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Thursday, February 28, 2013

1,000 hp VOLAR-e All Wheel Drive Electric Supercar Unveiled [VIDEO]

Applus+ IDIADA, a company specialized in engineering for the international automotive industry, has successfully completed the Volar-e project, an innovative prototype electric car with high performance, comparable to or even better than conventionally-powered sports cars.

The Volar-e was built in collaborated with Croatian firm Rimac so the chassis is a Rimac Concept One. The Volar-e features a carbon fiber body or a tubular chromoly chassis. There is an active chassis control system and a torque vectoring system that promises to improve the car's handling.

Powertrain:

  • Power: 800 KW
  • Torque: 1,000 NM
  • 0 to 60: 3.4 sec
  • Top Speed: 300 km/h
  • Battery: 38 kWh
  • Fast-charging: 15-20 minutes

    Vehicle dynamics:

  • Electro Brake: 4 wheel Regenerative braking
  • Friction Brakes: Carbon ceramic brakes
  • Independent power control for all 4 motors: iTORQ developed by Applus+ IDIADA

    The project, which was co-funded by the European Commission, is intended to allow the Applus+ prototype to become a flagship for the promotion of electric vehicles in European society. Users, the car industry, energy sector and government have a reference in this demonstrator of the great potential of electric vehicles.

    Source: Applus+ IDIADA

  • GM Plans To Boost Chevy Volt Production 20 Percent In 2013

    General Motors is planning to build as many as 36,000 Chevrolet Volts and other plug-in hybrids for worldwide delivery this year, 20 percent more than in 2012.

    GM is planning to build 1,500 to 3,000 of the fuel- efficient vehicles a month. GM sold about 30,000 Volt and similar Opel Ampera cars globally in 2012, said Jim Cain, a company spokesman.

    The 36,000 target is “probably a doable number,” Jim Hall, principal of consultancy 2953 Analytics, said. “It will have a full calendar year in Europe” and GM will probably sell more this year now that the Volt is eligible for the car-pool lane in California, he said.

    Battery-only and plug-in hybrids that meet strict California emissions rules qualify for a sticker that permits solo drivers to use the lanes with vehicles carrying multiple passengers.

    U.S. sales of the Volt more than tripled last year to 23,461.

    Kymera – The World’s First Electric Jet Body Board [VIDEO]

    The Kymera is the world’s first electric jet body board. The Kymera allows the rider to cruise the waves for about 60 minutes at the speed of 30 mph.

    The designer, Jason Woods, originally created the Kymera for personal fun. As people started to see it, the interest for it grew. Woods has now put the project on Kickstarter to get it into volume production.

    Kymera features an electric motor that outputs peak power of 3.4 kW and is powered by a lithium ion battery pack. The battery can be recharged from a standard wall outlet in around two hours and the whole board, including the battery, weighs in at 48 lbs (21 kg).

    With electrical outlets not easy to come by on the shore, Woods has also developed a solar charging station for the Kymera. Measuring 4 x 6 feet (1.2 x 1.8 m), the charging station can fully recharge a Kymera in eight hours and is designed to be mounted on the roof of a lifeguard tower to ensure the board is always ready for action. Woods is also working on a combination roof rack/charger that can also pull power from a vehicle as it makes the trip to the water.

    Wednesday, February 27, 2013

    £22m venture to help small firms commercialise low carbon automotive technologies

    A new £21.8m initiative aimed at boosting component manufacturing in the automotive sector has been launched. 'The Proving Factory' will be run by Tata Steel and and low-carbon vehicle engineering firm and LowCVP member, Productiv. It has been set up with £13m of Government funds matched by £9m in private investment, will provide a facility for small companies to turn prototype technologies into commercial products.

    The Proving Factory will consist of two facilities: component manufacturing at the Tata Steel site at Brinsworth, Rotherham and an assembly facility in the West Midlands, providing employment and regeneration. Funded under the Government's Advanced Manufacturing Supply Chain Initiative, the Proving Factory's production and assembly facilities will industrialise innovation and supply -- both components and systems -- into the automotive supply chain. Tata and Productiv's partners include MIRA, the High Value Manufacturing Catapult, Jaguar Land Rover, Schaeffler, Unipart and the Midlands Assembly Network.

    The initiative is designed to enable the manufacture of innovations to meet low volume demands by vehicle manufacturers before they are adopted into mainstream vehicle platforms.

    The Secretary of State for Business Vince Cable said: “Supply chains are the lifeblood of industry and vital for our drive for renewed economic growth, which is why government has committed to supporting their development as part of our Industrial Strategy."

    Productiv’s Chief Executive Richard Bruges told 'The Engineer: "The Proving Factory will take new automotive technologies through the industrialisation process from prototype through to series production."

    The Proving Factory’s initial customers include: Flybrid Automotive, Drive System Design, Libralato, Bladon Jets and Torotrak.

    An Icy Test Drive In BMW's i8 Hybrid Sports Car Prototype [VIDEO]

    Join evo's Harry Metcalfe at an exclusive winter test of next year's BMW i8 performance hybrid Porsche 911 rival.

    China Racing becomes second Formula E team

    The FIA’s new electric racing formula is gathering speed with the launch today of the FIA Formula E Team China Racing. The new squad was officially proposed to the FIA as the second of ten teams set to take part in the ground-breaking zero-emissions championship, which launches next year.

    The announcement was made during a gathering at the Place de la Concorde in which Alejandro Agag, the CEO of promoter Formula E Holdings, and Yu Liu, the Chairman of Team China Racing, met with FIA President Jean Todt. Also present were Steven Lu, CEO of Team China Racing, and Liang JianSheng, First Secretary of the Chinese Embassy.

    "We are very excited that the FIA is launching an electric car racing series and we are proud to be one of the first Formula E teams,” said Liu. “I believe Formula E is a perfect platform for China Racing and our key partners to get involved in the future of motor sport. Our presence in the Championship will encourage millions of Chinese fans to follow the series.”

    Agag said that China has “enormous potential” for the expansion of electric vehicles as a way to fight pollution in cities. “We think the FIA Formula E Championship can be a powerful tool to make electric cars popular with the Chinese public, particularly the younger generations,” he said. “Having a Chinese team with us in the Championship will be key to succeeding in that challenge.”

    The zero-emissions championship, which begins next year, will feature electric-powered cars racing on city street circuits. Today’s announcement follows the launch last month of the FIA Formula E Team Drayson, as support for the new series gathers momentum.

    While Team China Racing will initially use the Formula E customer car currently being developed by Spark Racing Technology (SRT), McLaren and Dallara, its aim is to build its own Chinese electric formula cars within three years, supported by Chinese EV manufacturers.

    Liu added: “Our experience in racing event management will contribute to a successful Formula E city race in China showcasing electric formula cars with a futuristic sound and zero-emissions. We also believe this is a good platform for Chinese and global EV companies to do our part to help create a sustainable planet."

    Team China Racing has previously competed in championships including A1GP, Superleague Formula and FIA GT1.

    Increased range & lower price for updated Nissan Leaf

    With more than 50,000 examples on the globe's roads and two years of real-world zero-emissions experience behind it, the next chapter in the Nissan LEAF story is about to begin.

    It might look broadly similar to the first pure electric vehicle to win the European Car of the Year award, but under the skin New LEAF has been comprehensively improved and enhanced.

    Until now, the world's best selling pure electric vehicle has been built solely in Japan. But as production gets underway in Europe and North America, more than 100 changes have been made to the multi-award winning car.

    Improvements include an extended driving range, greater recyclability, more interior space, better charging performance, more equipment and, with three versions now available, greater choice.

    Subtle styling changes to the nose of the car have improved its already impressive aerodynamic efficiency.

    Many of the changes have come as a direct result of feedback from pioneering LEAF owners. With some of most active Internet forums of any car-owning group, LEAF drivers have become enthusiastic advocates of zero-emission mobility and of the car itself - LEAF enjoys the highest customer satisfaction rating of any Nissan model with a score of 93 per cent.

    As well as discussions about various aspects of life with a LEAF, the forums are used by owners to offer tips and hints to fellow users, as well as to suggest a number of improvements that could be made to the game-changing car.

    By monitoring this feedback and by holding regular owner events to gain further input, Nissan has incorporated many of the suggestions into New LEAF.

    In addition to this human feedback, Nissan has been able to get feedback from aggregated data from the unique Carwings telematics system, which is at the heart of LEAF.

