Aston Martin V8 Vantage, 2009

Aston Martin V8 Vantage, 2009

 

 

Aston Martin V8 Vantage - originally launched to widespread critical acclaim at the Geneva Motor Show in 2005 - is to receive significant technical enhancements, reaffirming the car's position as one of the world's most desirable and exhilarating sports cars.

While the universally distinctive and award-winning shape of the Aston Martin V8 Vantage is retained, the car benefits from a number of technical changes which include significantly up-rated engine performance from a new 4.7 litre power unit in both Coupe and Roadster variants. Other changes include revised dynamics to take full advantage of increased power and torque availability, improved Sportshift™ transmission software and a new sports suspension option.

The 4.7 litre V8 engine has a power output of 420bhp (an 11% increase on the previous 4.3 litre unit) and delivers peak torque of 470Nm (15% increase), providing the Aston Martin V8 Vantage with new reserves of mid-range performance, an improved 0-60mph time of 4.7 seconds and top speed of 180mph (288kph). Combined European fuel economy and CO2 emissions are also improved by 13% (Sportshift™).

Inside, the changes include a new centre console and revised switchgear and the introduction of an ECU replacing the previous V8 Vantage key. Externally, the acclaimed Aston Martin V8 Vantage design appearance is enhanced with a range of new standard and optional 19'' alloy wheels.

Engine
Improvements in performance have been achieved through a number of carefully developed changes to Aston Martin's acclaimed V8 engine.

The cylinder bore and stroke has been increased from 89mm to 91mm and 86mm to 91mm respectively, giving a total displacement of 4735cc.
The increase in cylinder bore is facilitated by a move to cylinder liners that are pressed into the pre-machined aluminium alloy block, allowing a thinner liner than was possible with the cast-in design of the 4.3 litre engine.

The new forged steel crankshaft provides the 91mm stroke and incorporates new holes in the counter weights for reduced rotating mass and improved inter-bay breathing. New forged steel con-rods and cast aluminium pistons complete the capacity-related changes.

Transmission
The Aston Martin V8 Vantage transmissions have also undergone changes to improve performance and to handle the increased levels of power and torque. Both the standard manual stick-shift gearbox and the optional Sportshift™ transmission benefit from a modified clutch and flywheel, reducing clutch pedal efforts and delivering a 0.5kg weight saving, reducing the rotating masses within the powertrain, and hence increasing engine responsiveness.

'Dual Throttle Map' software is also featured. When 'Comfort' mode is selected the engine reacts in a smoother more progressive manner to driver throttle inputs and in the default 'Sports' mode the throttle mapping is more aggressive, delivering a more dynamic and sporting feel.

Sportshift™ now also has the capability to take inputs from the steering wheel enabling the current gear to be held when the car is negotiating a corner and hill descent detection, allowing a low gear to be held, maximising the effects of engine braking.

Suspension
A series of improvements are introduced to the Aston Martin V8 Vantage chassis and suspension setup to deliver improved body control and low speed ride quality; enabling the driver to take full advantage of the increased performance potential.
A number of the improved components originally introduced on the Aston Martin V8 Vantage Roadster are now carried over to the Coupe, including revised upper damper mountings and bump stops. Additionally, the front spring rates are stiffened by 11% at the front and 5% at the rear.

Steering geometry is also modified to improve steering feel, while the front lower suspension arm compliance bushes are stiffened by 22% to provide enhanced steering response and handling.
The Aston Martin V8 Vantage also now benefits from Bilstein dampers as standard; these low-friction dampers provide improved levels of dynamic capabilities and further improve ride quality.

Design & Optional Equipment
Also introduced as an option for both Coupe and Roadster variants is a new Sports Pack which comprises forged lightweight alloy wheels aiding a lower unsprung mass, re-tuned Bilstein dampers with improved dynamic response, up-rated springs and a revised rear anti-roll bar (Coupe only). The Sports Pack is intended to offer greater agility, high speed body control and precision feel for the most enthusiastic of drivers.

Performance
    * Max speed: 180mph (290 km/h)
    * Acceleration: 0-60mph 4.7 seconds
    * 0-100km/h (62mph) 4.8 seconds
    * Max power: 313kW (420bhp) @ 7000 rpm
    * Max torque: 470 Nm (346 lb.ft) @ 5750 rpm

Aston Martin Lagonda Concept, 2009

Aston Martin Lagonda Concept, 2009

 

The Aston Martin Lagonda Concept celebrates 100 years of car production under the Lagonda brand, a stunning contemporary evolution of this evocative name.
The modern Lagonda marries functionalism with luxury, through organic forms, rich materials and complex surfaces. The car is based on an advanced platform that is tailored to accommodate a broad range of future powertrains, including flexfuel, low emission diesel and hybrid systems.

The clear delineation between cabin, shoulder and flank is strongly reminiscent of the powerful and evocative lines of the 1930s era Lagondas, in particular the V12-engined version of the LG6. Viewed from the front of the concept, the deep, strong grille also evokes the presence and frontage of the cars from the inter-war era. The bold character lines that run along the sculpted flanks to the rear ensure the concept is planted firmly on the road. The large 22" wheels and cut-away bodywork offer exceptional ground clearance, while the concept's V12 engine delivers power through all four wheels.
Aston Martin Lagonda Concept

A modern automotive brand must have strong core values and a broad range of abilities. The modern Lagonda will be the pre-eminent long-distance automobile, a vehicle that combines cosseting luxury with extreme functionality and technological innovation.
The Lagonda name has been an integral part of the Aston Martin story since 1947. The Aston Martin Lagonda Concept illustrates how the brand will once again stand together with Aston Martin as the perfect complement to modern performance. A Lagonda stands for functional elegance, performance, simplicity and comfort.

Lagonda: Revival of a Luxury Brand
Aston Martin is proud to announce the return of Lagonda, one of the most iconic names in luxury car manufacturing. The intention is for Lagonda to enter the market place with a unique performance luxury product, a vehicle that combines exceptional ability with unsurpassed elegance, inside and out.

Lagonda's return signals a major expansion of Aston Martin's product line, taking the company into new and emerging markets around the world. To demonstrate the Lagonda vision, the Aston Martin Lagonda Concept has been created, a car that epitomises the intersection of craft, design and technology with Aston Martin's established high performance expertise.
The return of Lagonda fulfils a long-term vision. Aston Martin's modern era began in 2001 with the launch of the V12 Vanquish and the construction of the award-winning headquarters at Gaydon, Warwickshire in 2003. In the years that followed, Aston Martin has launched four class-leading new products, revitalising the performance GT category and redefining automotive beauty.

