soon, but Mitsubishi says it expects to exceed the premium competition (which offer about 14 miles of EV range). The Outlander PHEV is also big on technology. It offers a suite of safety systems, including blind spot and lane departure warnings, multi-view camera, adaptive cruise control, auto high beams, and forward collision mitigation. The vehicle offers a smartphone app that allows the owner to remotely control the charging schedule, climate control, lighting, vehicle settings, and monitor vehicle status.

8 automakers, 15 utilities collaborate on open smart-charging for EVs

We're going to lead with General Motors here. GM is one of eight automakers working with 15 utilities and the Electric Power Research Institute (EPRI) at developing a "smart" plug-in vehicle charging system. Why did we start with GM? Because it's the first automaker whose press release we read that mentioned the other seven automakers. Points for sharing. For the record, the collaboration also includes BMW, Toyota, Mercedes-Benz, Honda, Chrysler, Mitsubishi and Ford. The utilities include DTE Energy, Duke Energy, Southern California Edison and Pacific Gas & Electric. The idea is to develop a so-called "demand charging" system in which an integrated system lets the plug-ins and utilities communicate with each other so that vehicle charging is cut back at peak hours, when energy is most expensive, and ramped up when the rates drop. Such entities say there's a sense of urgency to develop such a system because the number of plug-in vehicles on US roads totals more than 225,000 today and is climbing steadily. There's a lot of technology involved, obviously, but the goal is to have an open platform that's compatible with virtually any automaker's plug-in vehicle. No timeframe was disclosed for when such a system could go live but you can find a press release from EPRI below. EPRI, Utilities, Auto Manufacturers to Create an Open Grid Integration Platform for Plug-in Electric Vehicles PALO ALTO, Calif. (July 29, 2014) – The Electric Power Research Institute, 8 automakers and 15 utilities are working to develop and demonstrate an open platform that would integrate plug-in electric vehicles (PEV) with smart grid technologies enabling utilities to support PEV charging regardless of location. The platform will allow manufacturers to offer a customer-friendly interface through which PEV drivers can more easily participate in utility PEV programs, such as rates for off-peak or nighttime charging. The portal for the system would be a utility's communications system and an electric vehicle's telematics system. As the electric grid evolves with smarter functionality, electric vehicles can serve as a distributed energy resource to support grid reliability, stability and efficiency. With more than 225,000 plug-in vehicles on U.S. roads -- and their numbers growing -- they are likely to play a significant role in electricity demand side management.