    This powerful feature gives customers the ability to control the heating and charging of their car remotely and also logs information on charging, usage patterns and distance driven. With LEAF having been on sale for more than two years, engineers at Nissan have been able to use some of the data collected to optimise the car in line with actual customer usage.

    Changes range from a new powertrain assembly that greatly enhances the car's practicality to simple modifications, such as the addition of an LED inspection light within the charging port making overnight charging that much easier.

    "LEAF owners are passionate about their cars and their comments and experiences have genuinely influenced many of the changes we have made to New LEAF," said Paul Willcox, senior vice president, Sales and Marketing, Nissan Europe.

    Other aspects of LEAF ownership have also changed dramatically since the car first appeared on Europe's roads, with a greatly expanded charging infrastructure and a significant rise in the number of Nissan dealers selling and servicing the car in the last 12 months alone.

    At the time of the 2012 Geneva Motor Show, for example, there were 150 Nissan LEAF dealers across Europe and 195 Quick Chargers, capable of charging a battery to 80 per cent capacity in less than 30 minutes. Today, just 12 months later, there are 1,400 dealers and more than 600 Quick Chargers, while the number of conventional public chargers has increased from 12,000 to more than 20,000.

    The dramatic expansion in Quick Chargers has been facilitated in part by Nissan, which has provided a number of the units to local authorities to accelerate the development of Quick Charging ‘Highways' between cities across Europe.

    To date, Nissan is behind the installations of 200 Quick Chargers, both at dealers and strategic locations, and plans to triple this figure over the next 12 months.

    Customer peace of mind has also been increased with a new comprehensive warranty plan for the batteries. As well as covering the batteries against defects in materials and workmanship for five years/100,000 kms, they will be covered by a ‘State Of Health' clause which covers gradual capacity loss.

    Over time, lithium-ion batteries lose a percentage of their capacity, a natural phenomenon. But should battery life reduce quicker than anticipated over the same warranty period it will either be repaired or replaced.

    One significant change to the 2013 Nissan LEAF is the move to producing the car in three different locations: North America, Europe and Japan.

    In Europe, production will start shortly in Sunderland in the UK, where LEAF will be sharing the line with Qashqai and joining Note and Juke at one of Europe's most productive car factories. At the same time, the high-tech lithium-ion batteries are already being produced at a new facility nearby on the Sunderland site.

    "By sourcing Nissan LEAF and its batteries in Europe, we are underlining our faith not just in the ability of the Sunderland facility to build our most technically advanced car, but also in the fact that electric vehicles can be considered a genuine alternative to conventionally powered vehicles," said Willcox.

    "In its two years on sale, the global success of Nissan LEAF has shown that electric vehicles offer viable everyday transport for people with a typical daily commute.

    "And with an ever-expanding network of Quick Chargers linking cities across Europe and improvements we have made to battery life and LEAF's drivetrain, the traditional ‘range anxiety' issue put forward by some of the nay-sayers as a reason not to go electric will soon be a non-starter," he added.

    As well producing no CO2 at the point of use, the lack of tailpipe emissions extends to zero NOx and particulate emissions. All are detrimental to health and many municipalities are working hard to reduce them to avoid EU fines.

    New LEAF, which goes on sale in Europe beginning mid-year, marks an important milestone in Nissan's global zero-emission leadership. It will soon be joined by pure electric versions of the award-winning NV200, to be called e-NV200, in both light commercial van and seven-seat combi versions. Development is also underway on a dedicated EV taxi based on the e-NV200. An Infiniti EV is expected in 2015.

    THE NEW LEAF IN DETAIL

    Technical:

  • New fully integrated powertrain
  • Enhanced ride and handling with chassis tuned for Europe
  • Extended real-world driving range
  • Faster charging option
  • Enhanced technology and more driving modes

    Exterior:

  • Revised grille for improved Cd
  • New range of wheels
  • Extended colour palette

    Interior:

  • New more supportive seats
  • New environmentally friendly seat fabrics
  • Leather now available
  • More luggage space
  • More equipment, including Around View Monitor
  • Three trim levels

    At first glance, New LEAF appears to have changed very little from the multi-award winning original. But the breadth and depth of the changes mean, to all intents and purposes, it is a new car.

    It is more comfortable and roomier than before and even better to drive. It will go further on a charge than before and, depending on the market, it can be charged in half the time, too.

    "The comprehensive improvements we have made to this pioneering car reinforce its unique character: unexpected, smart, accessible and progressive," said Paul Willcox.

    Together the changes underline and enhance the innovation and excitement delivered by the original.

    Excitement is ensured by the biggest technical change - a new, fully integrated powertrain that brings the charger assembly, inverter and the motor together for the first time.

    Now assembled together as a single stack, the new powertrain is again based around a high-response 80kW AC synchronous motor powered by Nissan-designed 48-module compact lithium-ion batteries, mounted underneath the cabin area to lower the centre of gravity for optimum handling.

    By moving the charger from the rear of the LEAF to under the bonnet, it has been possible to increase the luggage area by as much as 40 litres... or to put that another way, about the size of a typical airplane ‘carry-on' suitcase. Trunk capacity has increased to 370 litres.

    More significantly, the removal of the charger from behind the rear seats turns the LEAF into an even more practical proposition. There is now no obstacle in the middle of the trunk floor when the seats are folded, while rear legroom has been increased thanks to reshaped seat cushions, which allow passengers in the rear to put their feet under the seat in front.

    Improvements to the heating and ventilation system centre on a new heat pump system which replaces the original PTC ceramic heater. This significantly reduces electrical consumption and delivers an improvement in real-world driving range. This is particularly relevant to markets where drivers rely heavily on the heating and ventilation systems.

    New LEAF's real-world driving range has also been improved by the only visual change to the car: a subtly revised front grille helps reduce the Cd figure from an already impressive 0.29 to 0.28.

    The new LEAF's driving range is certified at 199 km under the New European Driving Cycle (NEDC), which is an increase from 175 km in the prior model.

    The new LEAF is more fun to drive, too, thanks to changes to the chassis, steering and brakes engineered at Nissan Technical Centre Europe (NTCE).

    Principal changes have been to damper settings to reduce float and deliver a more agile and dynamic drive without adversely affecting ride comfort. The steering system has been given more weight to provide steering feel more in tune with European tastes while the performance of the brakes has been improved to make them more progressive in use, while also increasing the amount of energy recovered.

    Changes have also been made to the Eco driving mode. A new ‘B' setting on the transmission increases regenerative braking during deceleration while a separate ‘Eco' button on the steering wheel extends driving range by altering the throttle mapping to discourage rapid acceleration. The two systems can be operated independently of one another, unlike in the original LEAF.

    Other key improvements to the LEAF's e-Powertrain include reduced internal friction and a more efficient battery and energy management system.

    Greater practicality is also promised by a new option that will cut conventional charging time in half, from eight to four hours. A new 6.6kW on board charger will permit the use of 32 amps charging in markets where available (a typical domestic socket delivers 10 amps).

    A more affordable option than a full Quick Charger, some authorities are installing public charging posts already capable of delivering 32 amps output. The adoption of a 6.6kW charger will allow drivers to give their battery a meaningful boost even during a short stopover.

    Technical innovation enhancements include a new Bose® audio system specifically developed for the LEAF.

    The Bose Energy Efficient Series sound system delivers a powerful, high quality audio experience but from a unit that's both more compact than similar premium systems and which uses about half the electric energy.

    New LEAF also introduces a revised and updated version of Nissan's acclaimed Carwings Navigation system. This innovative feature allows owners to manage and remotely control features from a computer or smartphone and is unique to the LEAF.

    The updated version of Carwings adds a number of new features, including enhancements to the remote heating and air-conditioning functions, greater smartphone integration, improved voice recognition facility, eco-routing and real-time information on the nearest charge points.

    As well as a large colour touchscreen, satellite navigation and Bluetooth connectivity for mobile phones and music players, the new system incorporates Google Send-To-Car technology which allows an owner to plan a journey on a PC or tablet at home or in the office and then send the instructions to the car.

    It incorporates other advanced features including access to Google's POI search, and allows drivers to access up to date weather forecasts and flight information.

    The navigation system now includes a motorway ‘exit view' complete with lane guidance to help when leaving highways and also displays prevailing speed limits with a driver-set speed warning that provides visual and audible alerts when the car hits a certain speed above the prevailing limit.