Aston Martin's award-winning range, the DBS, DB9, Vantage and forthcoming Rapide and One-77, represent some of the most beautiful high performance cars ever built, refined, highly crafted and extremely well-engineered. An Aston Martin will always be a sports car; modern, exclusive and beautiful, it demands to be driven, with an exceptional character that rewards the enthusiast, both on the road and on the track. Above all, an Aston Martin creates an emotional response. It is a machine with soul.

Under the leadership of Dr Ulrich Bez, Lagonda will bring performance luxury into new markets and territories around the world. Reflecting its remarkable history, Lagonda will return to Russia, enter emerging markets in the Middle East, South America, India and China, as well as responding to demand from the dynamic, innovation-focused consumers of Europe, North America and the Far East.

Heritage
Lagonda is one of the great names in automotive history, a brand associated with luxury, performance, grace and exclusivity. Since the first Lagonda production car, was built 100 years ago by the American-born Wilbur Gunn, the Lagonda name has undergone several incarnations, before it soon began to excel at creating racing cars and sporting saloons.

Gunn's first car was built in his home workshop in Middlesex, England in 1909. In 1910, Gunn drove his 16/18hp Lagonda Tourer to victory in the Russian Reliability Trial, a spectacular event run by the Imperial Automobile Club of Russia as a public relations exercise for the country's nascent road system. The win brought in many orders, and Gunn focused his attention on the Russian market, establishing dealerships in St Petersburg and Moscow in 1910.

Russian roads presented entrants with daunting driving conditions and the route, which included St Petersburg, Riga, Kiev and Moscow, was a rigorous test for any car. Gunn's success was a vindication of the Lagonda's sturdy build and swift performance. It was not until the following year that Lagonda began marketing cars in its home country, beginning a limited production of light cars that was eventually halted by the First World War.

Throughout the 20s and 30s, the company expanded its premises in Staines, England with the light cars giving way to more substantial touring models. Lagonda came to epitomise the Edwardian passion for setting new records and exploring new territories, with robust and reliable vehicles that could effortlessly forge trans-continental links.

In 1933, the manufacturer launched the M45 at the Olympia Motor Show in London, a sporting tourer powered by the Henry Meadows-designed six-cylinder 4.5-litre engine. The prototype was driven by the aristocrat and enthusiast Edward Russell, Lord de Clifford, from Dieppe to Brindisi in Greece, beating the express train along the same route by some 14 hours. The result was a media sensation.

The M45 quickly became known as a car for the discerning sportsman, fast and capable yet also sufficiently comfortable for long journeys. In its day it had the largest engine in its class, a distinction that attracted owners like the land speed record holder Sir Malcolm Campbell, who had his M45 painted in his signature blue.

The emerging sport of long-distance endurance racing also became an integral part of Lagonda's development. In June 1935, a lightweight version of the M45 won the Le Mans 24 hours, with John Hindmarsh and Luis Fontes behind the wheel. This was a landmark achievement for the brand, as well as a highpoint of British sports car racing in the interwar era following Bentley's heyday in the 1920s.

The same month, Lagonda was bought by Alan Good, a charismatic British lawyer whose first task was to enlist the skills of engineer W.O. Bentley. The results were the LG45 styled by Frank Feeley that represented the apex of the engineering skills of the time. In 1936, W.O. Bentley designed Lagonda's first V12, an engine that was perfectly at home in the majestic long-wheelbase version of the new chassis.

The Lagondas of the 1930s demonstrated total harmony between engineering and appearance, including the stately LG6 model introduced in 1937. W.O. Bentley's diligent innovation and refinement continued throughout the war, and the company developed the LG6 into a V12 model, an even more 'imposing and dignified' saloon that sadly ceased production before the start of the war. Simultaneously, the engineer developed a new six-cylinder engine, during the war, the benefits of which were soon to be reaped by Aston Martin.

Feeley was responsible for the elegant drophead variant of the new 2.6 litre, the first Lagonda of the David Brown era, produced from 1948 to 1953. At the end of 1952 the 2.6 litre was developed into the 3.0 litre, which used a revised version of the W.O. Bentley engine. The two-door saloon was soon joined by a four-door and a drophead coupe. The next Lagonda was the Touring-designed Rapide of 1963, a sleek four-door saloon that shared many components with the Aston Martin DB4. Fifty-five were built, of which 48 survive. In the late 1960s, Aston Martin's head designer, William Towns, developed a new four-door saloon from the Aston Martin DBS. Just seven examples were built in the mid 1970s.

Porsche 911 Targa 4, 2009

Porsche 911 Targa 4, 2009

 

The 911 Targas differ from both the Carrera Coupes and Cabriolets by dint of their stunning glass tops. The all-wheel drive Porsche 911 Targa 4 and Targa 4S are unique with roofs comprised entirely of two transparent panels. The glass extends from the windshield header back to the leading edge of the engine cover, from side frame to side frame.

More Power from Less Fuel
Both the Porsche 911 Targa 4 and 911 Targa 4S receive new engines which boast direct fuel injection, new two-piece crankcases and revised intake and exhaust systems along with Porsche VarioCam Plus intake-valve timing and lift system. By injecting the fuel directly into each cylinder's combustion chamber rather than the intake as is more common, combustion is cleaner and more complete. This technology reduces exhaust emissions and fuel consumption while simultaneously increasing engine potency.

The results are felt and appreciated immediately by the Porsche 911 Targa 4's driver. Thanks to a 6.2 percent increase in horsepower and a 5.3 percent gain torque over last year's model, the 3.6- liter engine goes from 325 to 345 hp and receives a gain in torque from 273 to 288 lb.-ft. A manual gearbox equipped 2009 911 Targa 4 can accelerate from 0 to 60 mph (96 km/h) in 5.0 seconds.

Two Clutches, No Clutch Pedal
To take full advantage of the newly designed engines, Porsche is offering drivers a transmission that delivers quicker acceleration than is possible with the standard manual gearbox while maximizing fuel efficiency. The new PDK (from the German Porsche- Doppelkupplungsgetriebe), or Porsche double-clutch, replaces the Tiptronic S as the optional gearbox in both the Porsche 911 Targa 4 and Targa 4S.

Porsche was the first automaker to successfully use this transmission technology back in the 1980s when the transmission was developed for the mighty Porsche 962 Group C race car. The Porsche 911 Targa 4 or Targa 4S driver can allow the seven-speed PDK to shift up and down automatically, or he may opt to manually shift via steering-wheel mounted paddles or the console-mounted lever, the same as with the Tiptronic S.

