Bugatti mulls hybrid follow-up to Veyron supercar

Bugatti, the maker of exotic supercars such as the 1,200-horsepower Veyron Grand Sport Vitesse, is considering a model that some might feel contradicts the ethos of the extravagant brand: a hybrid.

The French manufacturer, owned by Volkswagen, has developed the blueprint for a 2015 follow-up model to the $1.7 million limited-series Veyron that may sell out this year, two sources at VW group with knowledge of the matter said.

The two-door model may rely on a 1,500-horsepower, 16-cylinder engine and will probably be limited to about 450 cars, the same as the expiring Veyron, the sources told Reuters on Wednesday.

Bugatti's new chief executive Wolfgang Duerheimer, a former R&D boss at Audi and Porsche who returned to the French brand on June 1, favours a hybrid version of the brand's next model, the sources said on condition they not be identified because the matter is confidential.

Ultra-luxury nameplates such as Ferrari, McLaren and Porsche are embracing electric powertrains after being on the cutting edge for years in upgrading chassis and engine electronics while striving to trim CO2 emissions.

Hybrid systems used in McLaren's P1 model and Porsche's 918 Spyder work to boost performance and fuel economy.

"Moving to hybrid propulsion seems like a logical next step" for supercar-makers, said Stefan Bratzel, head of the Centre of Automotive Management near Cologne. "By curbing emissions and boosting performance, they can justify building more of these cars."

The new model will beat the 431 kilometres (268 miles) top speed of Bugatti's Veyron Super Sport, which lost the title of the world's fastest production car in February to the Hennessey Venom GT, sources said.

"The new model will not be less exciting than the Veyron," a spokeswoman for Bugatti said, without being more specific. "Our customers have certain expectations."

Wolfsburg-based VW acquired the Bugatti brand in 1998 along with Lamborghini and Bentley Motors to create a stable of high-end carmakers. VW doesn't break out Bugatti's earnings in quarterly or annual reporting, but a company source says the brand has been loss-making for years on high development costs for the Veyron.

400 hp VOLVO XC90 will be worlds’s most powerful SUV

Volvo Cars' all-new XC90 will offer an unrivalled combination of power and clean operation when it is launched later this year. The all-wheel drive seven seater offers drivers up to 400 horsepower but with carbon dioxide (CO2) emissions of around 60 g/km (NEDC driving cycle). There has never been an SUV offering this level of power this cleanly.

"There are no compromises when you drive an all-new XC90," said Peter Mertens, Senior Vice President Research and Development of Volvo Car Group. "In the past you could either have power or low CO2 emissions. But with the all-new XC90 you can have both."

The new XC90 offers a range of Drive-E engine options, all of which provide an outstanding combination of performance and fuel-efficiency. The main distinguishing feature of the Drive-E engine range is that they are all four-cylinder engines.

"With our new Drive-E powertrains, we have created a family of intelligent petrol and diesel engines with power curves that give exciting driveability at the same time as delivering world-beating fuel economy," added Dr. Mertens. "With seven people in the new XC90, carbon dioxide emissions per person and kilometre are outstandingly low."

The CO2 performance of the all-new XC90 will reinforce Volvo Cars' leadership when it comes to bringing more environmentally-sound technologies to market. According to figures monitored by European car industry association ACEA, Volvo Car Group delivered an industry-leading reduction of average fleet emissions by 8.4 per cent from 2012 to 2013.

Twin Engine technology

Volvo has made it possible for a four-cylinder engine to provide all the driving pleasure associated with a much larger engine and do so far more efficiently and cleanly. Drive-E engines will over time be introduced across Volvo's entire range.

For the all-new XC90, the top of the range 'Twin Engine' will carry the badge 'T8' and be a plug-in electric car, hybrid car and high-performance car rolled into one.

Normal driving is conducted in the default hybrid mode. This utilises a two-litre, four-cylinder supercharged and turbocharged Drive-E petrol engine that powers the front wheels and an 80 hp (60 kW) electric motor that drives the rear wheels.

It uses the supercharger to fill in the bottom end of the power range to give the engine a big, naturally-aspirated feel, while the turbocharger kicks in when the airflow builds up. The electric motor on the rear wheels provides immediate torque.

But at the push of a button the driver can switch to quiet and emission-free city driving on pure electric power where the range will be around 25 miles, and then, when needed, immediately revert back to the combined capacity of the petrol engine and electric motor, with its combined output of around 400 hp and 640 Nm of torque.

Full range of other engine options

The Volvo XC90 range also includes the D5 twin turbo diesel engine with 225 hp, 470 Nm and best in class fuel consumption of around 47mpg (combined), plus the D4 turbo diesel engine with 190 hp, 400 Nm and a fuel consumption of around 56mpg (combined cycle).

Not only is there no compromise in terms of performance or efficiency, but Volvo Cars' new Scalable Product Architecture (SPA) chassis technology also allows for far more flexibility inside the car. Other carmakers have struggled to combine the bulk of a battery pack with a luxurious and spacious interior, something that Volvo has managed to overcome.