    Nissan's innovative Around View Monitor is another technical innovation now found on New LEAF. AVM uses a network of cameras to generate a 360-degree overhead image of the car on the central display, simplifying parking or any difficult manoeuvre.

    Important changes in the cabin include the seats. As well as being redesigned for better support, the front seats now incorporate height adjustment, while a new bio-fabric covering has been introduced.

    Where the original model featured material made from 39 per cent recycled plastic bottles, the new bio-fabric is 100 per cent derived from sugar cane, further improving LEAF's overall recyclability and environmental credentials. Leather is also now available, as is a darker and more practical interior finish.

    Another area where Nissan has made everyday life even easier is in the charging port area at front of the car. Thanks to the introduction of a new LED inspection light, drivers no longer have to rely on street lighting to connect their cars to an electric source at night.

    The charging port has been reworked to improve usability and security and its release mechanism now uses an electric switch. Additionally, the charge cable now features an electro-mechanical locking mechanism that removes the requirement to lock the cable to the car manually.

    Other detail enhancements include a new i-Key that also controls the charging port cover and cable lock.

    These significant updates are incorporated as part of a major range expansion that sees LEAF adopt the familiar Nissan three-tier trim line-up of Visia, Acenta and Tekna to broaden the appeal of LEAF still further. The Visia version offers a lower price entry point while Tekna models feature even more standard equipment than the original model.

    The new range structure also gives buyers more styling, design and trim options. Visia models have 16-inch steel wheels with full covers, black door mirror caps and halogen headlights, for example. Acenta versions have 16-inch alloy wheels, suede fabric seat trim, body coloured mirror caps and rear privacy glass.

    As well as having leather seats as standard, Tekna models come with 17-inch alloy wheels as standard, LED headlights, the Bose sound system and AVM. A new colour palette for all versions now extends to seven different colours with solid, pearl and metallic finishes all available.

    Just about the only thing that hasn't changed between the original and New LEAF is the model's comprehensive level of standard safety equipment. As well as front, side and curtain airbags, New LEAF has ABS and EBD with brake assistance as standard along with the Electronic Stability Program (ESP).

    "When it was launched, Nissan LEAF represented a step into the unknown. Two years later it has established itself as viable solution to the world's transport and environmental problems. The new LEAF is ready to spread the word even wider," said Willcox.

  • Monday, February 25, 2013

    Nissan Announce Electric LE MANS Racer For 2014

    Nissan will return to the Le Mans 24 Hours in 2014 with an innovative project that promises to continue the pioneering spirit of last year’s award-winning Nissan DeltaWing experimental entry.

    Nissan CEO Carlos Ghosn made the pledge to return to Le Mans during a special event today in Yokohama, Japan, to open a new headquarters for Nismo, Nissan’s global performance and motorsport brand.

    Ghosn hinted that a new approach to innovation and excitement will be at the project’s core, while confirming that the company will return as the Garage 56 entry for innovative concepts with an all-new race car incorporating electric technology.

    The entry will test innovative new powertrain technology and provide the Automobile Club de l’Ouest (ACO) and the Federation Internationale de l’Automobile (FIA) with data to enable all parties to evaluate the incorporation of this breakthrough technology ahead of a potential return to LMP1 in the future.

    “We will return to Le Mans with a vehicle that will act as a high-speed test bed in the harshest of environments for both our road car and race car electric vehicle technology,” said Mr. Ghosn.

    Ghosn’s revelation promises a continued commitment from Nissan to performance and motorsport innovation – and a bold ambition to change expectations of what is possible in performance.

    Nissan will reveal further details behind the new project in the near future.

    Mercedes Benz SLS AMG Coupé Electric Drive [VIDEO]

    Mercedes AMG have released another video of the SLS AMG Electric expected to hit the road in June 2013

    With a power output of 392 kW (526 hp) and 880 N·m (649 lb-ft) of torque, the gullwing with electric drive is part of the company strategy entitled “AMG Performance 2015” which aims to continually reduce fuel consumption and emissions.

    Traction is provided by Four synchronous electric motors located in-board of the wheels each achieving a maximum 12,000 rpm.

    The electric model accelerates from zero to 100 km/h in 4 seconds—which almost puts it on the same high level as the SLS AMG with 6.3-liter V8 engine developing 420 kW (571 hp), which can accelerate to 100 km/h in 3.8 seconds. However, unlike the combustion engine, torque build-up with an electric motor is instantaneous—maximum torque is available virtually from a standstill.

    Bombardier to test electric buses with wireless charging [VIDEO]

    The regional operator Rhein-Neckar-Verkehr GmbH (RNV) is redefining e-mobility for public transport services of the future. During the “PRIMOVE Mannheim” research project, electric buses will recharge wirelessly while passengers get on and off the vehicles at bus stops along the inner city route 63. The project will prove that electric buses can operate daily passenger services, even on demanding routes.

    Germany’s Federal Ministry of Transport, Building and Urban Development announced that it will fund the project with 3.3 million euro. Secretary of State Rainer Bomba presented the grant for this innovative project to Christian Specht, Mayor of Mannheim and head of the city’s department of public transport, and Martin in der Beek, Technical Director, RNV. They accepted the funding on behalf of the four project partners RNV, the City of Mannheim, Bombardier Transportation and the Karlsruhe Institute of Technology.

    “The Government considers the promotion of alternative propulsion technologies a high priority,” Rainer Bomba told the conference. “We want to turn Germany into a leading e-mobility supplier and market. The Ministry of Transport’s wide-ranging approach to R&D supports the introduction into the market of innovative drive systems and new concepts for all modes of transport. It is particularly important to harness the benefits of e-mobility in public transport, where new technologies are tested in an integrated system of vehicles, transport infrastructure and maintenance sites. Our research and pilot projects are setting in motion today the solutions of tomorrow.”

    During an initial period of 12 months, two completely electrically powered and inductively charged electric buses will be trialled in daily passenger operation on the existing RNV bus route. Both e-buses, built by the Swiss manufacturer Carrosserie HESS AG, are also equipped with the new BOMBARDIER MITRAC e-bus powertrain for city buses. In addition, an electric van equipped with wireless PRIMOVE technology will be tested as a RNV service vehicle.

    The project will help to determine a framework for infrastructure, batteries, inductive energy transfer and daily operation by testing the new technology on a real-life route. The project partners aim to prove that a technology transfer towards e-mobility is viable. They will also gain insights into further improving low-emission public transport systems by focusing on the operating efficiency of daily transport services.

    Martin in der Beek emphasised RNV’s dedication to implementing innovative transport solutions: “We aim to expand public transport’s competitive edge in efficiency by putting the technology of inductively charged electric buses through its paces on a demanding city route and thereby proving its suitability for everyday use.” RNV GmbH was the first transport operator to use energy storage systems on its rail network; since 2009, light rail vehicles equipped with the MITRAC Energy Saver are operating successfully in the region. The use of PRIMOVE technology widens RNV’s commitment to efficient e-mobility to roads as well.

    Bombardier’s invisible PRIMOVE charging technology is based on inductive energy transfer. It is installed entirely under the road surface and under the floor of the vehicles. The charging process begins as soon as the vehicle completely covers the charging segment. Jérémie Desjardins, Business Leader PRIMOVE, Bombardier Transportation, said: “PRIMOVE technology enables electric buses to serve routes originally designed for conventional buses operating to tight timetables. It fully integrates the charging process into normal bus operations so you don’t need more vehicles than with current diesel bus fleets. We combine smaller, lighter batteries with the principle of fast opportunity charging to produce enough energy for a whole day’s travel and increase the batteries’ lifespan considerably.”

    The project partners will initially test the PRIMOVE technology during a testing and approval phase to collect information for the subsequent scheduled passenger operations, as well as for RNV’s internal operations and its training of personnel. Innovative features of the project include the planned optimisation of the charging process by evaluating real-time data on the vehicle’s position on the route and its battery’s level of charging.

    Public relations and civic participation initiatives will involve passengers and residents of the city of Mannheim in the PRIMOVE trial. Christian Specht outlined the city’s task: “We want to find out how people perceive and rate the advantages of electric buses and the new wireless charging system. By doing so, we are paving the way to introduce CO2-free and low-noise e-mobility to other routes in Mannheim and the Rhine-Neckar metropolitan region.”