All-Weather Maximum Performance
In addition to their unique two-section glass roofs, the Porsche 911 Targa 4 and Targa 4S offer their drivers the added benefits of all-wheel drive. For 2009, these cars benefit from the same electronically controlled Porsche Traction Management (PTM) found under the awesome Porsche Turbo, as well as the new mchanical locking differential standard.

PTM replaces the previous models' viscous-coupling, mechanical all-wheel drive system and operates more quickly and seamlessly than its predecessor. PTM varies the torque split infinitesmely and absolutely between front and rear wheels as needed for optimum traction. However, since most purists feel-and Porsche's engineers staunchly believe-that rear-drive is critical for optimum sporty driving, PTM directs two thirds of the engine's torque to the rear wheels under normal driving conditions.

When the system determines it's needed, PTM diverts engine power and torque to the front axle in millisecond cycles. Particularly at very high speeds, all the driver feels is the car's significant stability.

Bigger, Grippier Brakes
Porsche engineers firmly believe that a car's deceleration ability must always out-perform its ability to accelerate. Commensurate with the gains in engine performance, the 2009 Porsche 911 Targa 4 and Targa 4S receive added braking capability. All four brake rotors on both cars are cross-drilled, inner vented and now 12.99 inches (330 mm) in diameter.

In addition, the monobloc, four-piston calipers are now the same as those used on the 911 Turbo. Critical refinements have been made to the airflow around the wheels to increase brake cooling all around as well.

Instantly Recognizable and Aerodynamic
With their full-glass canopy - from beltline to beltline, front cowl to rear engine cover - the Porsche 911 Targa 4 and Targa 4S look like nothing else on the road, Porsche or otherwise. But from the beltline down, the cars share a strong resemblance to the current Carrera 4 and Carrera 4S models.

Clearly, the most striking element of the 911 Targa is its 16.58 sq.-ft. glass roof. The roof is comprised of two separate segments: a sliding panel over the front seats and a hinged tailgate at the rear. The electrically operated front panel fully opens or closes in seven seconds. When open, the glass panel slides snugly beneath the tailgate, providing almost five square feet of open space above the passenger cabin.

The sliding roof comes standard with a new sun shade offering greater privacy and more effective thermal protection than before. When closed, the sun shade covers the entire area of the sliding roof panel, opening and closing electrically and independently of the roof itself.
The glass roof and tailgate are made of special tinted glass, which protects the occupants from ultraviolet radiation and excessive heat even in bright sunlight.

The rear section of the Targa top opens for access to the interior, particularly handy for getting to the storage area behind the rear seatbacks. The Porsche 911 Targa 4 and Targa 4S are the only models in the Porsche 911 range with a separately opening tailgate.

More Sophisticated and Comfortable
Beneath the glass top, the Porsche 911 Targa 4 and Targa 4S boast luxuriously appointed passenger cabins. Like all Porsches, the cars offer their occupants the protection of six airbags: dual frontal-impact airbags as well as two seat-mounted thorax-protecting side-impact airbags and two head-protecting side-impact curtain door-mounted airbags.

Interior refinements include a revamped center console highlighted by a new Porsche Communication Management system-PCM 3.0-and the availability of ventilated front seats.
The optional navigation module now has a 40 GB hard drive. Other available features with the newest PCM include XM satellite radio with XM NavTraffic capability, Bluetooth connectivity, an iPod port, a USB port and an auxiliary jack.

Interior comfort may be further enhanced thanks to optional seat ventilating fans, available in conjunction with heated seats. These circulate air through the seatback and cushion upholstery to expedite cooling, heating and/or drying the driver and passenger.

Porsche Boxster, 2009

Porsche Boxster, 2009

 

In 1948, the 356 was the first sports car to bear the Porsche name, and in July that year the lightweight mid-engined roadster achieved its first motorsport victory. In 1953, the Porsche 550 Spyder was launched. This agile, lightweight race car was powered by a high performance 'boxer' engine which took it to countless international victories.

Porsche presented the second generation of the mid-engined Porsche Boxster roadster at the 2008 Los Angeles Motor Show. The highlight of the new generation is the new flat-six 'boxer' engines, developed with new technical features from the ground up, providing not only more power, but also significantly greater fuel efficiency.

A further improvement of both fuel economy and performance is guaranteed by the Porsche Doppelkupplungsgetriebe (PDK), the new double-clutch gearbox now available as an option on both the Porsche Boxster and Boxster S.

Displacing 2.9-litres, the engine of the Porsche Boxster develops 255 bhp (188 kW) in the Boxster, an increase of 10 horsepower over the prior 2.7-litre model.

The 3.4-litre power unit in the Porsche Boxster S now features Direct Fuel Injection, and delivers 310 bhp (228 kW), up by 15 bhp.

Direct Fuel Injection standard on 3.4-litre S engine
The driver benefits from a further advantage of direct injection every time they touch the throttle pedal: with fuel being injected fractions of a second prior to combustion, the engines respond more directly and spontaneously to even the slightest movement of the driver's right foot. This is not only the case when accelerating, but also when lifting off the throttle, for engine speed drops more quickly and smoothly since there is no residual fuel left in the intake manifold which might otherwise prolong the combustion process.

Design emphasises performance
The seamless blend of function and design has always been the Porsche philosophy. The result is a design consistency which is recognisable from every angle. A design which is both powerful and refined, and whose lines emphasise its sports performance.

The evolutionary styling of the next generation Porsche Boxster embodies these principles. The latest models are clearly distinguishable from outside through their newly-designed nose and tail. The new halogen headlights with their integrated direction indicators are reminiscent of the lights on the Carrera GT, while at the rear, new LED lights taper to the outside and are integrated elegantly in to the restyled bodywork.

PDK: shifting gears more quickly, reducing fuel consumption
The new Porsche Boxster models are available with the Porsche-Doppelkupplungsgetriebe (PDK) carried over directly from motor sport, and replacing the former Tiptronic S torque converter automatic transmission. When equipped with PDK, the Porsche Boxster accelerates from 0-62mph (100 km/h) 0.1 seconds faster than with the manual six-speed gearbox.

Acceleration is particularly fast and dynamic with the optional Sports Chrono Package Plus featuring Launch Control; this offers maximum acceleration from a standing start and also a Race Track Gearshift Strategy for the fastest conceivable gear change as an exclusive highlight on the PDK models.