"Since our new SPA technology is designed from the start to accommodate electrification technologies, the Twin Engine installation does not compromise luggage or passenger space," said Dr. Mertens.

Mitsubishi Outlander PHEV Plugin hybrid Test Drive [VIDEO]

Mitsubishi Australia were kind enough to loan EV News an Outlander PHEV for a week long test drive and we're not surprised it is already the best selling plug-in EV in several markets around the world.

The Mitsubishi Outlander PHEV is the first 4x4 SUV to combine 'series' and 'parallel' hybrid systems. It has all the benefits of a plug-in electric car with a part-time duty cycle 87 kw 2.0 L 4 cylinder MIVEC (Mitsubishi Innovative Valve timing Electronic Control system) petrol engine that can run in either series hybrid mode, where it is used to top up the 12 kWh lithium ion battery mounted under the cabin, and/or can also runs in parallel mode to drive the front wheels.

The electric powertrain is based on 2x 60 kw / 166 Nm BLDC permanent magnet synchronous motors that run on up to 300 volts. It's a bit like having an iMiEV motor on each axle. Given the 1810 kg curb weight, EV mode acceleration is reasonable, but applying anything more than half throttle activates the ICE to assist. In this parallel mode the PHEV has a combined maximum output of 207 kw available for hard acceleration which 'feels' like a V6.

Mitsubishi engineers have done an excellent job on NVH (noise, vibration and hashness) for the part-time duty cycle ICE (internal combustion engine) in the Outlander PHEV. Unlike the Holden Volt we drove last year where the ICE became fairly annoying after a few hours in the car, the ICE powertrain in the PHEV is so quiet that, without the assistance of the LCD 'energy use' dash display graphic, it's hard to tell whether the ICE is actually running or not!

The official ADR fuel economy rating for the PHEV is 1.9L/100km, with a maximum range of 824 kilometers from it's 45 liter fuel tank. I had originally planned to drive the PHEV to Melbourne (1,800 km round trip) to test highway range and the adaptive cruise control system (more on that later) but for business reasons the trip was postponed. Instead, during the 7 days I had the PHEV, I never needed to lift the fuel filler flap even once and returned the vehicle with more than 100 km range still indicated on the dash having covered 700 km of urban driving.

The vehicle was plugged in each night so we started each day with a full battery. The 12 kWh battery gives an EV mode range of approx 50 km. The PHEV provides a couple of options for managing your charge via two centre console mounted buttons. The 'CHRG' button allows the driver to manually turn on the ICE to charge the battery while the 'SAVE' button conserves battery charge and engages the ICE to drive the Outlander PHEV like a regular front wheel drive petrol vehicle. We were still experimenting with the save mode when we had to return the vehicle.

At highway speeds, aerodynamic load is at it's maximum and given the fact that brake regeneration on expressways is minimal combined with the relatively small amount of energy contained in an electric cars battery (12 kWh) compared to a regular fuel tank (405 kWh) , we experimented with using 'Save' mode on any steady-state motorway with a posted speed limit of 100 km or more in an effort to save the battery for lower speed urban roads where brake regeneration can be maximised and losses such as aero resistance are minimal.

Unfortunately it wasn't a very scientific experiment so I can't provide any figures. Even without using save mode at all the PHEV still achieved minimal fuel burn using the same strategy of using the ICE in parallel mode at highway speeds so perhaps it would take longer than a 700 km test drive to get the most out of these manually operated features.

All Mitsubishi Outlander PHEV press cars are the top-of-the-range Aspire model which comes with a feature that seems perfectly suited to an electric powertrain, adaptive cruise control. As an EV powertrain can brake and accelerate with a single input from the throttle pedal, this allows seamless control of a vehicles variable speed relative to other traffic.

Adaptive Cruise Control was my favorite feature on the car and was turned on at every opportunity. In traffic it takes over everything but the steering. In built-up heavy traffic with speeds as low as 1 km/h the system will slow and accelerate in response to the traffic ahead. In stop-start traffic the system can bring the vehicle to a complete hold, only signalling to the driver to push the brake pedal once the vehicle is stationary. The vehicle will not move away from a dead stop, but cruise can be resumed once over 10 km/h.

It was not uncommon to have the cruise control set to 80 km/h while only seeing 50 km/h on the speedo as the car responded to traffic. The driver can adjust the distance to the car ahead in three steps with a a steering wheel adjustable push-button. In addition this distance automatically adjusts according to speed, with the gap to the car ahead increasing at higher speeds.

The system also handles lane changing fairly well. When the driver changes lanes to go around a slower vehicle the vehicle will respond to the clear lane and accelerate to the set speed. The drive can also momentarily over-ride the system with throttle input to accelerate into a gap while lane changing and the cruise control will resume at the set speed once you lift off the throttle pedal.

