New Sports Car

Mercedes-Benz F800 Style Concept is showing the future of premium automobiles from a new perspective, as the five-seat premium sedan combines highly efficient drive technologies with unparalleled safety and convenience features and an emotive design idiom, which interprets current Mercedes-Benz styling in line with the brand's hallmark attribute of refined performance. The F800 Style has a spacious interior full of intelligent seating, operating, and display concepts. Another unique feature of the large sedan is an all-new multi drive platform, which accommodates electric drives with fuel cells (enabling ranges of almost 375 miles) as well as the use of Plug-in Hybrids that can drive for up to 18 miles solely on electricity. Both variants of the Mercedes-Benz F800 Style Concept therefore make locally emission-free mobility possible at the level of a premium-class automobile, while at the same time being fully suited for everyday driving and providing a dynamic driving experience.

Within the 15.5-foot external length of the Mercedes F800 Style Concept, all of the components of the vehicle's efficient and environmentally compatible alternative drives (Plug-in Hybrid or fuel cell drive system) are installed in a space-saving manner in the engine compartment and the gaps within the chassis. Each of the drive systems takes up comparatively little space for the installation. This applies in particular to the electric drive with fuel cell, which has been enhanced by Mercedes-Benz to be compact and powerful. The front end's compact package was made possible through the consistent downsizing of all F-CELL components. As a result, the entire interior space is preserved and offers plenty of room for five occupants.

In combination with the very powerful Plug-in Hybrid drive system, the Mercedes F800 Style Concept is a very dynamic expression of the concept of "fascination and responsibility." Its drive unit consists of a V6 gasoline engine with an output of 300 hp with next-generation direct injection and a hybrid module with an output 109 hp so that it delivers a total power of around 409 hp. The lithium-ion battery with a storage capacity of >10 kWh can be recharged either at a charging station or a household power socket. Thanks to its powerful and high-torque hybrid module, in the city the Mercedes-Benz F800 Style Concept can run exclusively on electricity, therefore without generating any local emissions. Because it also has high torque right from the moment it starts, the vehicle has the same driving performance as a car with a V6 gasoline engine even when operating in electric mode. The Mercedes-Benz F800 Style Concept with the Plug-in Hybrid can run purely on electricity for up to 18 miles. The F800 Style research vehicle therefore marks a further important step in the creation of a market-ready Plug-in Hybrid. Mercedes-Benz will begin series production of the S500 Plug-in Hybrid with the introduction of the next-generation S-Class.

Due to its efficient drive system and a CO2 bonus for the battery-electric driving mode, the vehicle has a certified fuel consumption of only 2.9 liters of gasoline per 100 kilometers. This corresponds to extremely low CO2 emissions of only 68 grams per kilometer. However, thanks to its outstanding efficiency, the Mercedes-Benz F800 Style Concept equipped with a Plug-in Hybrid nevertheless has a driving performance comparable to a sports car (0-60 mph 4.7 s, top speed of 155 mph). When in electric mode, the Mercedes-Benz F800 Style Concept has a top speed of 75 mph, thus meeting the needs associated with long-distance driving.

The electric drive components in the Mercedes-Benz F800 Style Concept with the Plug-in Hybrid once again demonstrate the versatility of Mercedes-Benz' extensively scalable modular hybrid system. The hybrid system can be expanded in various ways, depending on performance needs and the area of application. On this basis, it is possible to combine hybrid modules and batteries of different performance ratings with fuel-efficient, high-torque gasoline and diesel engines. Examples range from the current mild hybrids all the way to Plug-in Hybrids that enable pure electric driving over long distances. In developing the Mercedes-Benz F800 Style Concept with Plug-in Hybrid, the Mercedes engineers specifically focused on improving the pure electric driving in urban traffic. Thanks to high power reserves, the F800 Style in e-mode easily masters all kinds of city traffic while producing no local emissions. With the new hybrid module, the top speed of the Mercedes F800 Style Concept with Plug-in Hybrid has been increased to 75 mph in electric mode compared to the Vision S500 Plug-in Hybrid. At the same time, it emits only 68 grams of CO2 per kilometer, compared to the latter vehicle's 74 grams per kilometer.