    The Karlsruhe Institute of Technology’s department for vehicle systems technology will provide the project with scientific support under the direction of Prof. Dr.-Ing. Peter Gratzfeld. The research will focus on an energy simulation that demonstrates the entire power flow in the electric buses and at the inductive charging stations. This will allow the battery size and the charging infrastructure to be perfectly adapted to each other and determine the demands on the power supply network. The institute’s work will also confirm the greater energy efficiency of the system compared to conventional propulsion methods. An extensive measurement programme will verify the results of the simulations when the electric vehicles enter passenger service.

    Andreas Kerber, Commercial Director, RNV, added: “We will gain not just technical insights from this project but also important information concerning competitiveness and acceptance levels from our customers. This will enable us to develop our bus division for the future.”

    Source: bombardier

    Dallara working on Formula E chassis

    Dallara will work on the chassis for the new Formula E championship, the series has announced.

    The Italian firm will join forces with the series' technical operation Spark Racing Technology on the cars, which are set to start racing in 2014.

    Spark Racing Technology president and boss of the ART Grand Prix outfit Frederic Vasseur welcomed the collaboration.

    "I have worked with Dallara for over 20 years and I have all the respect in the world for [company president] Gian Paolo Dallara," he said.

    "It is with great pleasure that we will join Dallara and benefit from his expertise and know-how, something that will be essential for this new and exciting adventure."

    Vasseur has worked particularly closely with Dallara in Formula 3, GP2 and GP3, winning championships in all of those series.

    Dallara added: "We have been competing with Frederic for more than 20 years and he brought our cars to victory in many prestigious championships.

    "We are looking forward to facing this new challenge with great enthusiasm and considering our past success together, we are confident that our combined expertise will be key to achieving the demanding targets in this brand new field of motorsport."

    Dallara joins McLaren as a Formula E technical partner.

    Scientists increase lithium-sulfur battery lifetime by 10x

    The world of rechargeable batteries is full of trade-offs. While lithium-ion (Li-ion) batteries are currently the most commercially successful, their low energy density doesn't allow for a long driving range. They are also very expensive, often accounting for half the price of electric vehicles. One alternative is lithium-sulfur (Li-S) batteries, which are attractive for their high gravimetric energy density that allows them to store more energy than Li-ion batteries. And although they still use some lithium, the sulfur component allows them to be much cheaper than Li-ion batteries. But one of the biggest drawbacks of Li-S batteries is their short cycle life, which causes them to lose much of their capacity every time they are recharged.

    Now a team of researchers led by Yi Cui, a professor of materials science and engineering at Stanford University, has developed a Li-S battery that can retain more than 80% of its 1180 mAh/g capacity over 300 cycles, with the potential for similar capacity retention over thousands of cycles. In contrast, most Li-S batteries lose much of their capacity after a few tens of cycles.

    To achieve this improvement, the researchers first identified a new mechanism that causes capacity decay in Li-S batteries after cycling. In order for a Li-S battery to successfully recharge, the lithium sulfide in the cathode must be bound to the cathode surface—in this case, the inner surface of the hollow carbon nanofiber that encapsulates it. This binding creates a good electrical contact to allow for charge flow. But the researchers found that, during the discharge process, the lithium sulfide detaches from the carbon, resulting in a loss of electrical contact that prevents the battery from fully recharging.

    Before now, it has been very challenging to study the sulfur cathode at the nanoscale due to the sulfur compound's sensitivity to air and moisture, as well as its tendency to sublime under a vacuum. But the hollow carbon nanofiber structure of the anode—which the researchers developed in a previous study—protects the sulfur, which allowed the researchers to view the cathode using a transmission electron microscope (TEM) without significantly damaging the sample.

    After identifying the problem, the researchers set about fixing it by adding polymers to the carbon nanofiber surface in order to modify the carbon-sulfur interface. The polymers are amphiphilic, meaning they are both hydrophilic (water-loving) and lipophilic (fat-loving), similar to soap. This property gives the polymers anchoring points that allow the lithium sulfides to bind strongly with the carbon surface in order to maintain strong electrical contacts.

    As experiments showed, sulfur cathodes containing the amphiphilic polymers had very stable performance, with less than 3% capacity decay over the first 100 cycles, and less than 20% decay for more than 300 cycles.

    Although the improvement is a big step forward, the capacity retention still doesn't compare to Li-ion batteries, some of which have lifespans approaching 10,000 cycles. In order to avoid having to replace the battery every few years, electric vehicles require these longer lifespans. But Cui says that Li-S batteries have the potential to close this gap in the foreseeable future.

    "Using the amphiphilic polymer idea here in this paper, together with nanoscale materials design and synthesis, it is possible to improve the cycle life up to 10,000 cycles," Cui told Phys.org. "My group is working on this. Our recent results on nanomaterials design already improved to 1000 cycles."

    In the future, Cui think Li-S batteries will give Li-ion batteries some serious competition.

    "The Li-S batteries become pretty promising for electric vehicles," he said. "The life cycle needs to improve further. The lithium metal anodes' safety problem needs to be solved. It is possible to get around Li metal anodes with Si anodes."

    Source: Nano Letters

    Tesla Model S Video Review -- LA to Vegas [VIDEO]

    Tesla loaned Kelley Blue Book a Model S electric sedan for 24 hours. The goal was to drive it from Las Angeles to Las Vegas and back. It should have been a piece of cake.

    What actually happened was the NYT wannabe reporter strained credibility by making a big deal out of his range anxiety the entire trip.

    EV West 400 kw Electric Off Road Race Car [VIDEO]

    This is the SRI EV1 by EV West, the same team who raced a 700 hp all electric 1995 BMW M3 at Pikes Peak last year.

    The off road racer has a twin 9" DC motor setup, running 1000 amps to each motor via twin Evnetics Soliton 1 controllers, supplied by 138 LiFePO4 Lithium battery cells giving a total output of 540 hp.

    This car will compete in the 2013 NORRA Mexican 1000.

    Source: EV West

    Sunday, February 24, 2013

    Paneltex Zeroed all electric refrigerated trucks [VIDEO]

    The Paneltex pure electric truck is based on the Isuzu Forward 7.5t chassis featuring a Paneltex ATP Class C type approved insulated body and electric refrigeration system. A combination of active and passive regenerative braking recovers the maximum possible braking energy, which, with the 100kWh battery, helps give this zero emissions urban delivery truck a long range. The 20kW on-board charger provides a full charge from flat in 5 hours, and in-built remote diagnostics and tracking provide live management information 24/7.

    Paneltex demonstrated its first Zeroed electric vehicle conversions based on the Isuzu Grafter truck chassis in 2008. Four years on, Paneltex continues to offer a range of vehicles from 5 to 11 tonnes GVW featuring 150kW peak power permanent magnet motors, and up to 100kWh of lithium iron phosphate battery capacity. Fully automatic, these vehicles offer brisk performance with ranges of up to 120 miles on a single charge in urban driving. The conventional chassis design allows bodywork of any design to be fitted.

    Saturday, February 23, 2013

    50 Mercedes-Benz Vito E-CELL for Danish Post [VIDEO]

    In the coming months Mercedes-Benz Danmark is due to deliver 50 new Mercedes-Benz Vito E-CELL battery-powered electric vehicles to the Danish postal services (Post Danmark). This is the largest order for Vito E-CELL panel vans in Europe to date.

    “We are delighted about this major order from Scandinavia. The successful conclusion of the contract with Post Danmark underscores just how ably our Vito E-CELL has demonstrated its worth in this large-scale operation in Denmark over the past months” said Klaus Maier, Head of Sales and Marketing, Mercedes-Benz Vans.

    The electric van delivered a convincing performance in the course of a field test on the island of Bornholm

    Denmark was one of seven target markets in Europe chosen by Mercedes-Benz Vans to test the Vito E-CELL in the early days of its introduction to the market. In the meantime these electric vans, available in panel van and crewbus versions, are available in over 15 European markets.

    The pilot operation with Post Danmark began on the island of Bornholm with three vehicles in mid-2011. A crucial factor for the decision in favour of the Mercedes-Benz Vito E-CELL was the combination of the advantages of a classic van with those of a state-of-the-art electric drive system. Highlighted in this context were its sophisticated powertrain engineering, its powerful lithium-ion battery and its above-average performance figures in respect of drivability and load capacity.