One thing we were curious about was what the brake lights were doing in adaptive cruise mode. Apparently the low-speed auto brake system on the Ford Focus strobes the brake lights when active, but we were unable to confirm what was happening on the back of the PHEV in this mode?

As with most hybrids which mix regenerative and friction braking, the PHEV runs a brake-by-wire system with a servo operated hydraulic brake master cylinder. This enables the cruise control to apply friction brakes at very low speed to bring the vehicle to a complete stop. With Adaptive cruise control, driving in heavy urban traffic almost becomes relaxing! I honestly think this is the single best feature of the car and given the fact ABS and stability control are now mandatory on new cars, it seems only a matter of time before adaptive cruise control and autonomous braking also become mandatory features.

Speaking of stability control, the Outlander PHEV comes with Mitsubishi's Active Yaw Control (AYC) and Super All Wheel Drive Control (S-AWC) which was first developed for the Mitsubishi Lancer Evo. Given the SUV's high centre of gravity layout this is probably a very handy feature to have although there was no way I intended to push this vehicle to the limit to test it out. Perhaps the PHEV powertrain will soon be seen in something closer to the ground like the XR-PHEV EVO images recently released, then AYC and S-AWC could be actively engaged for entertainment value on winding country roads without the risk of tipping over.

With a list price of $47,490 for the standard Outlander PHEV and $52,490 for the Aspire, it's little surprise the PHEV has shot to #1 plug-in on debut with 99% of all Outlanders sold being PHEV in several markets around the world.

Translogic 153: 2015 BMW I8 [VIDEO]


The 2015 BMW i8 is the second model in the Bavarian automaker's eco-friendly i-brand lineup.

The i8's plug-in hybrid powertrain combines a turbocharged 1.5-liter three-cylinder engine with a 96 kilowatt electric motor to make 357 horsepower and 420 lb-ft of torque. Together, this gas-electric mechanical duo is capable of propelling the futuristic sports coupe from 0 to 60 miles per hour in just 4.2 seconds.

Join Host Jonathon Buckley as he heads to Santa Monica, CA for a chance to drive the all-new BMW i8.

Audi plans plug-in hybrid offensive

Audi plans to launch at least four plug-in hybrid cars as it bets on the technology to counter rival BMW's electric car offensive.

Audi will roll out the A3 Sportback E-tron, its first plug-in hybrid, in Europe this month. U.S. sales are expected to begin in the second or third quarter of 2015, while China deliveries will start in the first or second quarter of next year.

The model will compete with cars such as the battery-powered BMW i3 in a bid to win customers looking for environmentally friendly vehicles.

Audi CEO Rupert Stadler said today the A3 Sportback E-tron will be followed by other plug-in hybrids.

"We strongly believe in plug-in hybrids and we will add a new model each year, beginning with the Q7 next year, followed by the A6 long-wheelbase sedan for China and the A8," Stadler said on the sidelines of the A3 Sportback E-tron's introduction here.

Audi believes plug-in hybrids are the best solution for low-emission vehicles because they don't face the same range constraints as battery-powered vehicles. Plug-in hybrids use a conventional internal combustion engine but can also run on electric power with zero emissions.

“Plug-in hybrids are electric vehicles for everyday driving, exactly what our customers are asking for,” Stadler said.

The A3 Sportback E-tron can be driven under electric power for about 30 miles. Using the gasoline engine, it has a 373-mile range. BMW's i3 has a driving range of up to 100 miles, rising to about 187 miles for the version with a range extender.

Audi’s approach to clean-car technology diverges from the path taken by BMW, which created the “i” subbrand to showcase its environmental technology. The i3 city car and the plug-in hybrid i8 supercar have plastic exterior body panels and distinctive styling to make them stand out from other cars on the road.

“BMW created a product that is totally different,” while Audi as well as Mercedes-Benz “try to integrate e-mobility into their existing vehicles,” said Christian Breitsprecher, a Frankfurt-based analyst with Macquarie Europe. The advantage for Audi and Mercedes is “if there’s lots of demand, they can produce a lot. If not, they can allocate the capacity to their normal cars.”

Stadler said he could not give a figure for how may plug-in hybrids Audi will sell. "Plug-in hybrids could account for 10 percent to 20 percent, even 40 percent of the 2 million units we plan to build annually by 2020. It will be our customers who decide, and we are ready to satisfy their demand,” he said.

“Plug-in hybrids are fully integrated in our platforms and production process, so we are beginning with the A3 E-tron in Germany, but the same technology could be applied to the production lines we have in China and in Mexico,” Stadler added.

Extra cost

Audi's approach may keep spending under control, but the question is whether customers will pay the extra cost for technology that’s not evident from the curbside.

The A3 Sportback E-tron looks identical to its conventional A3 counterpart and starts at 37,900 euros ($51,700) in Germany. That’s 15,100 euros more than the base gasoline-powered version of the A3.