The F800 Style also offers clean driving pleasure in the variant equipped with an electric drive based on fuel cell technology. The vehicle's electric motor develops around 136 hp as well as a strong torque of approximately 214 lb-ft. The fuel cell generates the traction current by chemically reacting hydrogen with oxygen onboard the vehicle, producing water vapor in the process as the only emission.

The new cam touchpad HMI is an intelligent expansion of the COMAND system. For many years now, Mercedes-Benz has been forging ahead with the development of innovative operating and display systems. A particularly user-friendly innovation is being presented in the Mercedes-Benz F800 Style Concept. The HMI unit here consists of a touchpad on the center console and a camera that records video images of the user's hand as it works the pad. The live image of the hand is presented in transparent form in the central display above the console. The user sees the contours of his or her fingers glide across the image without covering anything, thus ensuring that all of the functions of the currently used menu remain visible so that they can be easily operated by applying slight pressure to the touchpad. Pressing the display with one's fingers generates a feeling similar to that of touching laptop keys so that users know when they are carrying out specific actions.

Another very user-friendly innovation created by the Mercedes engineers is the "Range on Map" function, which shows the remaining possible travel radius during electric vehicle operation as a 360° depiction on a map. Should municipalities only permit purely electric automobile traffic in the future, the driver can determine whether the electric range of his or her vehicle is sufficient for the journey into and out of the urban area by means of the Range on Map function. The system provides this function by combining information on the current battery charge level with data from the navigation system.

Mercedes-Benz introduced DISTRONIC PLUS, the world's first proximity and speed control system that operates even when the car is standing still. The system substantially reduces the stress for drivers in dense traffic, as it regulates the distance from the vehicle in front even at very low speeds all the way down to a standstill. With its new DISTRONIC PLUS Traffic Jam Assistant feature in the F800 Style, Mercedes-Benz has also become the world's first automaker to implement a system that is also capable of automatically following the vehicle in front of it into curves. The system recognizes the difference between driving along curving roads and turning, which means it does not "blindly" follow the vehicle up in front — for example, when it changes lanes in order to exit the highway.

While the Traffic Jam Assistant heightens comfort and active safety, the innovative protective system known as PRE-SAFE 360° further improves passive safety. PRE-SAFE 360° is based on the proactive occupant protection system PRE SAFE® developed by Mercedes-Benz. Unlike the previous system, PRE-SAFE 360° also monitors the area behind the vehicle. As a result, the system engages the brakes around 600 milliseconds before an anticipated rear-end collision occurs.

The Mercedes-Benz F800 Style Concept is both a technology platform and a showcar. This research vehicle was created through close cooperation between technical research and advanced engineering departments and the advanced design studios in Sindelfingen, Germany and Como, Italy. Its exterior appearance is marked by a long wheelbase, short body overhangs, and a sensually flowing roof line.

Think of the Opel Flextreme GT/E concept as a bigger Chevrolet Volt (or Opel Ampera if you're European). The idea behind this concept, which will debut at the Geneva Motor Show (March 4 - 14, 2010), is to show how the Volt's extended-range electric vehicle drivetrain can be used in a larger vehicle, in this case a mid-size five-door hatchback. And it will boost the company's credentials as a leader in green technologies, offering expressive design with efficient environmental performance - and engineered with German precision.

In Opel's strategy for achieving more independence from fossil fuels, electricity plays a key role. The 4.7-meter long Opel Flextreme GT/E Concept illustrates how extended-range electric vehicle (E-REV) technology can be plugged into large or mid-size vehicles, as well as compact cars such as the upcoming Opel Ampera. Opel calls this strategy e-mobility unlimited: adapting the highly efficient E-REV drive system - which removes the limitations of battery-only power - to vehicles across all market segments. To enjoy zero CO2 driving emissions Opel-style, the Flextreme GT/E concept shows that size doesn't matter.

The purposeful design also enables the Opel Flextreme GT/E Concept to achieve a projected drag co-efficient of just 0.22, which helps it reach a 200 km/h-plus top speed as well as conserve energy and extend its driving range. Stand-out visual features include a low and wide stance, wing-shaped lights front and rear, a distinctive nose and grille, floating C-pillars and muscular, sculptured bodywork.