Porsche Doppelkupplungsgetriebe (PDK) - in detail
The next generation Porsche Boxster and Boxster S are available for the first time with the new Porsche Doppelkupplungsgetriebe (PDK), literally Porsche double-clutch gearbox. Offering no less than seven forward gears, the new gearbox combines the driving comfort of a torque converter-equipped automatic transmission with the dynamic manual gearshift functionality of a sequential racing gearbox. PDK also boasts an entirely automatic gearshift function, and replaces the Porsche Tiptronic S automatic transmission previously offered. Through its optimised and adaptive gearshift programmes, PDK further improves the acceleration of the Porsche Boxster models and reduces fuel consumption to an even lower level.

In principle, the PDK consists of a conventional manual gearbox and a hydraulic control system divided into two separate transmission units. Two wet clutches in radial arrangement, controlled hydraulically, and using oil for both cooling and lubrication, form the heart of the transmission. One clutch is for the first transmission unit with the uneven gear ratios (1,3,5,7) and reverse, and the other clutch is for the second transmission unit with the even gears (2,4,6). Via a number of pressure valves, the hydraulic control unit masterminds both the wet clutches and the shift cylinders activating the transmission ratio required.

The gearshift perceived by the driver comes not from the gears actually changing, but from the change of positive clutch engagement. In this case, the clutch on one transmission opens or disengages while the clutch on the other transmission closes or engages in a simultaneous process. The big advantage is an even faster gearshift than with a conventional manual gearbox or torque converter automatic transmission. The gears are already 'in mesh' when shifting and the power of the engine need not be interrupted in the process.

Audi e-tron Concept, 2009

Audi e-tron Concept, 2009

 The Audi presents the highlight of the IAA 2009: the Audi e-tron Concept, a high-performance sports car with a purely electric drive system. Four motors - two each at the front and rear axles - drive the wheels, making the concept car a true quattro. Producing 230 kW (313 hp) and 4,500 Nm (3,319.03 lb-ft) of torque, the two-seater accelerates from 0 to 100 km/h (0 - 62.14 mph) in 4.8 seconds, and from 60 to 120 km/h (37.28 - 74.56 mph) in 4.1 seconds. The lithium-ion battery provides a truly useable energy content of 42.4 kilowatt hours to enable a range of approximately 248 kilometers.

The performance figures are by no means the only evidence of the consistent and holistic strategy. The design makes it clear that the Audi e-tron Concept belongs in the major leagues of sports cars, and the package takes into account the specific realities of an electric vehicle. The battery is directly behind the passenger cabin for an optimal center of gravity and axle load distribution.

The Audi e-tron Concept is able to freely distribute the powerful torque of its four electric motors to the wheels as required. This so-called torque vectoring allows for dazzling dynamics and an undreamed-of level of agility and precision when cornering.

Audi has taken a new and in some cases revolutionary approach to many of the technical modules. A heat pump is used to efficiently warm up and heat the interior. The drive system, the power electronics and the battery are controlled by an innovative thermal management system that is a crucial component for achieving the car's range without compromising its high level of interior comfort. Networking the vehicle electronics with the surroundings, which is referred to as car-to-x communication, opens new dimensions for the optimization of efficiency, safety and convenience.

The Concept
Electric drive systems are still very much outsiders. The first vehicles of this type took to the roads around 1900, yet in 2009 no volume car manufacturer has a car powered exclusively by batteries in its lineup. Fewer than 1,500 electric vehicles are currently registered in Germany, corresponding to only 0.035 percent of all registered vehicles.

Yet electric driving potentially offers numerous advantages. Electric cars reduce the dependence of transportation and the economy on the raw material petroleum. They produce no direct exhaust emissions and thus ease the local burden on the environment. Electric drive systems are also significantly more efficient than combustion engines, consequently making them easier on the customers' wallets. Other strengths include sportiness and the fun they bring to driving. All of the torque is essentially available the moment the driver steps on the accelerator, allowing for breathtaking acceleration.

There is still a lot of work to do before electric cars are ready for volume production, however. The greatest challenge is the integration of the energy storage system. Acceptable range and performance requires a traction battery that is heavy and takes up a lot of space. Audi is taking a new approach to offset these disadvantages - a holistic approach with a specific vehicle package, a systematic lightweight construction concept and an optimal configuration of all components for the electric drive.

Audi e-tron Concept - The Holistic Approach
The most important development related to batteries for electric drives are lithium-ion cells. Numerous experts throughout the world are working on their further development for use in cars, with the primary objectives being to reduce weight and increase capacity and performance. Audi has also opted for this technology, both for use in a hybrid production vehicle, such as the upcoming Q5 hybrid, and in the e-tron test platform.

The requirement specification for the concept vehicle goes far beyond battery technology and the replacement of the combustion engine with an electric drive system, however. The Audi development engineers decided back in the concept phase to design practically every component and technology based on the new requirements of electric mobility. The interaction of all elements has a decisive influence on the factors efficiency, range and practicality.

The Audi team therefore focused its attention on the total vehicle, which is reflected in the comprehensive requirement specification.

    * The reduction of road resistances and the resulting increase in range plays a major role with electric vehicles. Lightweight construction was therefore a top priority for the Audi e-tron Concept car. The body, in particular, combines low weight with supreme strength and rigidity. An intelligent aerodynamics concept with active elements helps to reduce consumption.
    * The package ensures the safe integration of the electric drive system and the battery. Placing the battery in front of the rear axle ensures an optimal axle load distribution without compromising the compact overall design and the generous amount of interior space.
    * Advanced battery technology enables a practical range. The battery system is water-cooled for optimal performance and service life.
    * A needs-based energy management system controls all functions for the chassis, convenience equipment and other auxiliary consumers.
    * The innovative thermal management system with optimally matched cooling and heating components considers the cooling requirements of the battery and the drive system in addition to the interior temperature.
    * Driving dynamics and road comfort are what Audi customers have come to expect in the sports car segment.
    * Vehicle safety is on par with the best of today's production vehicles.
    * The driver is provided with clear and comprehensive information.
    * The Audi e-tron Concept car uses car-to-x communication technology developed by Audi to improve the efficiency of conventionally powered vehicles. For example, information about traffic light cycle times and the flow of traffic - provided by the infrastructure and other vehicles - is used to compute an optimal driving strategy. Audi has already modeled such a solution in Ingolstadt as part of its "travolution" project.