Hiding its green technology under the hood could be a risk for Audi. Inroads by electric-car maker Tesla Motors into the luxury-car segment show that wealthy drivers are ready to buy upscale green cars, if they get noticed. That goes for the BMW i3 as well. Demand for the car prompted BMW to triple production of carbon fiber, which is used for the passenger compartment.

“In an i3 and the Tesla, the attributes of luxury, modern technology and protecting the environment are clearly visible to everyone,” Breitsprecher said. The Audi plug-in “doesn’t show off that the consumer paid extra.”

Still, the threat for Audi is more to its image as a technology leader, with demand for plug-in hybrids and electric vehicles expected to remain restrained. The segment is forecast to account for just 5.7 percent of global auto production in 2019, according to IHS Automotive.

In Germany, Audi is selling the A3 Sportback E-tron via a network of 100 selected dealerships where service employees have been trained to work with high-voltage technology. The E-tron dealerships have an electric charging station that customers can use free of charge during business hours.

The A3 E-tron has a 150 hp 1.4-liter direct injection turbo gasoline engine and a 102 hp electric motor housed within the six-speed dual clutch transmission. As the two power sources never work together at full force, combined system power is 204 hp, Audi said. Top speed is 137 mph in hybrid mode and 80 mph in pure electric mode.

Audi said it takes about 3 hours and 45 minutes to fully recharge the lithium ion 8.8 kWh battery from a 200 volt household outlet. With an industrial 380 volt charging station, recharging time decreases to 2 hours and 15 minutes, the company said.

Continental introduce tire optimized for hybrids [VIDEO]

Continental has taken the Conti.eContact that was originally launched in 2011 with electric vehicles in mind and refined it to meet the needs of hybrid models. Thanks to the introduction of numerous new technologies and processes, this new and extensively hand-crafted summer tire is the first from Continental to obtain the top A rating on the EU Tire Label for both wet grip and rolling resistance, while making no significant compromises in terms of the many other performance parameters.

With immediate effect Continental is offering the Conti.eContact in six sizes for 17 and 18-inch rims, specially designed for models such as the Opel Ampera, BMW 5 ActiveHybrid, Lexus LS 600h and Porsche Cayenne S Hybrid, as well as other cars and SUVs with hybrid drive. Given that this is a new vehicle segment that also involves highly complex production processes, Continental is kicking off with low-volume production at its French tire plant in Sarreguemines.

The rolling resistance of the new Conti.eContact for hybrid vehicles is some 20 percent lower than in a conventional tire, while delivering a wet braking performance similar to that of a normal car tire. This is made possible by a combination of advanced technologies in the development, compounding and production sectors. In terms of handling and braking on dry roads, the tire performs at the same high level as a Continental sedan tire of comparable size. As a member of the Continental tire family for hybrid and electric vehicles, the Conti.eContact bears the “BlueEco” logo on the sidewall. Continental’s in-house studies point to incremental growth in the proportion of hybrid vehicles in the passenger car segment, which could account for as much as eight percent by 2020.

Green Chili compound
Featuring the newly developed Green Chili compound, the silica compound of the new Conti.eContact for hybrid vehicles is made up in such a way that the internal friction of the filler particles and the polymers is lower than in conventional rubber compounds. The use of special additives provides an additional boost in terms of handling properties. With this new compound, the chemists at Continental have achieved a marked reduction in rolling resistance, while maintaining a high level of handling and braking performance on dry roads.

Hydro-sipes

On wet roads the specially configured twin sipes in the tread blocks generate a ‘windshield wiper’ effect that breaks up the film of water under the contact patch. This smart thinking by the tread designers at Continental enables the water between the surface of the tread blocks and the road to be rapidly dispersed, making for very short stopping distances in the wet. The fast dispersion of the water also benefits the tire’s wet handling – even at higher speeds. The tread design makes a valuable contribution to the short stopping distances in the wet that led to the Conti.eContact’s A rating for wet grip on the EU Tire Label.

AeroFlex technologyAlong with the new technologies adopted for the compound and tread design, the sidewalls of the new Conti.eContact have also been redesigned. In this case the tire designers focused on minimizing aerodynamic drag and rolling resistance. This they achieved through the aerodynamically modified sidewall and its flexible, lightweight design. As a result, in the new Conti.eContact less energy is lost when the tire deflects and rebounds than in a conventional tire. In addition, the drop in turbulence has led to a further reduction in the tire’s contribution to fuel consumption.

ContiSilent

When hybrid vehicles run in electric mode they are virtually silent. As tire noise is no longer drowned out by other sources of noise such as a conventional engine, it is all the more noticeable. Consequently, the new Conti.eContact is designed to generate minimum audible noise in the vehicle interior. This is achieved with the aid of ContiSilent technology. A thin layer of polyurethane foam attached to the inside of the tread reduces the vibrations that are generated as the tire rolls along the road. This means that less vibration is communicated to the chassis, leading to a lower level of noise in the cabin.