    The Vito E-CELL’s electric motor delivers 60 kW and produces a torque of 280 Nm. The lithium-ion battery with an overall capacity of 36 kWh is well protected underneath the load compartment floor. The load compartment, which can be utilised without restrictions of any sort, can accept a payload of up to 850 kilograms. The vehicle’s top speed is limited to 89 km/h. This benefits the van’s range, 130 kilometres according to NEDC (New European Drive Cycle), which is ample to meet the requirement profile of the Danish postal services since the new electric vans “made by Mercedes-Benz” are intended for short delivery rounds (with numerous stops in between) in the larger Danish cities.

    “The field test with the E-CELL Panel Van on the island of Bornholm ran to the full satisfaction of our customer, so the Danish postal services will now use these vehicles on a widespread basis. Without such ambitious enterprises, it would be very hard to make our vision of emission-free mobility become a reality”, added Markus Denzler, Managing Director, Commercial Vehicles, Mercedes-Benz Denmark and Sweden.

    The Vito E-CELL’s dynamic and agile drive is thanks to a permanent-magnet electric motor (output 60 kW, torque: 280 Nm), power electronics, a transformer and a battery recharger with an output of 6.6 kW located under the bonnet. Power is transmitted to the front wheels. The batteries of the Vito E-CELL are recharged in a maximum of five hours from a 380/400V mains connection. Recuperation feeds the battery additionally during the journey.

    For the success of electricity-based technology for commercial vehicles to become sustainable, the determining factor in the long term will be their economic efficiency. Thanks to its complete independence from fuel, electric drive technology has a significant role to play here in terms of its overall economic efficiency over the period of operation.

    IBM to unveil 'moonshot' Lithium Air Battery

    IBM plans to build a prototype next year of an alternative it calls “lithium air” that would mark a big step forward by packing in more storage capacity.

    While improving the technology depends on chemical processes that take longer to perfect than the systems that brought cheap electronics, finding a solution to the shortcomings of batteries has the potential to revolutionize everything from transportation to hand-held gadgets.

    “We picked the path with the biggest risks and the biggest rewards,” Spike Narayan, science and technology director at IBM Research in San Jose, California, said in an interview. “This is a moonshot.”

    Technology Needed

    “Lithium-ion has been around for decades, and if there was an obvious cost reduction by scaling up we would have seen it by now,” Chew said in an interview from New York. “It’s highly likely the common battery in the next generation of electric vehicles won’t be lithium-ion.”

    Engineers handle the heat of lithium-ion batteries with cooling systems and safety shut-off systems, as Tesla Motors has done in its vehicles. The bigger problem is that the power density in the current generation of batteries is too low.

    IBM’s Work

    For IBM, its effort to build a better battery began in 2009 at an annual meeting it hosts with government agencies and engineers. The “lithium-air” concept relies on the electricity released when the metal reacts with oxygen in the atmosphere. If it works on a commercial scale, it would provide as much energy per weight of the battery as a gallon of gasoline in as little as five years, Narayan said.

    The first step was for scientists to demonstrate the technology can store and release power through 10 charges. Now they’re pushing the unit to work over hundreds of cycles, and build a prototype. That would require further improvements in the materials used for the cathodes, anodes and electrolytes, which form the guts of batteries, Narayan said.

    “We could see a radical advance if our prototype excites a manufacturer with a compatible technology,” Narayan says. “We’ll have a prototype ready next year, and then with our partners we’ll look at the engineering timeline. Five to 10 years is a reasonable time to commercialization.”

    IBM is not alone. Researchers at universities, government laboratories and auto companies are also vying to produce the next-generation battery.

    Rival Projects

    Toyota and BMW AG on Jan. 24 announced plans for lithium-air batteries. Scientists at Massachusetts Institute of Technology are working on a product using carbon nanotubes replacing lithium-ion. Seeo, a start-up backed by billionaire Vinod Khosla, is building lithium-ion units that use a lighter, dry electrolyte instead of liquid.

    A research team at Japan’s National Institute of Advanced Industrial Science and Technology are working on a Lithium Air UltraBattery while the Mechanical Engineering Department at the University of Michigan College of Engineering are also working on Lithium Air Batteries.

    Lithium’s Dominance

    Tesla says the technology is good enough for now. It already boasts the longest range of any all-electric vehicle in production. “We can already achieve 300 miles,” Christina Ra, a spokeswoman for Silicon Valley’s only carmaker. “This is sufficient for the majority of the market.”

    Tesla acknowledges the shortcomings of electric vehicles for longer trips, and said that few of their customers are ordering the low-cost, small battery packs.

    “I think for a long distance trip right now, depending upon where you are in the country, a little bit of extra planning is needed,” Chairman Elon Musk said yesterday on a conference call with investors. “More people are ordering the larger battery pack than we thought.”

    Nissan to Test 100% Electric Refrigerator Trucks

    Nissan Motor Co., Ltd. will conduct test drives of the ATLAS F24 Refrigerator Truck by Li-ion Battery for a one-year period starting this month, in cooperation with Yamato Transport Co., Ltd., headquartered in Chuo-ku, Tokyo.

    This vehicle is the first truck in the world to sustain continued operation of its refrigerator and chiller compartments through a dedicated lithium-ion battery system during small cargo delivery runs. The lithium-ion battery system installed on the vehicle was developed by 4R Energy Corporation.

    This system places no burden on the car engine, so improvements in fuel efficiency are expected. In addition, the output of the refrigeration equipment is not influenced by the number of revolutions of the car engine. This makes it easy to manage the temperature of the refrigerator and chiller compartments, and contributes to improvements in quality management for the products to be delivered.

    Even when the engine is switched off during delivery, there is sufficient battery capacity to ensure stable operation of the refrigerator and chiller compartments for long periods.

    Nissan has customized the specifications of the ATLAS F24 Refrigerator Truck to match the needs of Yamato Transport's services, and will provide this vehicle on loan to Yamato Transport as a monitor vehicle. Yamato Transport will utilize this monitor vehicle for its operations in Kawasaki City, Kanagawa Prefecture, and verify the practicality of the vehicle with Cool TA-Q-BIN and other operations.

    The standard model of the ATLAS F24 Refrigerator Truck by Li-ion Battery is scheduled to go on sale in Japan in summer 2013.

    Nissan Corporate Vice President Hideto Murakami, responsible for the Global LCV Business Unit, said, "The ATLAS F24 Refrigerator Truck by Li-ion Battery is the world's first truck that is able to offer continuous operation of its refrigerator and chiller compartments, without using the engine, through a lithium-ion battery power system.

    "For typical refrigerated vehicles, the refrigeration and chilling functions are suspended once the engine is switched off, such as during delivery runs. However, the ATLAS F24 is able to keep these functions in operation, thereby enabling constant and stable temperature management.

    "The system runs silently and does not generate emissions, contributing to the reduction of CO2 emissions and lower fuel costs. Through the test drives, we hope to verify the functionality of specifications that have been tailored to the needs of Yamato Transport. We also hope that the standard model, scheduled to be launched this summer, meets the expectations of even more customers."

    Takashi Ashihara, Yamato Transport's executive officer responsible for business reform, said, "Generally, vehicles park at each destination for pick-up and delivery. However, we are attempting to decrease frequency of parking by transshipping parcels for several destinations from a vehicle to a handcart. We expect this will contribute to prevent traffic accidents and reduce CO2 emissions. On the other side, it might increase the per time of parking time. Our signature service – Cool TA-Q-BIN – has two temperature belt delivery services, frozen and chilled. So, it's essential to maintain stable temperature control even when the vehicle engine is switched off. We anticipate good test results for the Cool TA-Q-BIN in combination with ATLAS F24."

    As the industry leader in the field of zero-emission vehicles, Nissan is working to develop and sell commercial electric vehicles (EVs), in addition to passenger EVs, such as the Nissan LEAF. Nissan currently is preparing to launch the e-NV200 EV in 2014, a vehicle that is based on the light commercial van, NV200.

    In order to extend the value of EV technology to the truck sector, Nissan is developing various trucks that make use of Nissan LEAF battery components. Beginning with the ATLAS F24 Refrigerator Truck by Li-ion Battery, the company plans to introduce models such as the 100 percent electric truck, e-NT400 ATLAS, and the ATLAS F24 Power Supply Truck in the near future.

    Thursday, February 21, 2013

    The Super Supercapacitor [VIDEO]

    THE SUPER SUPERCAPACITOR is a Finalist in the $200,000 GE FOCUS FORWARD Filmmaker Competition.