Design and Package
The caliber of the car is apparent to the observer at first glance. The Audi e-tron Concept has a wide, powerful stance on the road. The car body seems almost monolithic; the closed rear end appears powerful and muscular. The trapeze of the single-frame grille dominates the front end and is flanked by two large air intakes. The top of the grille merges into the flat strips of the adaptive matrix beam headlamp modules with their clear glass covers. High-efficiency LED technology is used for all lighting units - a matter of honor for Audi as the worldwide pioneer in this field.

The headlamps are the core of a fully automatic light assistance system that reacts flexibly to any situation. The new technology recognizes weather conditions and adapts the illumination to rain or fog. The technology at the heart of the light assistance system is a camera that works together with a fast computer to detect oncoming traffic, recognize lanes and measure visibilities, such as in the event of fog.

If there is oncoming traffic, for example, the high beams are turned off in the corresponding section of the illumination field. The cornering light system analyzes data from the navigation system and illuminates corners before the driver steers into them. The Audi e-tron Concept does not have conventional fog lamps that consume additional power. It instead intelligently varies the low beams to widen the illumination field, thus significantly reducing the glare from the car's own lights.

The variability of the headlamps is also reflected in their design. The LED elements change appearance and thus the character of the front end of the vehicle depending on the speed driven and the ambient conditions. The innovative lighting technology offers the Audi designers almost as much design freedom as the shape of the body does.

A new design element unique to the Audi e-tron Concept are the air intakes in the single-frame grille and in front of the rear wheel wells. They are closed flush under normal circumstances and opened by means of flaps when additional cooling air is required. Maximum efficiency is also the reason behind this measure. The concept car has a remarkably low drag coefficient, which gets even better when the flaps are closed.

The vehicle body is compact. The sweeping line of the front end and the flat curved roof immediately identify the two-seater as an Audi. The contours of the flanks are familiar. The tapering of the dynamic line above the sill and the shoulder line tie together the front end, the side and the rear, lend a plastic quality to the doors and the transition to the side air intake and sharply emphasize the Audi-typical round wheel wells with the large, 19-inch tires.

1.90 meters (74.80 in) wide, just 4.26 meters (167.72 in) long and 1.23 meters (48.43 in) tall - those are the proportions of a supercar. The wheelbase of 2.60 meters (102.36 in) leaves plenty of room between the axles for people and technology. Like with a mid-engined sports car, the cabin of the Audi e-tron Concept is shifted far forward toward the front axle, leaving room in front of the rear axle for the roughly 470 kilogram (1036.17 lb) battery unit, the inverter and the power electronics.

The two electric motors, which have their own cooling system, are mounted behind the rear axle. The front electric motors are mounted on the front axle, with their cooling system arranged in front of them. This special package, which features a 42:58 weight distribution, ensures perfect balance, which contributes to the driving dynamics of the Audi e-tron Concept.

Systematic lightweight construction is an even more important prerequisite for efficiency and range with electric vehicles than for conventionally powered automobiles. The Audi development engineers drew on the core competence of the company for the Audi e-tron Concept. The body structure is based on Audi Space Frame (ASF) technology and was realized as a hybrid construction. All add-on parts - doors, covers, sidewalls and roof - are made of a fiber-reinforced plastic.

The combination of aluminum and carbon fiber-reinforced composite material guarantees supreme rigidity coupled with low weight. Audi will soon use this technology in a similar form for production vehicles. Despite the complex drive system layout with four electric motors and a high-capacity battery system, the total weight of the Audi e-tron Concept is only around 1,600 kilograms (3527.40 lb).

Interior and Control ConceptOptical and functional references to the new drive concept characterize the interior design. They establish an advanced connection between proven Audi genes and new formal hallmarks. Typical for the Audi design language is the reduction of the architecture, controls and flow of information to the essential in favor of visible lightweight construction and a tidy overall impression.

The dash appears to float and has a curve that extends laterally into the door panels. With no need to allow for a transmission, shifter and cardan tunnel, the designers took advantage of the opportunity to create a particularly slim and lightweight center tunnel and center console. The flush gear selector, with which the driver chooses between the modes forward, reverse and neutral, emerges from the tunnel when the vehicle is started.

The cockpit of the Audi e-tron Concept is also oriented toward the driver - a further characteristic Audi trait. Instead of the classic instrument cluster, the concept car is the first Audi to be equipped with a large, fold-out central display with integrated MMI functions. It is flanked by two round dials.

The MMI is controlled via a scroll pad with a touch-sensitive surface on the steering wheel ("MMI touch") - an element inspired by modern smartphones.

While an analog speedometer on the right provides speed information, the instrument on the left tells the driver how much power is being drawn. The central display shows the range in the status bar and presents all key information from the infotainment and navigation systems. It also provides the driver with relevant data from the vehicle's communication with its surroundings. The instruments combine the analog and the digital worlds into a single unit.

Characteristic for the concept of the Audi e-tron Concept is the near total elimination of switches and small components such as the ignition. The climate control unit is located to the right above the steering wheel. The display provides temperature and ventilation information. Again drawing inspiration from a smartphone, the system is controlled by means of a touch-sensitive sliding control.

The racing-inspired lightweight bucket seats combine excellent lateral support with comfort. To contrasting colors - snow white and cognac - delineate the various zones of the interior. The colors and the high-quality materials combine elegance and sportiness.

Drive System and Energy Supply
Four asynchronous motors with a total output of 230 kilowatts (313 hp) give the Audi e-tron Concept the performance of a high-output sports car. The concept car can accelerate from 0 to 100 km/h (0 - 62.14 mph) in 4.8 seconds if necessary, and goes from 60 to 120 km/h (37.28 - 74.56 mph) in 4.1 seconds. The torque flows selectively to the wheels based on the driving situation and the condition of the road surface, resulting in outstanding traction and handling.

The top speed is limited to 200 km/h (124.27 mph), as the amount of energy required by the electric motors increases disproportionately to speed. The range in the NECD combined cycle is approximately 248 kilometers (154 miles). This good value is made possible by the integrated concept: technology specially configured for the electric drive system combined with state-of-the-art battery technology. The battery block has a total energy content of roughly 53 kilowatt hours, with the usable portion thereof restricted to 42.4 kWh in the interest of service life. Audi uses liquid cooling for the batteries.

The energy storage unit is charged with household current (230 volts, 16 amperes) via a cable and a plug. The socket is behind a cover at the back of the car. With the battery fully discharged, the charging time is between 6 and 8 hours. A high voltage (400 volts, 63 amperes) reduces this to just around 2.5 hours. The Audi engineers are working on a wireless solution to make charging more convenient. The inductive charging station, which can be placed in the garage at home or also in special parking garages, is activated automatically when the vehicle is docked. Such technology is already used today in a similar form to charge electric toothbrushes.