Outlander PHEV to Tackle Asia Cross Country Rally 2014

Mitsubishi Motors Corporation (MMC) announces that it will dispatch a team of technical support engineers for an Outlander PHEV entered in the T1.3 4x4 Electric class of the grueling 2,200km FIA-certified Asia Cross Country Rally 2014 (AXCR) from August 9 through 15, to be run from Thailand to Cambodia. The Two & Four Motor Sports rally team (Two & Four), headed by Kenji Ishida, will run an Outlander PHEV in the race for the second straight year. MMC engineers will provide Two & Four's team technical support for the plug-in hybrid four-wheel drive SUV for the duration of the rally. MMC will utilize valuable data and knowhow acquired by the technical support team in future vehicle development.

The 19th edition of the AXCR will get under way with the Ceremonial Start in the Thai beach resort of Pattaya on Saturday August 9. The next day, August 10, sees the start of the rally proper as Leg 1 takes entrants from Pattaya to Sakaeo. On August 12, Leg 3 of the rally takes the competitors into Cambodia and past the World Heritage site of Angkor Wat. The event finishes in the Cambodian capital of Phnom Penh on Friday August 15. The AXCR covers a total distance of 2,200 km and offers a grueling test of all-terrain performance and durability as it requires competitors to conquer mountains, forests, swamps and river crossings.

The Outlander PHEV rally car will use competition suspension and reinforced mountings to raise ground clearance and improve all-terrain performance over poor surfaces. The vehicle's S-AWC integrated vehicle dynamics control system will be tuned for competition use to deliver better traction. Other modifications include the fitting of a roll cage and underbody skid plate, the use of lighter engine hood, rear gate and interior parts, and additional sealing and a snorkel for water crossings.

Mitsubishi Outlander PHEV 830 KM Test Drive

The Swiss Mitsubishi importer has demonstrated that a plug-in hybrid Mitsubishi Outlander PHEV can travel 830 km (518 miles) on a single tank of petrol.

Mitsubishi Motors claims the plug-in hybrid Outlander PHEV has a range of 824 kilometers (512 Miles) in the combined hybrid mode. The Swiss Mitsubishi importer wanted to know whether this is feasible in practice so hired Felix Egolf - a pioneer in the field of ultra-efficient driving over long distances.

Egolf departed on 12 May in a hybrid Outlander from the headquarters of the Swiss importer Härkingen and drove through Basel and the Vosges to Metz. From there he went through Luxembourg and Belgium in the Netherlands. End of the journey was the Dutch Mitsubishi importer in Amstelveen, where Egolf arrived on May 14. The route began in hilly area and 38 percent of the journey performed over highways.

Upon arrival in Amstelveen odometer gave 729 kilometers and the remaining range was further than 90 kilometers. Egolf then drove the Outlander PHEV for a photoshoot to Amsterdam and Utrecht. The onboard computer gave a mileage of more than 830km to when the Outlander PHEV was refueled. For the first time since leaving again There was 45.14 liters of petrol in the tank, which means that consumption 5.44 liters per 100 km. The electricity was approximately 1 kWh/100 km.

Mitsubishi Motors gives the official standard has a range of 824 kilometers. So that, in practice, is actually feasible. Of course, the rider must anticipate well in traffic and clever use of the plug-in hybrid techniek. That is, charge the battery while driving (CHARGE) or save energy (SAVE) and continuous regeneration system utilization, which produce electricity, which is stored in the battery during braking.

EV News will be picking up a Mitsubishi Outlander PHEV for a test drive next week so perhaps we can also test the 800+ km range.

Toyota Hybrid Takes Record Breaking Pole at Le Mans

Toyota Racing's Kazuki Nakajima set a new Le Mans qualifying lap record to put the #7 TS040 Hybrid in pole position for the 82nd running of the famous 24-hour endurance race this weekend.

It was the first pole position ever for a Japanese driver and lowered last year's pole position time by more than half a second.

Nakajima, who shares the #7 car with Alex Wurz and Stéphane Sarrazin, scorched around the 13.629km track in 3 mins 21.789 secs to record Toyota's second pole position at Le Mans.

The feat highlighted the performance and efficiency of the 736kW Toyota Hybrid System - Racing which set the fastest qualifying time despite a 25 per cent reduction in fuel consumption compared with last year's car.

The #8 car of Anthony Davidson, Nicolas Lapierre and Sébastien Buemi will start Saturday's race from third on the grid.

As well as starting from first place on the grid, the TS040 Hybrid enters this year's race with two wins from the opening two FIA World Endurance Championship races.

This is the fourth pole position for Sarrazin who achieved the honour in 2007-09 and who has been runner-up three times, including last year. He praised the team for its work in setting up the #7 car and Nakajima for a "brilliant lap".