    Ric Kaner set out to find a new way to make graphene, the thinnest and strongest material on earth. What he found was a new way to power the world.

    Director: Brian Golden Davis

    Source: GE Focus Forward

    The Audi A3 e-tron plug-in hybrid unveiled

    Audi will preview a new 201bhp petrol-electric hybrid powered version of its third-generation Audi A3 at the Geneva motor show in early March.

    The Audi A3 e-tron sprints from 0 to 100 km/h (62.14 mph) in 7.6 seconds on its way to a top speed of 222 km/h (137.94 mph). According to the ECE standard for plug-in hybrid automobiles, the five-door model consumes on average just 1.5 liters of fuel per 100 km (156.81 US mpg), which corresponds to CO2 emissions of 35 grams per km (56.33 g/mile). In electric mode, the Audi A3 e-tron reaches a top speed of 130 km/h (80.78 mph) and has a maximum range of 50 km (31.07 miles).

    The combustion engine is a modified 1.4 TFSI producing 110 kW (150 hp). A clutch links the TFSI to an electric motor with an output of 75 kW. The disc-shaped electric motor is integrated into a newly designed six-speed e-S tronic, which transfers the power to the front wheels. The two powerplants complement one another. The electric motor delivers its peak torque from start to around 2000 rpm, and the TFSI’s maximum pulling power is available in a range from 1,750 to 4,000 rpm.

    The Audi A3 e-tron can be driven with just the combustion engine, just the electric drive or in hybrid mode. Even in electric mode it offers powerful acceleration without the need to engage the TFSI. The driver can choose to have both powerplants active at the same time (“boosting”). When the driver lets up on the accelerator, they both deactivate temporarily (“gliding”). In this way motor braking torque is eliminated and efficiency increases.

    At the Geneva Motor Show, the Audi A3 e-tron will provide a realistic glimpse into the future of mobility as Audi is planning it. The electrification of the drivetrain, above all using plug-in technology, plays a deciding role in the strategy of the brand.

    VW XL1 diesel-electric 314 mpg plug-in hybrid revealed

    VW’s lightweight, VW XL1 promises an EU-certified economy of 0.9 l/100km - 314mpg and 21g/km CO2 emissions when it goes into limited production later this year following its Geneva motor show reveal next month.

    Powered by a 47 hp two-cylinder 800cc TDI engine backed up by a 27 hp electric motor and plug-in 5.5kWh lithium-ion battery pack, the two-seat car is claimed to have a Cd rating of just 0.189.

    The upshot is that the plug-in hybrid XL1 is probably the most economical and most aerodynamically efficient production car of all time. (The General Motors EV1 had a Cd of 0.195)

    First shown as a running concept two years ago, the carbonfibre-bodied XL1 is being built at the VW-owned Karmann factory in Osnabrück, alongside the VW Golf cabriolet and the new Porsche Boxster.

    Weighing just 795kg, the XL1 is some 3.8m long and 1.66m wide, which means it is only marginally smaller than a VW Polo supermini. However, it is only 1.15m high, some 129mm lower than a Boxster.

    VW says the XL1 has its top speed limited to 99.4mph, but that it can hit 62mph in just 12.7sec. It uses aluminium double wishbone front suspension, a semi-trailing link suspension at the rear, carbonfibre reinforced plastic anti-roll bars and ceramic brake discs.

    Source: Autocar

    Wednesday, February 20, 2013

    Volkswagen e-Golf Specs emerge ahead of Geneva debut

    Preliminary details and first photos with the Volkswagen e-Golf are now available, ahead of the EV's debut in Geneva next month.

    The front-wheel drive electric Golf VII will feature an electric motor capable of developing 115 hp (85.76 kW) and an instant torque of 270 Nm (199 lb-ft). Thanks to this setup, the e-Golf will need 11.8 seconds to complete the 0-62 mph (0-100 km/h) run, before reaching an electronically limited top speed of only 84 mph (135 km/h).

    The lithium-ion battery is mounted under the rear seats and has a capacity of 26.5 kWh which should be enough for a range of up to 175 km (109 miles). Charging from a regular household outlet will be done in at least five hours. The added hardware has increased the Golf's weight by 250 kg (551 lbs).

    The Volkswagen e-Golf will offer three driving modes: Normal, Eco and Range. Normal is the standard configuration, while Eco will limit the output of the electric motor to 95 hp (70.84 kW) and set the electronically limited top speed to just 74.5 mph (120 km/h). Range will deactivate the air conditioning system and further limit top speed to 59 mph (95 km/h).

    McLaren P1 plug-in hybrid to produce 903 BHP - 900 NM

    The McLaren P1™ will have the combined force of two highly-efficient powerplants, offering the optimum mix of superb throttle response, day-to-day drivability and top speed. A mid-mounted 3.8-litre twin-turbo V8 petrol engine and a highly effective electric motor give a combined output of 916PS (903 bhp) and a maximum torque figure of 900Nm, ensuring instantaneous throttle response through the rev range, more akin to a naturally aspirated engine. Emissions of less than 200g/km on the combined cycle are reduced to zero in full electric drive mode, while the Formula 1-derived DRS and IPAS technologies offer an increase in straight-line speed and an instant boost of power.

    The 3.8-litre twin-turbo V8 petrol engine in the McLaren P1™ is a new version of the familiar M838T unit, that has been significantly upgraded to optimise cooling and durability under the higher loads. The engine block has a unique casting to incorporate the electric motor. The petrol engine produces 737PS (727 bhp) at 7,500rpm, and 720Nm of torque from 4,000rpm. To optimise efficiency of the petrol engine, extensive testing and development work has always been carried out with McLaren Automotive technology partner Mobil 1 on lubrication and hydraulic fluids.

    The lightweight electric motor, developed by the McLaren Electronics arm of the Group, produces 179PS (176 bhp), and is unique to the McLaren P1™. The motor produces maximum torque of 260Nm instantly from a standstill, greatly increasing the throttle response of the McLaren P1™, and peak combined torque of 900Nm is delivered from just 4,000 rpm. In addition to this, the McLaren-developed ‘boost’ system, IPAS, provides up to 179PS instantly. The instant response of the electric motor provides a sharper throttle response more associated with a normally aspirated engine, and the significantly enhanced air-charging system enables the McLaren P1™ to have more top-end power – the perfect combination for high performance.

    The electric motor is mounted directly onto the engine, and all drive is channelled through the dual-clutch seven-speed gearbox to drive the rear wheels. Thus, the electric motor and 3.8-litre twin-turbo V8 petrol engine work seamlessly together, providing more than just added ultimate power and torque.

    A further benefit is that the e-motor can provide faster upshifts. This is achieved through the application of instant negative torque at the point of shift, making the engine revs drop as quickly and efficiently as possible to the required engine speed for the upshift.

    In addition to the obsessive weight-saving measures demonstrated throughout the McLaren P1™, so too is the optimisation of usable energy. When off-throttle the electric motor provides additional drag torque, recovering energy to the battery that would otherwise be lost to the brakes.

    E-mode

    The McLaren P1™can be driven in a variety of modes, powered by the engine and electric motor together, or solely by the electric motor. This ensures versatility and ease of transportation, allows use in low emission zones and residential driving is optimised with near-silent running.

    Maximum power comes when using both powerplants together, but even in E-mode the performance is strong. E-mode is the most economical mode available with zero tailpipe emissions. In E-mode, the McLaren P1™ can travel more than 10km with electric-only power – enough for most city journeys. When the battery is empty, the petrol engine will automatically start to maintain drive and charge the battery.

    IPAS and DRS optimise performance and throttle response

    The power available via the petrol engine and electric motor is further enhanced on the McLaren P1™ through two steering wheel-mounted buttons which activate the DRS (Drag Reduction System) and IPAS (Instant Power Assist System).

    The Drag Reduction System used on the McLaren P1™ is a technology similar to that employed on Formula 1 cars. Speed is increased by reducing the amount of drag on the rear wing and, where the MP4-28 has a moveable flap on the rear wing, the McLaren P1™ has a wing that reduces in angle to lower drag by 23%. The system immediately deactivates when the button is released, or if the driver touches the brake pedal.

    IPAS is designed to deliver power rapidly for high performance acceleration, and provides 179PS of instant additional power. In developing the IPAS technology for the McLaren P1™, power delivery was prioritised over energy storage. This is achieved through a groundbreaking, lightweight battery pack, which offers greater power density than any other automotive battery pack on sale today.