The battery is charged not only when the car is stationary, but also when it is in motion. The keyword here is recuperation. This form of energy recovery and return to the battery is already available today in a number of Audi production models. During braking, the alternator converts the kinetic energy into electrical energy, which it then feeds into the onboard electrical system.

The Audi e-tron Concept, which is slowed by four lightweight ceramic brake discs, takes the next large step into the future. An electronic brake system makes it possible to tap into the recuperation potential of the electric motors. A hydraulic fixed-caliper brake is mounted on the front axle, with two novel electrically-actuated floating-caliper brakes mounted on the rear axle. These floating calipers are actuated not by any mechanical or hydraulic transfer elements, but rather by wire ("brake by wire"). In addition, this eliminates frictional losses due to residual slip when the brakes are not being applied.

This decoupling of the brake pedal enables the Audi e-tron Concept's electric motors to convert all of the braking energy into electricity and recover it. The electromechanical brake system is only activated if greater deceleration is required. These control actions are unnoticeable to the driver, who feels only a predictable and constant pedal feel as with a hydraulic brake system.

Making its Automotive Debut: The Heat Pump
The heat pump - used here for the first time ever in an automobile - also serves to increase efficiency and range. Unlike a combustion engine, the electric drive system may not produce enough waste heat under all operating conditions to effectively heat the interior. Other electric vehicles are equipped with electric supplemental heaters, which consume a relatively large amount of energy. The heat pump used by Audi - and commonly used in buildings - is a highly efficient machine that uses mechanical work to provide heat with a minimum input of energy.

A high-efficiency climate control system is used to cool the interior. It works together with the thermal management system to also control the temperature of the high-voltage battery. The battery, the power electronics and the electric motors must be kept at their respective ideal operating temperatures to achieve optimal performance and range.

Driving Dynamics
The normal distribution of the tractive power is clearly biased toward the rear axle in accordance with the weight distribution of the Audi e-tron Concept. Similarly to a mid-engined sports car, roughly 70 percent of the power goes the rear and 30 percent to the front. If an axle slips, this balance can be varied by means of the four centrally controlled electric motors. The electric vehicle from Audi thus enjoys all of the advantages of quattro technology.

The four individual motors, which in the interest of greater traction are installed behind the wheels as wheel drives, also enable the Audi e-tron Concept's lateral dynamics to be intelligently controlled. Similar to what the sport differential does in conventional quattro vehicles, torque vectoring - the targeted acceleration of individual wheels - makes the Audi e-tron Concept even more dynamic while simultaneously enhancing driving safety. Understeer and oversteer can be corrected by not only targeted activation of the brakes, but also by precise increases in power lasting just a few milliseconds. The concept car remains extremely neutral even under great lateral acceleration and hustles through corners as if on the proverbial rails.

The chassis has triangular double wishbones at the front axle and trapezoidal wishbones made of forged aluminum components at the rear axle - a geometry that has proven in motorsports to be the optimal prerequisite for high agility, uncompromising precision and precisely defined self-steering behavior. A taut setup was chosen for the springs and shock absorbers, but it is still very comfortable.

Car-to-x Communication
The electronics development engineers at Audi not only aimed to make the Audi e-tron Concept as efficient and fun to drive as possible, they were also very concerned with safety and traffic management. The technical concept car includes a prototype of an information processing system. Future generations of these systems will usher in a new era in the networking of road traffic, particularly in regions and countries with a high volume of traffic. This progress is made possible by the rapid advancements in computing power, software and communication technology.

Alfa Romeo MiTo UK Version, 2009

Alfa Romeo MiTo UK Version, 2009

 

 

Front on, the new addition to the range is every inch an Alfa Romeo. The instantly recognisable shield-shaped grille denotes the lineage of the Alfa Romeo MiTo and the shape of the bonnet and the headlamps pay homage to the Alfa 8C Competizione.

TURISMO
The standard specification list is long and comprehensive, featuring Alfa's advanced DNA function along with the Q2 system and electric power assisted steering. In addition, this model is fitted with Vehicle Dynamic Control - an amalgamation of ABS, Anti Slip Regulation and Brake Assistant - plus Hill Holder as standard.

Other safety features include driver, passenger, front side, window and driver's knee airbags, along with fast-reaction LED rear lights and a fire prevention system. The front passenger airbag can also be deactivated.

The LED rear lights complement the height adjustable follow-me-home headlights with titanium grey surrounds, electrically adjustable and heated colour-coded door mirrors and bumpers.

All Alfa Romeo MiTo Turismo versions come with 16" wheels with unique design trims and 195/55 tyres.
Inside the cabin, driver and passengers benefit from manual air conditioning, electric one-touch window operation plus an RDS radio with CD and MP3 reader. There's also an 'auto-close' system to complement the Alfa code immobiliser and alarm system.

Drivers can choose two different cabin colours. A Sprint Black dashboard is complemented by black / grey cloth and a Sprint Red dashboard comes with a black / red cloth combination.

RIDE AND HANDLING - SUSPENSION
Key to the sporting ride and handling characteristics of the Alfa Romeo MiTo is the suspension layout.
Two tried and tested set-ups have been employed - a MacPherson layout at the front and a semi-independent layout with torsion beam at the rear.
In particular, some key elements have been incorporated to give an exclusive feel to the Alfa Romeo MiTo chassis.

To emphasise the promptness of response, stability and control, even under extreme conditions, MiTo's track widths are among the widest in the segment - 1483mm front and 1475mm rear.

The wheel rims are also wide in relation to the size of the tyres in order to optimise the latter's handling performance. The stiff, front and rear springs give the vehicle a sporting yet pliant ride, and the torsion beam features high torsional stiffness to enable it to also act as an anti-roll bar, thereby ensuring optimum roll performance and helping maximise the promptness of response.

However, the most distinctive feature of the Alfa Romeo MiTo suspension is that the front and rear dampers feature coilover springs fitted inside the shock absorber that act in parallel with the main spring during extension travel, with the main purpose of reducing roll and increasing chassis response. Special dual-acting telescopic hydraulic dampers are fitted as standard on all versions.

ENGINES
Three petrol engines - 1.4 16V (95bhp), 1.4 TB (120bhp) and 1.4TB (155bhp) - plus two diesel engines - 1.3 JTDM (90bhp) and 1.6 JTDM (120bhp) - will become available from launch.