"It is promising for the race because we feel so confident in the car," he said. "We can push on every corner, every lap. Like that everything is positive. The race will be very long, we know that we have to be very calm and not attack it like a short sprint."

The 24-hour race begins at 11 p.m. tomorrow AEST.

Nissan Zeod RC hits 300 km/h on Mulsanne Straight [VIDEO]

Nissan's ZEOD RC has recorded the highest ever speed by an electric vehicle at Le Mans with Japanese ace Satoshi Motoyama reaching 300km/h on the Mulsanne Straight in qualifying for the Le Mans 24 Hours.

Motoyama reached the speed on his electric run, achieving one the key goals of the unique prototype which features a dual electric/internal combustion engine powertrain featuring a pair of 110kW electric motors along with a remarkable 40 kg, 400 horsepower 1.5 liter three-cylinder turbo engine.

The ZEOD (zero emissions on demand) permits the driver to switch back and forth between the two power sources.

Motoyama achieved the target on his first run in the car after he missed out on driving on Wednesday night to a gearbox issue in the first session and a series of session-stopping red flags during the night.

"I drove ZEOD at Le Mans for the first time and instantly we were able to reach our target to run at more than 300km/h with electric power only," Motoyama said.

"I was so surprised with the speed and power of electricity and it felt great. In yesterday’s session we had some trouble with the gearbox in the first session then we had a heap of red flag periods and I didn’t get the chance to get into the car.

"But the guys on the team did a great job to fix the car and I and I was able to get started tonight right at the green flag tonight.

“Our first target of the top speed of 300 km/h with electric power is done and I think that was a really good first step."

Motoyama along with GT Academy winners Lucas Ordóñez and Wolfgang Reip all drove multiple stints aboard the ZEOD tonight - each recording their mandatory five night laps.

The Nissan ZEOD RC competes at Le Mans this week in "Garage 56" - an additional entry for vehicles showcasing new and innovative technology.

500hp Plug-In Hybrid BMW Supra / Z7 due 2019

Following reports in November about Toyota testing a BMW i8 at their Mt. Fuji proving grounds as a pre-lude to a joint venture sports car, a report now claims BMW and Toyota are already developing a second sports car which, like the i8, is a mid-engine model that will battle the Porsche 911.

According to Car Magazine, the model is codenamed "Silk Road 2" and will spawn a BMW Z7 and Supra. The cars will reportedly be developed by BMW in Munich and is expected to be launched in late 2018 or early 2019.

While development is reportedly at an early stage, the magazine says the car will be a plug-in hybrid featuring a twin-turbo 3.0-liter six cylinder engine, a 150 bhp (111 kW) electric motor, a small battery pack between the seats (again like an i8) and a seven-speed dual clutch transmission. This setup will reportedly enable them to have a combined output of 400-500 bhp (298-372 kW).

If everything pans out, the cars will weigh less than 1650 kg (3637 lbs) and cost approximately €90,000 ($122,010 / £72,720).

Source: Car Magazine

Volkswagen delivers first XL1

First vehicle goes to Berlin

Dr. Christian Malorny (left) took over his Volkswagen XL1 by Thomas Zahn, Director of Sales and Marketing Germany Volkswagen Passenger Cars Dr. Christian Malorny (left) took over his Volkswagen XL1 by Thomas Zahn, Director of Sales and Marketing Germany Volkswagen Passenger Cars

Volkswagen has delivered yesterday at the Transparent Factory in Dresden the first XL1 to a customer. Together with his family accepted Dr. Christian Malorny from Berlin's innovative diesel plug-in hybrid.

The first XL1 was delivered in the exterior color Oryxweiß pearl effect with titan black and pearl gray interior. "The XL1 has inspired me from the beginning and I am very pleased to now be driving my own. With its visionary design and high-tech appearance, Volkswagen has dared something new and innovative, "Malorny told Presented was the spectacular two-seater by Thomas Zahn, Director of Sales and Marketing Germany, Volkswagen Passenger Cars." The XL1 is the most efficient production car in the world and the Technology Lighthouse of the Volkswagen brand. He embodies the now technically feasible in a unique shape. "

With an average fuel consumption of 0.9 l / 100 km, the XL1 is the most economical series-production car in the world. Thanks to its plug-in hybrid system, the two-seater can be driven purely electrically, and thus free of local emissions over a distance of up to 50 kilometers. From design layout to follow the XL1 as automotive protagonist of the pure sports car theory: minimum weight of CFRP monocoque and outer skin (795 kg), perfect aerodynamics (Cd 0.189) and extremely low center of gravity (1.153 mm height). Therefore, the efficient Volkswagen range 6.2 kW / 8.4 hp to slide at a constant speed of 100 km / h above the plane. In electric mode, the Volkswagen content with less than 0.1 kWh for more than a kilometer route.