    Battery

    The high power density has been achieved through a combination of high power cells, low pack weight and an innovative cooling system. The battery weighs just 96kg, and is mounted onto the underbody of the high-strength Formula 1-grade carbon fibre MonoCage chassis, which seals the unit in the vehicle, thus avoiding the added weight of any unnecessary battery packaging. Due to the amount of power being supplied by the battery, complex cooling is required to guarantee cell performance and reliability. The coolant flow is balanced so each cell is cooled to the same temperature across the entire pack.

    In addition to the battery being charged via the engine, the McLaren P1™ is also equipped with a plug-in charger which can recharge the battery, from empty, in only two hours. The plug-in charger can be stored in the luggage compartment, although the customer may choose to store it off-board – in a garage or the pits – to save weight.

    Further details of the McLaren P1™ will be released in the coming weeks, before the production-ready car makes its world debut at the Geneva Motor Show next month.

    Chinese firms in line to buy Fisker

    Fisker Automotive is weighing bids for a majority stake in the company from two Chinese firms.

    The move comes after the company's founder and chairman Henrik Fisker said in December it was seeking potential strategic partners.

    The Anaheim-based hybrid-vehicle maker is looking at bids from Zhejiang Geely Holding Group Co Ltd and Dongfeng Motor Group Co, with Geely appearing to be the preferred suitor, Reuters reported on Tuesday, citing two sources familiar with the deal.

    The sources said Geely has sent a team of engineers to Fisker's headquarters in California to evaluate the company and its technology to make battery-powered electric cars with a small gasoline engine used to extend the car's driving range.

    The sources added that both offers, which Fisker received in the past three weeks, were worth between $200 million and $300 million, which would give the suitors a majority stake in the automaker, Reuters said.

    Dongfeng could not be reached on Tuesday, while Yang Xueliang, a spokesman for Geely, declined to comment on the report. However, Yang said that Geely - whose Hong Kong-listed subsidiary has just signed a 1 billion yuan ($158.94 million) deal for a 50-50 joint venture with Kandi Vehicles to make low-speed electric vehicles - will announce the group's new-energy vehicle plan in about a month.

    Fisker would only confirm in a statement on Tuesday that it had received "detailed proposals from multiple parties in different continents, which are now being evaluated by the company and its advisers". It said it is "pleased with the level of interest from potential partners".

    Fisker had a difficult year in 2012, as it suffered from a series of recalls due to battery, software and cooling issues. "The new-energy vehicle industry in the US is entering a period of uncertainty as the government will probably block more aid to finance the sector," said Zhong Shi, a Beijing-based expert in the new-energy vehicle sector, who is familiar with Fisker. "That will make investors in the sector, mostly venture capital firms, retreat from those troubled automotive players as soon as possible.

    "Chinese companies' strong interest in Fisker is a result of the Chinese government's encouragement to develop alternative-fuel vehicles in a bid to ease the country's strong reliance on imported oil and reduce emissions.

    "The purchase or control of mature new-energy companies in the United States can provide ambitious Chinese companies with a shortcut in the sector."

    According to Reuters' report, Fisker's leaders and their advisers believe that Geely is "more serious" and "passionate" about the company and its technology.

    Also in Geely's favor is the fact that the company acquired Swedish luxury car brand Volvo in 2010 and that it probably can move faster in its decision-making process than State-owned Dongfeng.

    However, Zhong said that he believed that the Wanxiang Group, which bought Fisker's bankrupt primary battery supplier A123 Systems last year, could also be a suitor for Fisker.

    "A Wanxiang executive previously indicated its intent to help support Fisker, which it sees as its most important customer," he said. "If Wanxiang were to win the deal, it would stand in the frontline of the extended electric-vehicle sector in China, with complete control of core technologies for both battery and vehicles."

    As European and Japanese automakers are not familiar with or interested in extended plug-in hybrid technologies, Chinese bidders have more chances to win the Fisker deal, Zhong added.

    Fisker spokesman Roger Ormisher said that the company is optimistic about the Chinese electric-vehicle market, a region it has been preparing to enter for two years.

    "We're aware of the potential and working toward bringing the car to market," he said.

    Issues such as the relatively high cost of electric vehicles and worries about running out of power on long trips owing to a lack of charging stations are seen as tough challenges facing electric-vehicle makers generally.

    Ormisher said Fisker's plan is to market its Karma car, which sells for $110,000 in the US to upscale Chinese buyers who typically own four to five cars.

    Tuesday, February 19, 2013

    New ARPA-E $20M R&D program Targets $30k EV with 400 km Range

    If you think you can develop an EV battery that delivers three times the range for a third less cost than current designs, you can claim a slice of $20 million in research funding from the DOE’s Advanced Research Projects Agency - Energy (ARPA-E). The agency has issued a funding opportunity announcement (FOA) for the development of “transformational electrochemical energy storage technologies,” and expects to make 8- 12 awards.

    The Robust Affordable Next Generation EV-Storage (RANGE) program’s goal is to enable an increase in EV range from around 80 to around 250 miles per charge, with a price reduction of at least a third, to around $30,000. But that’s not all - RANGE wants “robust” designs that “avoid thermal runaway and are immune to catastrophic failure regardless of manufacturing quality or abuse conditions.”

    RANGE suggests several possible designs: non-combustible aqueous or solid state electrolytes; a redox flow battery architecture that is inherently more robust due to the physical separation of its active components from the cell electrodes; or a mechanism that allows a battery to automatically fail under abuse conditions.

    Such robust designs could lower cost by reducing demands on system-level engineering, liberating the energy storage system from the need for vehicle impact protection, and enabling multiple functions, such as assisting crash energy management and carrying structural load.

    The FOA contains highly detailed specifications of what RANGE is looking for, so give it a read and head for the lab.

    Source: ARPA-E

    Wireless Electricity Being Deployed in Korean Mass Transit

    An On-Line Electric Vehicle (OLEV) that can charge during travel will be put into service for the first time in the world on normal roads.

    From July of this year 2 OLEV buses will undergo trial operations in the city of Gumi.

    The trial route spans 24km from Gumi station and the region of In-Dong and the establishment of the route is expected to be of a 4.8billion Won (AUD$ 4.3M) scale. The start of the infrastructure construction will start on February and operation will start in July.

    KAIST had held sessions in October of last year to local governments and had a follow up OLEV suitability evaluation to those local governments expressing interest.

    The city of Gumi was elected due to its good electrical infrastructure and an administrative willingness to match.

    The OLEV developed by KAIST is an environmentally friendly vehicle that allows the transfer of electrical power using magnetic fields imbedded in the roads.

    Engineers say the transmitting technology supplies 180 kW of stable, constant power at 60 kHz to passing vehicles that are equipped with receivers. The initial OLEV models above received 100 kW of power at 20 kHz through an almost eight-inch air gap. They have recorded 85 percent transmission efficiency through testing so far.

    The wireless electricity that powers the vehicle’s motors and systems is also used to charge an on-board battery that supplies energy to the vehicle when it is away from the power line.

    Ordinary electric vehicles require frequent visits to replenish their power which gives the OLEV a comparative advantage as it can charge while on the road. The ability to charge whilst on the road means that the OLEV requires a smaller battery than the ordinary electrical vehicle resulting in lower prices and weight.

    The OLEV development commenced at KAIST in 2009 and in 2010 most of the core technologies required to realize the OLEV was developed and verified. Finally in 2012 steps were taken that will allow the commercialization of the OLEV.

    The KAIST OLEV was named top 50 inventions in 2010 by Time Magazine.

    Source: KAIST

    CNBC test drive Tesla Model S from DC to Boston [VIDEO]

    Tuesday morning, CNBC's Phil LeBeau left on a one-day test drive in the Tesla Model S from Washington, D.C., to a suburb just outside Boston.

    He is not the first, nor will he be the last to recreate the same test drive that led to a very public spat between New York Times reporter John Broder and Tesla CEO Elon Musk.

    Source: CNBC

    TOYOTA Racing Reveals Updated TS030 HYBRID for 2013 [VIDEO]

    TOYOTA Racing today unveiled the revised TS030 HYBRID car which will spearhead the team’s quest for victory in the Le Mans 24 Hours and the FIA World Endurance Championship (WEC) this season.

    Following a successful roll-out earlier this month, TOYOTA Racing begins the first full test of the 2013-specification TS030 HYBRID at Paul Ricard in southern France tomorrow.