Four units are mated to a 6-speed manual gearbox to deliver a punchy, responsive, driving experience, and the remaining engine (1.4 120bhp) is coupled with an equally impressive 5-speed 'box.
Distinguished by its performance, eager throttle response, low fuel consumption, durability and reliability, the new 1.4 turbocharged petrol engine powers two of the five models in the petrol line-up, with two different power outputs.

1.4 16V 95bhp
The entry level - normally aspirated - petrol unit can be specified with each of the three trim levels to deliver a spirited and willing performance.

Developing 95bhp at 6000rpm and a maximum 129Nm of torque at 4500rpm, the 1.4 16V engine is capable of accelerating the Alfa Romeo MiTo from 0-62mph in 11.2 seconds, and on to a top speed of 112mph.
An ideal partner for relaxed, around town driving, this petrol engine is mated to a 6-speed manual gearbox to make longer, motorway journeys more economical and relaxed.
Official mpg figures reveal that in urban driving, the Alfa Romeo MiTo 1.4 16V covers 36.7mpg, while long journeys will push that fuel consumption figure to 58.9mpg. The combined figure is a creditable 47.9mpg.

CO2 emissions are 138g/km and put the Alfa Romeo MiTo 1.4 16V in tax band C.

1.4 TB 120bhp Turbopetrol
New to the Alfa Romeo range, and available with all three trim levels, is a 1.4 turbocharged unit that delivers enhanced levels of driving flexibility and lively performance.

Responsive and satisfying to drive, the new 1.4 TB engine is enhanced by the low inertia of the turbocharger that makes it possible to obtain maximum performance from a throttle command, without the annoying lag typical of this type of engine.
Throttle control for this unit (and the 155bhp version) is drive-by-wire, without any mechanical connection, so that the driver can obtain the desired response from the engine with the greatest energy efficiency.

The 0-62mph sprint takes 8.8 seconds, and in fifth gear, a top speed of 123mph can be attained - impressive figures that have previously been associated with larger engines.

This 1.4 TB unit develops its maximum power of 120bhp at 5000rpm but, more impressively, produces a generous 206Nm of torque at just 1750rpm.
In turn, these characteristics help the Alfa Romeo MiTo to achieve 34.9mpg around town and 56.5mpg in the extra urban cycle, plus a combined figure of 46.3mpg.
CO2 emissions of 145g/km put the Alfa Romeo MiTo 1.4 TB 120bhp in tax band C.

1.4 TB 155bhp Turbopetrol
Only available on Lusso and Veloce versions, the new 1.4TB 155bhp unit is the top performing petrol engine in the Alfa Romeo MiTo range, delivering its maximum power at 5500rpm along with a maximum torque of 230 Nm at 3000rpm.

Quickest of the Alfa Romeo MiTo launch range, this version can accelerate from 0-62mph in just 8.0 seconds and reach a top speed of 134mph.

Despite the increase in power and performance, fuel economy remains notably competitive.
Around town, drivers can achieve 33.2mpg, while motorway journeys and the combined cycle are 53.3 and 43.5mpg respectively.
A CO2 rating of 153g/km puts the Alfa Romeo MiTo 1.4TB 155bhp in tax band D.

1.3 JTDM 90bhp

The latest generation JTDM engines are trailblazing diesel technology and Alfa Romeo is now bringing that expertise to the sporty compact car sector.

1.6 JTDM 120bhp
Representing class-leading diesel technology, this Euro 5-ready 1.6 JTDM 120bhp engine delivers a massive 320Nm of torque at just 1750rpm.

As a result, the engine is perfectly matched for drivers wanting an effective combination of low running costs with useable power and flexibility for authentic driving satisfaction.

Alfa Romeo's new injection system with new-generation variable geometry turbo engines along with the most advanced exhaust gas treatment technologies - Close Coupled Diesel Particulate Filter and an integral EGR (Exhaust Gas Recirculation) system - improves control of temperature and gas flow, simultaneously guaranteeing lower emissions and low fuel consumption.

Alfa Romeo MiTo GTA Concept, 2009

Alfa Romeo MiTo GTA Concept, 2009

 

The Alfa Romeo MiTo GTA Concept, a high performance concept of the new Alfa Romeo MiTo. Designed using the experience gained with the Alfa Romeo 8C Competizione and 8C Spider, the Alfa Romeo MiTo GTA Concept shares with the exclusive "supercar" the philosophy based on achieving the greatest driving pleasure, resulting from exceptional agility produced by a power-to-weight ratio worthy of a racing car.

In line with the famous GTA (Gran Turismo Alleggerito) signature, (Alleggerito means reduced weight in Italian), the Alfa Romeo MiTo GTA Concept prioritises weight reduction, and the achievement of an optimum power-to-weight ratio.
Considerable work has gone into lowering the vehicle's centre of gravity; thus certain components such as the tailgate spoiler, roof and mirror fairings are in carbon-fibre; while aluminium is used extensively in the braking system, suspension, and some parts of the chassis.
Under the bonnet, an exciting new petrol engine, very much in keeping with the pre-requisites of downsizing, environmental awareness, and the offer of high power and efficiency in return for low weight and optimised packaging, powers the Alfa Romeo MiTo GTA Concept.

Designed by Fiat Powertrain Technologies and exploiting the vast experience gained in the production of Twin Spark and Alfa V6 road and race engines, the compact new petrol engine employs advanced technical solutions including direct injection, dual variable valve timing, state-of-the-art turbocharging and advanced electronic management systems to produce a remarkable 240bhp from just 1742cc.

Under-floor aerodynamics have been a particular concern, while the entire car has been lowered by some 20mm. Front suspension employs new geometry with aluminium leading arms, while the rear suspension has all-new bushings, and the comprehensively revised chassis boasts an 'active' suspension system, (advanced damper control), which counteracts the transfer of load under acceleration, stiffening the rear end and maximising traction. The Alfa Romeo MiTo GTA Concept's suspension also interacts with the braking system and steering to obtain the most efficient control of vehicle dynamics, while a 'Sky-Hook' function ensures an excellent level of passenger comfort under conditions of everyday use.

Alfa Romeo Brera S, 2009

Alfa Romeo Brera S, 2009

 

The Alfa Romeo is planning for the new, limited edition Alfa Romeo Brera S.
After a year of intensive suspension and chassis development at Prodrive, the world-leading motorsport specialist, the result is a sports coupe that subtly enhances all that is good about the original Alfa Romeo Brera, while bestowing it with outstanding driver feedback and handling.