1 XL1: Fuel consumption in l/100 km: 0.9 (combined); Electricity consumption in kWh per 100 km: 7.2 (combined) CO2 emissions in g / km: 21 (combined), Efficiency: A +

Toyota Prius now 2nd Best Selling EV in US

Hot on the heals of news earlier this week that Nissan's Leaf has set a new monthly sales record of 3,117 sales in May, comes official sales figures from Toyota showing the Plug-In Toyota Prius is now the 2nd best selling EV in the US.

Toyota sold 1,741 Prius PHV in May, up 180% on the same month last year. That knocks the Chevy Volt back to 3rd place with 1,684 sales for May.

The number of Plug-in Prius sales are all the more remarkable considering it is available in only 15 states.

Nissan Leaf sets a new record, almost double GM Volt sales in May

May was the best-ever month for Nissan LEAF in the US with 3,117 sales confirming it's position as best selling plug-in car by a significant margin over the second placed Chevy Volt with 1,684 sold in the same month.

While Chevy Volt sales showed a year-on-year increase from May 2013 of about 5%, Nissan Leaf sales increased 45.8% over the same period last year.

In May, LEAF also passed 50,000 total U.S. sales since launch, further establishing it as the leader among electric vehicles.

Mitsubishi Concept XR-PHEV Evolution Vision Gran Turismo [VIDEO]

Mitsubishi Motors, a company with a spectacular history in races like the Dakar Rally and World Rally Championships (WRC), has developed a special concept model for Vision Gran Turismo: This is the "Mitsubishi Concept XR-PHEV Evolution Vision Gran Turismo".

In the development of this special concept model, Mitsubishi Motors introduced their design team, Advanced Vehicle Research and Development Group, and Aerodynamic Engineering Development Group into this project in the same process they would normally follow to plan and develop real motorsports vehicles.

The styling of the car follows the basic concepts of the "MITSUBISHI Concept XR-PHEV" shown at the 2013 Tokyo Motor Show, while pouring in know-how gained from years of motorsports experience into its every detail. The result was the evolution of the concept into a stoic racing machine.

The "Athlete Form" design concept was advanced further, emphasizing the driving features aggressively. The iconic front grill is a study of next generation Mitsubishi automobiles, and the shape that forms a wedge starting from the triple diamond mark is designed in the image of an athlete at crouching position on a starting line, evoking an intense image of tension and potential.

Utilizing advanced development technology from the Plug-in Hybrid EV System, the spontaneous power of the motor and powerful torque of the engine is transmitted through an 8 speed dual clutch transmission (DCT) to drive the 4 wheels. It's overwhelming drive performance is controlled precisely with the S-AWC vehicle dynamics control system that distributes the drive force optimally to the 4 wheels, producing a handling characteristic that moves the car exactly as the driver desires.

In addition, the carbon fiber reinforced plastic (CFRP) body reduces weight and greatly contributes to its agility, and the downforce produced by the aerodynamic form of the front and rear diffusers produces excellent cornering performance. The large diameter 20 inch aluminum wheels gives an impression of a tough suspension system, and the powerful appearance of the front and rear fenders is in the image of toned muscles of a powerful athlete.

BMW i9 planned for 2016?

Auto Motor und Sport and other German outlets are reporting on BMW’s plans to build an i9 model. Built atop the already sold out i8, the BMW i9 is rumored to be a four-door sportscar.

Little else is known about the i9 but it would presumably feature carbon fiber construction and i8's plug-in hybrid powertrain that consists of a 1.5-liter Turbo three-cylinder engine, an electric motor and a lithium-ion battery which as a combined maximum output of 362 PS (266 kW) and 420 lb-ft (570 Nm) of torque.

BMW has trademarked an entire range of i vehicle, from i1 to i9, with at least one of them, the BMW i5, planned for production in the near future.

Nissan launches GT-R LMP1 WEC and Le Mans programme for 2015

Nissan will take on Audi, Toyota and Porsche in the World Endurance Championship from the start of next season.

Nissan has confirmed that it will mount a two-car attack on the full WEC with a car to be known as the Nissan GT-R LM NISMO.

Nissan vice-president Andy Palmer explained that his company wanted to exploit the new energy-based P1 rules introduced for this season by the Automobile Club de l'Ouest at Le Mans and the FIA.

"We applaud the ACO and FIA for the work they have done to get the rules right," he said.

"LMP1 is not just an arms race - all our rivals in the class have taken different technical approaches and we will be doing the same."

He explained that Nissan wanted "to win in a very different way to that of our rivals".

"We won't be turning up in a vehicle that is a basically another hybrid that looks like another Porsche, Audi or Toyota — they all look the same to me. Our intention is to do something that is a little bit different."

Nissan, which made its announcement in London on Friday afternoon, has yet to disclose technical details of the car or where it will be built.

Volvo to Develop Electric Roads for Dynamic Wireless EV Charging

The Volvo Group is now taking the next step in the development of sustainable transport solutions. In collaboration with the Swedish Transport Administration, the Volvo Group will study the potential for building electric roads, where city buses can be charged from electricity in the road at the same time as the bus is in operation. The benefit is quieter and more climate-smart public transport. A 300- to 500-meter electric road may be built for test operations in central Gothenburg during 2015.