The clean, frontal styling features a low hood line and an extended nose section, which is clasped by wing-shaped, signature LED headlamps. These are deeply carved into the front fenders and across the hood line. The new trapezoidal grille execution is slim but bold. The prominent wing-shaped chrome bar carries a large Opel emblem, which doubles as a socket for charging the Opel Flextreme GT/E Concept's battery pack. The upper section of the grille is used to admit cooling air, the lower portion being covered by a translucent panel. The absence of additional air intakes allows a low frontal area for aerodynamic efficiency and also enables the Opel Flextreme GT/E Concept to meet future pedestrian protection requirements.

In profile, the Opel Flextreme GT/E Concept is distinguished by innovative, stubbed C-pillars. This floating design allows the glasshouse to be extended rearwards under the arching roofline, emphasizing the flowing lines of the side body. The car's dynamic character is further underlined by a fresh expression of Opel's signature blade motif, now a swooping swage line from the base of the C-pillar into the lower front fender. The translucency of the fixed glass panel in the center of the roof is adaptive, allowing sunlight to warm the interior in the cold of winter, but darkening for coolness in summer. A duct at the rear edge of the roof is for additional cooling of the battery and electronic components.

Integral to the Opel Flextreme GT/E Concept's expressive looks is the efficiency of the design execution. The small frontal area, low roof height (1308 mm) and a flat, enclosed underbody all enable the car to cleave the air with a minimum of disturbance. The 21-inch alloy wheels are relatively narrow, to reduce wind resistance, and fitted with 195/45, low rolling resistance tires. Clear, flush-mounted trim inserts also minimize air turbulence.

The Opel Flextreme GT/E Concept also explores the potential for active shape shifting. At speeds above 50 km/h, a vertical panel extends along the body from the air extraction slot behind each rear wheel-arch. These 350 mm-long side spoilers guide high-speed airflow around the rear corners of the car, further reducing the amount of turbulence.

Mass reduction measures for the body include the use of lightweight, carbon composite outer panels, polycarbonate window glazing and aluminum alloy structural components. Compared to conventional materials, these offer a 40 percent weight saving which further contributes to reduced energy consumption and an increased driving range.

The efficient concept also includes GM's ground-breaking E-REV drive system, already developed for the Opel Ampera. The Opel Flextreme GT/E Concept shows the versatility of this technology by displaying it in a larger, mid-size vehicle format.

Despite its greater size and a maximum speed of more than 200 kilometers per hour, the Opel Flextreme GT/E Concept is projected to offer performance similar to that of the Ampera: a battery-powered driving range of up to 60 km - with zero CO2 tailpipe emissions - and a total range of more than 500 km. Average fuel consumption is estimated at 1.6 l/100 km, with CO2 emissions of less than 40 g/km. Unlike a hybrid vehicle, the wheels of the Opel Flextreme GT/E Concept are powered at all times by electricity. For typical journeys up to 60 km, energy is supplied by a T-shaped lithium-ion battery pack located under the floor and rear seat.

However, unlike a battery-only electric vehicle, the Opel Flextreme GT/E Concept eliminates any possibility of range anxiety through fear of being stranded without power. The small gasoline engine/generator is seamlessly engaged to provide electricity whenever the battery's supply becomes depleted. In this mode, the driving range is extended to more than 500 km, until the plug-in battery pack can be recharged or the car is refueled. The motor in the electric drive unit delivers a substantial 370 Nm of instant torque, giving lively performance and projected zero to 100 km/h acceleration in less than nine seconds.

2010 Opel Flextreme GT/E Concept with E-REV Drive System

The Flextreme GT/E concept is a further step in Opel's unfolding strategy for the electrification of the automobile, which includes a wide portfolio of products using battery, extended-range, hybrid and fuel cell technologies.

Details on a possible future eco-friendly model, called SHC (Super Hatchback Concept), were revealed by designer Jamie Martin, a UK based designer whose previous works include the Cobra Venom V8 concept and the London Navigator bus. The SHC was conceived out of a desire to fuse the two very different worlds of hatchbacks and supercars. And in a world where limiting CO2 output is becoming increasingly important, the SHC also has some green tech up its sleeve.

Designed to compete against the likes of the Honda Civic Type-R and Ford Focus RS, the SHC would be offered with a choice of two different engine/transmission packages.

It has similarities to both a supercar and a 3-door hatchback and boasts of both styling and performance characteristics. The concept car is available in a choice of three next generation powertrains, including an electric / hybrid option. Interestingly, the body is composed of 65% Steel and 35% aluminum used for front wings, bonnet & bumpers. Alternatively, 30% glass reinforced plastic can be used for designated sections. 