    After an impressive debut in the WEC in 2012, which included three victories in just six races, the team returns with an ambition to win both the Le Mans 24 Hours and the WEC title.

    Alex Wurz, Nicolas Lapierre and Kazuki Nakajima team up again in the #7 TS030 HYBRID. The #8 will compete outside of Le Mans for the first time, with Anthony Davidson, Stéphane Sarrazin, and Sébastien Buemi driving.

    The team will again utilise the TOYOTA HYBRID System – Racing powertrain, developed exclusively for motorsport by TOYOTA’s Motor Sport Division in Higashifuji.

    A unique super capacitor-based hybrid system delivers 300hp of boost automatically, on top of the 530hp generated by a 3.4litre, normally-aspirated V8 petrol engine.

    Ahead of a completely new development for 2014 due to regulation changes, TOYOTA’s Motor Sport Division in Higashifuji has fine-tuned this year’s powertrain to improve power, efficiency, management of component usage and reliability.

    The race-winning TS030 HYBRID chassis has also been modified for the upcoming season, with increased performance, reliability and serviceability the priorities.

    TOYOTA Motorsport GmbH (TMG), which designs, builds and operates the TS030 HYBRID, has used its extensive R&D testing facilities and experienced engineers to deliver the next evolution.

    A revised aerodynamic package, including an updated monocoque, will deliver improved performance whilst minimising the impact of updated regulations in 2013 which increase the minimum weight for manufacturer LMP1 cars by 15kg.

    The complete WEC schedule is: Silverstone, UK (14 April); Spa-Francorchamps, Belgium (4 May); Le Mans, France (22 June); Sao Paulo, Brazil (1 September); Austin, United States (22 September); Fuji, Japan (20 October); Shanghai, China (10 November); Bahrain (30 November).

    Sunday, February 17, 2013

    Tesla Model S in testing at Consumer Reports [VIDEO]

    Consumer Reports just bought the Tesla Model S for testing.

    As it goes through its break-in period, leading into formal testing they recently confirmed that driving this electric car—like any other—can bring some range anxiety. Although winter highway driving may present a worst-case scenario, our Tesla actually delivered the range it projected.

    Source: Consumer Reports

    2015 Seat Altea XL Ecomotive Electric [VIDEO]

    The Altea XL Electric is SEAT’s first all-electric car. It has a range of 135 kilometres (84 miles), a power output of 115 hp (85 kW), an engine torque of 270 Nm (199 lb-ft) and a top speed of 135 km/h (84 mph).

    The battery pack is located under the rear seats and the trunk, meaning no reduction in passenger compartment space, and it carries photovoltaic panels on the roof to cut energy requirements for the vehicle’s air-conditioning.

    SEAT hopes to put the technology into production in 2015.

    Thursday, February 14, 2013

    World's Most Powerful Electric Drive Powerboat by Mercedes-AMG

    Mercedes-AMG and Cigarette Racing are launching the latest development of their cooperation at the Miami International Boat Show (February, 14-18 2013) with "Cigarette AMG Electric Drive Concept" engineering design, which integrates numerous components from the SLS AMG Coupé Electric Drive, the world's most powerful and fastest electrically driven series production vehicle that is making an appearance in Miami alongside the boat it has inspired.

    This joint project underscores the technological leadership that is core to both Mercedes-AMG and Cigarette Racing. The high-performance drive technology from the SLS AMG electric super sports car fitted within a Cigarette Racing off-shore powerboat has created the world's most powerful and fastest electrically driven motor boat. With an output of 1656 Kilo watts (2,200 hp) and a maximum torque of 3000 Newton meters,(2,213 ft-lb,) the "Cigarette AMG Electric Drive Concept" is a fascinating new development.

    The 38 foot (11.6 metre) long "Cigarette AMG Electric Drive Concept" powerboat is finished in "AMG Electricbeam magno" - the matt chrome paintwork exclusively reserved for the SLS AMG Coupé Electric Drive. It proudly wears AMG logos on the side of the powerboat clearly communicating the alliance between the Miami-based boat manufacturer and Mercedes-AMG GmbH from Affalterbach Germany.

    The engine design exemplifies the transfer of technology from the gullwing to the powerboat. The boat is fitted with the twelve compact, liquid-cooled permanent-magnet synchronous electric motors: Mercedes-AMG created two drive units in the boat, each featuring six independent electric motors. At the rear of the boat, each drive unit has its own transmission, one on the left and one on the right. Each electric motor delivers 138 kW and 250 Newton meters.

    The maximum output will allow an approximate top speed of over 160 km/h making this emission-free "Cigarette AMG Electric Drive Concept" the world's fastest electrically driven powerboat. In keeping with the SLS AMG Coupé Electric Drive, the motors and the battery are ideally placed in the "Cigarette AMG Electric Drive Concept". The low center of gravity and optimum weight distribution ensure sublime handling characteristics during more dynamic changes of direction.

    The lithium-ion high-voltage battery via Formula 1 Technology:

    Mercedes-AMG is setting new standards with battery efficiency, performance and weight. The high-voltage battery in the SLS AMG Coupé Electric Drive boasts an energy content of 60 Kilowatt hours, an electric load potential of 600 Kilowatts and a weight of 548 kg - all of which are absolute cutting-edge output values within the automotive sector. The liquid-cooled lithium-ion high-voltage battery features a modular design with a maximum voltage of 400 V. It consists of 12 modules each comprising 72 lithium-ion cells. Cigarette integrates four high-tech batteries with a total of 48 modules and 3456 cells which generate a total capacity of 240 Kilowatt hours and an electric output of 2400 Kilowatts - benchmark figures that earn respect throughout the boat building industry.

    Advanced technology and know-how from the world of Formula 1 have been leveraged during battery development. The battery is now the result of the cooperation between Mercedes-AMG GmbH in Affalterbach and Mercedes AMG High Performance Powertrains Ltd. With their headquarters in Brixworth, England, the company has been working closely with Mercedes-AMG for several years.

    The Cigarette AMG Electric Drive Concept is fitted with two 22-Kilowatt on-board chargers from the SLS AMG Coupé Electric Drive. Adapted to fit the infrastructure standard of many American marinas, the boat has a charging capacity of 44 Kilowatts. The battery is fully charged in approximately seven hours. To reduce the charging time to less than three hours, the powerboat can be fitted with four on-board chargers as an option.

    Design, fittings and cockpit with signature AMG elements

    Design and fittings reflect the dynamic characteristics of the "Cigarette AMG Electric Drive Concept". The signature Cigarette Racing sports seats are matched with various carbon elements in the cockpit. The display concept of the SLS AMG Coupé Electric Drive can also be found behind the steering wheel: fitted with dials in the exclusive "AMG Electricbeam magno" paint finish and sporting AMG logos, the displays provide information about the current motor output, the speed, battery voltage and of course the battery's state of charge.

    Mercedes-AMG and Cigarette Racing Alliance since 2007

    Mercedes-AMG and Cigarette Racing have been collaborating since 2007, primarily for organising joint customer and marketing activities. Results of this cooperation were witnessed with the launch of two exclusive powerboats in 2010 and 2012. The "46' Rider Inspired by AMG" was the premiere: the technology, design and equipment were heavily based on the SLS AMG gullwing launched in 2009. The "Inspired by AMG Black Series 50' Marauder" followed in 2012 - a powerboat significantly inspired by the C 63 AMG Coupé Black Series.

    Whether on land or water, performance is what unites Mercedes-AMG and Cigarette Racing. Similar to its Mercedes-AMG super sports counterpart, the 38 to 55 feet (11.6 to 16.8 metres) long powerboat from the American specialists is amongst the world's fastest and most exclusive machines. These boats boast custom-made, hand-crafted quality for enthusiasts and are tested under extreme conditions. Mercedes-AMG and Cigarette Racing also have similar DNA makeups: both companies owe their roots to racing and are still dedicated to this passion.

    The vital statistics at a glance:

    SLS AMG Coupé Electric DriveCigarette AMG Electric Drive Concept **
    Maximum output552 kW1656 kW
    Torque1000 Nm3000 Nm
    Maximum speed250 km/h*over 160 km/h
    Battery energy content60 kWh240 kWh
    Battery voltage400 Volt400 Volt
    CO2 emissions0 g/km0 g/km
    *electronic restriction; **preliminary data