“Vehicles capable of being charged directly from the road during operation could become the next pioneering step in the development towards reduced environmental impact, and this is fully in line with our vision of becoming the world leader in sustainable transport solutions. Close cooperation between society and industry is needed for such a development to be possible and we look forward to investigating the possibilities together with the City of Gothenburg,” says Niklas Gustavsson, Executive Vice President, Corporate Sustainability & Public Affairs of the Volvo Group.

With the use of an electric road, vehicle batteries would continuously be charged wirelessly during operation by transferring energy from the electricity grid to a vehicle, instead of charging the bus while it is standing still at charging stations. The technology being studied is called inductive charging, whereby the energy is transferred wirelessly to the underside of the vehicle by equipment built into the road.

The Volvo Group will develop a detailed proposal within the framework of innovation procurement from the Swedish Transport Administration. The proposal entails building a road section equipped with wireless charge technology and developing vehicles that will automatically charge their batteries when passing such a road section. The road will be built along a suitable bus line in central Gothenburg and be tested for public transport. Experiences from such a test track will provide valuable knowledge for future political and industrial decisions for establishing electric roads.

For several years, the Volvo Group has been offering hybrid buses with a traditional diesel engine that is supplemented by an electrical engine to reduce CO2 emissions. Three Volvo plug-in-hybrid buses are already in operation in Gothenburg (project Hyper Bus*), which charge their batteries at the end stations of line 60. The next stage of development is for these types of buses to be able to charge their batteries while in operation, thus increasing the distance the buses can run on pure electricity. And this is exactly what will be studied now. In 2015, a new bus line, ElectriCity, will become operational between Chalmers and Lindholmen in Gothenburg. This line will also provide additional knowledge of charging technology and electric power for heavy vehicles.

“We are working on both a broad and a deep basis to develop the technology of tomorrow. Electric roads are another important part of the puzzle in our aim of achieving transport solutions that will minimize the impact on the environment,” says Niklas Gustavsson.

Toyota Improve hybrid fuel efficiency by 10% with SiC Inverter

Toyota in collaboration with Denso has developed a silicon carbide (SiC) power semiconductor for use in automotive power control units. Toyota will begin test driving vehicles fitted with the new PCUs on public roads in Japan within a year.

Through use of SiC power semiconductors, Toyota aims to improve hybrid vehicle fuel efficiency by 10 percent under the Japanese Ministry of Land, Infrastructure, Transport and Tourism's JC08 test cycle and reduce PCU size by 80 percent compared to current PCUs with silicon-only power semiconductors. SiC power semiconductors have low power loss when switching on and off, allowing for efficient current flow even at higher frequencies. This enables the coil and capacitor, which account for approximately 40 percent of the size of the PCU, to be reduced in size.

PCUs play an important role in hybrids and other vehicles with an electrified powertrain: they supply electrical power from the battery to the motor to control vehicle speed, and also send electricity generated during deceleration to the battery for storage. However, PCUs account for approximately 25 percent of the total electrical power loss in HVs, with an estimated 20 percent of the total loss associated with the power semiconductors alone. Therefore, a key way to improve fuel efficiency is to improve power semiconductor efficiency, specifically by reducing resistance experienced by the passing current. Since launching the “Prius” gasoline-electric HV in 1997, Toyota has been working on in-house development of power semiconductors and on improving HV fuel efficiency.

As SiC enables higher efficiency than silicon alone, Toyota CRDL and Denso began basic research in the 1980s, with Toyota participating from 2007 to jointly develop SiC semiconductors for practical use. Toyota has installed the jointly developed SiC power semiconductors in PCUs for prototype HVs, and test driving on test courses has confirmed a fuel efficiency increase exceeding 5 percent under the JC08 test cycle.

In December last year, Toyota established a clean room for dedicated development of SiC semiconductors at its Hirose Plant, which is a facility for research, development and production of devices such as electronic controllers and semiconductors.

In addition to improved engine and aerodynamic performance, Toyota is positioning high efficiency power semiconductors as a key technology for improving fuel efficiency for HVs and other vehicles with electrified powertrains. Going forward, Toyota will continue to boost development activities aimed at early implementation of SiC power semiconductors.

Toyota will exhibit the technology at the 2014 Automotive Engineering Exposition, to be held from May 21 to May 23 at the Pacifico Yokohama convention center in Yokohama.

NISMO ZEOD RC’s Electrical System Explained [VIDEO]

Jason from Engineering Explained has a look at the ZEOD RC's Electrical Systems and Zero Emissions on Demand motors that are capable of making the car go at 300km per hour!

While the video does show a close-up of the enclosure for the 400 volt 12 kWh battery, the only other details provided are that the twin BLDC motors are rated at 120 kw each.