Power comes from a choice of two existing direct injection petrol engines - the 185 bhp 2.2 JTS and the 260 bhp 3.2 V6 JTS.
Briefed to make the Alfa Romeo Brera S less of a long-distance tourer and more sporty on UK roads, the engineering team at Prodrive developed a unique suspension set-up. Prodrive engineers meticulously experimented with spring rates and ride heights to match the reduced weights of the 2008 model year Alfa Breras. Then followed an extensive damper tuning exercise to achieve the desired ride/handling balance and steering response required by driving enthusiasts in the UK.

The sports car driving experience is achieved by reducing roll and pitch, flattening the cornering attitude, and subsequently instilling confidence-inspiring steering.
To reduce roll and pitch and achieve an even flatter cornering attitude, Prodrive commissioned bespoke Eibach coil springs and Bilstein dampers.
Spring rates are increased by over 50 per cent compared to the standard Alfa Brera, giving the car a more nimble and agile feel, while the specially tuned gas-filled mono-tube dampers give tighter body control. A careful balance has been created to maintain good compliance over ridges and bumps in the road.

At the same time, the suspension static geometry has also been revised to optimise steering and handling. These changes, together with new 19" alloy wheels and Pirelli PZero Nero tyres, have created a more responsive turn-in to corners, with increased driver feedback, allowing the driver to explore the dynamic limits of the car.
To further enhance suspension geometry, the cars have been lowered by 10 mm front and rear. This lower centre of gravity helps reduce roll and improve cornering and braking performance. In addition, the lowered suspension gives the Alfa Romeo Brera S a more purposeful stance.

At each corner of the Alfa Romeo Brera S, unique Alfa Romeo 8C Competizione-inspired, lightweight 19" alloy wheels have been fitted. Although the wheels are eye-catching, the all-new design was commissioned by Prodrive primarily for performance, rather than just cosmetic appeal. The reason is unsprung weight - the weight carried by the car on the 'road side' of the spring and shock absorber. This plays a significant role in the way the car steers, handles and transmits feedback to the driver.
The lighter the wheel, the better it tracks undulations in the road surface without requiring heavy damping to control it. The unsprung weight has been further reduced by the adoption of hollow anti-roll bars and aluminium suspension components from the Factory.
As a result, the weight of both Alfa Romeo Brera S models is lower than the rest of the range. The front-wheel drive 3.2 V6 JTS is almost 100 kg lighter than the Q4 version and the 2.2 JTS version weighs 35 kg less.
The Alfa Romeo Brera S also sounds different from the standard range. The original characteristic growl of the V6 has been enhanced by careful redesign of the rear silencers. Thanks to a Holmholtz resonator connected in tandem with each silencer, the 2.2 JTS model now emits a sportier yet refined burble.

The exhaust has been altered to mirror the shape of the rear lights. Finished with chrome embellishers, they feature a Prodrive logo on the tailpipe exterior. This is just one of several subtle exterior enhancements to the award-winning Alfa Romeo Brera, including Prodrive branded front stone deflectors, and a bespoke red 'S' or 'SV6' on the C-pillar.
Inside the 3.2 V6 JTS Alfa Romeo Brera S, changes are more obvious. Not only are the supportive sports seats upholstered in soft black Frau® leather with red stitching, so are the dashboard fascia, door panels, steering wheel and gearlever. The centre console and instruments are faced in a dark finish. This interior can also be specified on the 2.2 JTS version.

Foot pedals are fashioned from drilled aluminium and the headrest recess houses a limited edition Brera S aluminium plate, featuring the flags of Italy and Britain.
For the record, the 2.2 JTS and 3.2 V6 JTS Alfa Romeo Brera S can reach 62 mph from rest in 8.6 and 7.0 seconds respectively, on the way to maximum speeds of 139 and 155 mph.

Alfa Romeo 159 Sportwagon, 2009

Alfa Romeo 159 Sportwagon, 2009

 

 

Alfa Romeo 159 is an exclusive sedan combining refined Italian style with the "elegant sportiness" of Alfa Romeo. The Alfa Romeo 159 Sportwagon on the other hand combines the style, performance and handling of a genuine sports car with the flexibility of use and luggage space versatility of a prestigious station wagon.

The versions exhibited offer two new Euro 5 compliant engines which will be available from the beginning of April: the 1.75 liter 200 HP TBi engine and the 2.0 liter 170 HP JTDM engine. In detail, the Alfa Romeo 159 is fitted with the new 1.75 liter TBi engine (Euro 5) - maximum output 200 HP from 4750 to 5500 rpm and maximum torque of 320 Nm at 1400 rpm - giving it a maximum speed of 235 km/h and acceleration of 0 to 100 km/h in barely 7.7 seconds.

The powerful Alfa Romeo 159 sedan is offered in the TI sporting version, featuring lowered geometry, bigger tires, 19 inch alloy rims, miniskirts and large aluminum brakes with red calipers. So, a very determined-looking car with a decidedly "ground-hugging" look. Inside, the TI environment is recognizable from the shaped sports seats in perforated leather with the Alfa Romeo logo stitched in red, plus the steering wheel with sports grip and the gear knob covered in leather with red stitching.

The internal coverings are black and the insignia are in "brushed dark aluminum". The same impression of sportiness appears in the instrument panel graphics, the pedals and the aluminum scuff plate with TI logo. Finally, this particular version comes with high-end equipment including triple-zone climate control, VDC system with Electronic Q2, Blue&Me Nav GPS and entertainment system, Bose Hi-Fi system and Cruise Control.

Next to this car, the public can admire an Alfa Romeo 159 Sportwagon equipped with the new 2.0 liter 170 HP JTDM engine (Euro 5). With this engine, the car can reach 216 km/h and takes 9 seconds to accelerate from 0 to 100 km/h. The version displayed at Geneva is a Sport which is differentiated from the outside by the exclusive 18 inch alloy rims with the new "Turbine" design.

Inside,

the eye is caught by the sports steering wheel with radio commands, the gear knob covered in leather with black stitching and the new sports seats covered in leather. Giving a further impression of sportiness, the head lining, the parcel shelf and the pillar fairings are black, while the badges are in "brushed aluminum" and the instrument panel employs "sporty" graphics. Finally, the equipment (standard and optional) offered on this car is very high-spec: triple-zone climate control, Cruise Control, VDC system (with Electronic Q2), Bose Hi-Fi system, GPS system (with telephone and voice commands), and Visibility Pack (rain, mist and twilight sensors).