Other features include front and rear window ‘air-streams’, combined with hydrophobic and super-fast screen heating and high-intensity LED/Single-Source fiber-optic illumination used on the headlight wing, lower fog light, and rear lights. Martin describes the car to have a “balanced formula of raw power, racing spirit, practicality and eco engine choices.” He said that this means that you have a supercar-inspired drive to use for weekly shopping.

The first proposed powertrain of the concept consists of a twin-turbocharged internal combustion engine with direct injection, stop-start technology and regenerative braking. Transmission would be via a 6-Speed Short-Shift manual gearbox or a 7-speed paddleshift auto.

The second option is a system dubbed the 'Delta Drive Hybrid (DDH)'. This setup consists of a smaller displacement internal combustion engine and a pair of electric motors. Nano-Titanate batteries located in the engine bay, and under the floor would feed power to the high-torque electric motors mounted within the front wheels. 3-performance modes would be available: Economy (low bhp town driving), Normal (medium bhp - motorway driving), and Performance (high bhp - utilising both the petrol engine and electric generator together for ultimate power). The car could also be driven in full electric mode for around 70 miles before the engine was needed to recharge the batteries.

Further highlights of the SHC include a magnetorheological fluid suspension system with Normal, Sport & Track modes. This system, first used by Ferrari, features dampers with iron filings suspended in fluid. When an electrical current is passed through the fluid it instantaneously changes the damping rate and stiffens up the suspension.

While the SHC is just an independent concept with no intention of production, it does seem more and more likely that hybrid technology will filter very quickly into performance vehicles - and hot hatches could be one of the first segments to make the switch.

This car is BRD Concept, which is designed by Beau Reid and is a one seat formula 1 style street racer. The designer submit ideas that aren’t revolutionary but when they include descriptions that read like personal vendettas.

For the racing enthusiast who wants to have the ultimate driving experience without all the extra room and the annoying girlfriend. You can also call it supercar for everyday driver who loves driving to work place alone.

Well, it may not sound impractical but how many of us travel from home to office with more than one person in our vehicle. On the other, as per Beau, the vehicle has a combination of gas and electric engine to create the ultimate power and still get fair gas mileage.

Thanks for the details Beau.

The Maserati Tramontane Concept is a luxury electric supercar with a futuristic design characterized by flowing elements that form different layers and interconnect the exterior and the interior. The author is Czech design student Ondrej Jirec.

The Maserati Tramontane is a lightweight electric luxury supercar with an original design focused on the reduction of the total number of body parts and the simplification of the production process by combining exterior and interior elements.

Aside from the slippery, aerodynamic overall shape, the most eye-catching aspect of the concept's design is the number of components and body panels which flow from the interior to the exterior. These body parts have different functions, color, material and characteristics which are designed to add different dimensions and effect the overall feel of the vehicle.

It was created by Czech student Ondrej Jirec for his Alias class at the Art Center College of Design. Among the distinctive features of the Maserati Tramontane's design are the components and body panels which flow from the interior to the exterior. These parts have different function, color, material and characteristics and create layers that add different "dimensions" and define an original design language.

The first layer is the main glass exterior surface that essentially envelops the entire car. It is supported by a black frame which attaches to the chassis.

The second layer is composed of the headlamps and the dashboard. This single piece carries the LED headlights and flows smoothly back into the interior where it protects the speakers and interior air vents.

The third layer of the Tramontane creates the lower sections of the seats and, as it reaches the exterior, also carries the taillights. This particular part possesses very high resistance to impact. In case of side impact the seat and chassis work together to protect the occupants. But in the event of a rear collision, this part contains a crumple zone that will collapse, so the seats remain protected.

The fourth layer, placed in the front, serves as a housing for the electric motor and also as a dashboard. This element is attached to the chassis and hides the motor, frame, and all the electronics.

Having its length at 4,250mm, Tramontane is just 50mm shorter in length to Lamborghini Gallardo. Its height is 1,170mm which is almost the same as that of Gallardo’s. Its front wheels are driven by an electric motor, whereas the rear ones have an electric motor for each.

The most striking facet of its design is the number of components and body panels that smoothly move from interior to the exterior. Its parts have different functions, color, material and characteristics that aid more to the overall feel of the vehicle.

The proposed drivetrain for the concept is an all-electric setup. The front wheels are driven by one electric motor, while the rear wheels each get their own motor.

The result of close technological collaboration between Venturi Automobiles and Michelin, the Venturi Volage, marks a major step forward in the evolution of the Automobile. This new Venturi incorporates innovations which have enabled radical changes in terms of the vehicle’s architecture, style, dynamic behaviour and, more generally, the design of a modern vehicle. All these changes constitute several world premières which, with the presentation of the Venturi Volage, reinforce Venturi’s capability for constant innovation, as well as its position as the most advanced company in the field of electric vehicles.

The Volage takes the electric sports car concept and really runs with it — the all carbon-fiber car is equipped with the first application we've seen of the Michelin Active Wheel, the compact unit using in-wheel electric drive motors is installed at all four corners with a suspension driven by a second set of e-motors. With 4 drive wheels with active suspension, the Venturi Volage has no equivalent. “Michelin Active Wheel” technology in fact incorporates 2 electric motors per wheel (1 for suspension and 1 for drive), ie. a total of 8 electric motors piloted in real time by spearhead electronics.

Playing down the mechanical aspect in favor of electronics, close to the concept of a robot, this car belongs to a new era, the digital era. Thanks to a dashboard touch screen, the driver can configure the vehicle entirely as he wishes. This total control marks significant progress in terms of management, particularly of the energy stored in the car’s batteries: the driver can, for example, decide to give preference in certain cases to range rather than power, comfort rather than speed, an important factor for an electric car.

The only part that the Venturi Volage shares with the Venturi Fétish is its carbon fiber bodywork. Developed by the Venturi Design Office, this body is still a unique concept worldwide, as it is the only one to have been specifically designed to be that of an electric car and thus carry batteries within its very structure. The ideal distribution of the Venturi Volage’s masses - 45% at the front, 55% at the rear – and its perfectly mastered weight of 1,075 kilos enable it to attain 100 km/hr (62 mph) in less than 5 seconds.

A real demonstration of spearhead technology, the car presented in its world première is entirely operational and prefigures the production of a limited series of this model, scheduled as from 2012. Like the Venturi Fétish assembled in our workshops in Monaco, the Venturi Volage will be assembled by hand, in the form of very limited production. 

The technological repercussions of these two cars positioned at the very top end of the market are to be found on other vehicles bearing the Venturi brand, enabling as many people as possible to benefit from the firm’s advances in the field of sustainable mobility.

Mercedes-Benz BlitzenBenz concept car Production year theoretical 2025. Brilliant and outstanding is what every car lover will exclaim when will see this BlitzenBenz concept car. The Mercedes-Benz BlitzenBenz concept was created by George Yoo, a designer at Mercedes-Benz Research and Development in Carlsbad, California. The BlitzenBenz was developed during his final year at the Art Center College of Design in Pasadena.

Created by George Yoo as a futuristic racing vehicle, BlitzenBenz concept is derived from two different sources. And let me tell you the roots of its design are in the past. The main inspiration behind the idea is from original Blitzen-Benz from 1909 that had a long tubular shape and rear cab positioning. On the other, Alex Erlandson work of creating sculptures from trees that were grown into certain shapes/patterns influenced Yoo considerably to contemplate what if automotive parts were to be grown and tamed to hold certain shapes.

Obviously the technology is not quite there yet to create such a vehicle, but the current research into nanotechnology is paving the way for intelligent and adaptable components which can be grown instead of manufactured. It's an incredibly interesting prospect which would completely alter the way cars are built, maintained, upgraded and recycled.

The exterior design is a base for the organic structure and the individual wheel pods are there to sense as to when the inside electric motors need to be cooled down. When the cooling will be required, these structures will open up in the same way as the plants do to receive the vital sunlight.

To run this Mercedes-Benz BlitzenBenz, there is an advanced next-generation Hygenius hybrid hydrogen engine and four in-wheel electric motors. The inspiration for the blue lightening system came from bioluminescent capabilities of deep sea creatures. Also, a hydrogen storage tank is just below the cockpit and the fuel level is shown in a small window.

Though, woefully, there is no technology to make this vehicle as such, but the progressing research into nanotechnology will surely open the way for components that can be grown than manufactured, changing the way cars will be built or maintained in future.