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  • Captiva Style – Now Even Better Value!

    It already has a reputation for offering superb value for money, but the Chevrolet Captiva has just got even more affordable thanks to the addition of a new entry-level diesel model.

    At £18,295, the new five-seater Captiva 2.0 VCDi LS is £1,900 cheaper than Kia’s base model Sorento, over £2,000 less expensive than the cheapest diesel Nissan X-Trail, and more than £3,500 less pricey than the five-seat Hyundai Santa Fe 2.2 CRTD GSi. (more…)

  • All-New Ford Flex Poised To Deliver A Quiet Ride

    When customers take their new Ford Flex for its first spin this summer, they may be surprised by what’s missing: the noise.

    Flex delivers a quieter ride than competitors including the Acura MDX, Toyota Highlander and GMC Acadia, according to Ford tests. That’s good news for customers, who tend to directly relate a vehicle’s quietness with its quality, says Derrick Kuzak, Ford’s group vice president of Global Product Development. “Quietness is a very good proxy for quality in a vehicle.” (more…)

  • Dodge To Launch New Journey Crossover In August

    The Dodge brand is moving into top gear this summer with the launch of the all-new Journey crossover, which offers very competitive fuel economy, masses of interior space and value for money, without compromising its bold, good looks.

    With 5+2 seating standard across the range, the front-wheel drive Dodge Journey will be available in the UK from August 2008 and will feature a 2.4-litre petrol engine or a 2.0-litre diesel engine. The diesel engine will be available with either a manual or dual-clutch automatic gearbox. (more…)

  • BMW X6

    In 1999 BMW broke the four-wheel-drive mould when it launched the X5 Sports Activity Vehicle. With a bias towards excellent on-road performance combined with a dynamic design and a premium interior, the BMW X5 was an instant success. And it’s a winning formula that has, unlike most other models, led to increasing sales during its lifecycle with the biggest annual UK sales coming in its penultimate year. The timing of the BMW X5 was perfect and it reflected buyers’ lifestyles and their desire for something unique in the marketplace.

    The introduction of the BMW X6 is a logical next step in the process of anticipating customer demand. The BMW X6 sets a new performance benchmark with the world debut of its innovative Dynamic Performance Control rear differential and advanced stability systems to ensure a new dimension in 4×4 car-like driving capabilities. The drivetrain, incorporating BMW EfficientDynamics technologies, ensures the X6 delivers excellent emissions and fuel consumption figures in conjunction with impressive output and acceleration figures. All that in a dynamic coupe-like body shape and interior that is unique in the premium segment. The BMW X6 is a bespoke proposition, but one that competitors look set to copy…just like the BMW X5.

    Model

    Price OTR

    Power
    (hp)

    Torque (Nm)

    0 – 62mph (secs)

    Top Speed (mph)

    Combined
    mpg

    CO2
    (g/km)

    VED Band

    BMW X6 xDrive30d

    £41,965

    235

    520

    8.0

    137*

    4

    217

    F***

    BMW X6 xDrive35d

    £44,145

    286

    580

    6.9

    147

    34.0

    220

    F***

    BMW X6 xDrive35i

    £42,730

    306

    400

    6.7

    149

    25.9

    262

    G

    BMW X6 xDrive50i

    TBC

    408

    600

    5.4

    155**

    22.6

    299

    G

    *Fitted with dynamic package. ** Electronically-limited. ***VED Band F vehicles qualify for £8-a-day London Congestion Charge.

    The concept of the new BMW X6 is best considered in relation to the link between the BMW 3 Series Saloon, Touring, Coupe and Convertible. People buy all four versions of the 3 Series depending on their circumstances and needs. The same will be the case for the BMW X6 compared to other BMW X models.
    The BMW X6 is undeniably a niche car with BMW UK expecting to sell approximately 1,600 X6s in its first year – by comparison an average of 7,000 X5s are sold every year. Research has shown that three key buyer profiles exist:

    • Buyers who want the command driving position an X product provides, but who also aspire to the sporting style of a Coupe.
    • Early adopters. BMW broke the mould when it launched the X5 and the interest for that model came from early adopters looking for something unique in the market. Early BMW X6 customers are expected to come from a similar demographic.
    • The BMW X5 or other Sports Activity Vehicle owner whose family has left home and still desires a similar car, but one that doesn’t scream ‘family’.

    Klaus Kibsgaard, the new Managing Director of BMW (UK) Ltd, said: “People have questioned why we should launch such a car, but these doubters are the same who said a BMW X5 wasn’t a true BMW and that we shouldn’t produce that. The BMW X5 3.0d has gone on to be the third biggest selling new car in our portfolio* and is one of the most searched for used cars too.

    “While we intend the X6 to be a niche product, BMW is leading the way in introducing new vehicles that challenge convention but are borne out of evolving customer demands. The BMW Z4 Coupe, the BMW 635d and the BMW 1 Series Coupe are all examples of this. The BMW X6 caters for a more discerning sector of the market which wants a specific product and won’t compromise.”

    A quartet of turbocharged engines

    For the first time in BMW’s history a model range has been launched solely powered by turbocharged engines. The BMW X6 xDrive35i is powered by the twin-turbocharged 2007 and 2008 International Engine of the Year winner that produces 306hp. This powerplant is capable of propelling the X6 xDrive35i from zero to 62mph in 6.7 seconds and on to a top speed of 149mph. The 2,979cc-engined X6 is still capable of achieving a combined 25.9mpg and a CO2 figure of 262g/km.

    The BMW X6 xDrive30d and the BMW X6 xDrive35d also both have award-winning powerplants under their bonnets. The former, a single turbocharged unit produces 235hp from its 2,993cc block, while the latter ups the ante by offering 286hp from the same capacity engine but aided by twin-turbochargers.
    The BMW X6 xDrive30d, which is likely to become the biggest selling X6 variant over time, reaches 62mph from zero in 8.0 seconds before going on to a top speed of 137mph*. Emissions and economy figures are equally impressive, recording 217g/km and 34.4mpg respectively. The low CO2 output is enough for the car to qualify for a lower Vehicle Excise Duty band, compared to rival products, and continue to be an ?8-a-day Congestion Charge vehicle in London should current proposals become statute.
    *Note: In 2007 the BMW 320d Saloon accounted for 12,015 sales, BMW 520d Saloon 8,365 sales and the BMW X5 3.0d 6,233 sales.

    The BMW X6 xDrive35d sprints from zero to 62mph in 6.9 seconds before going on to a top speed of 147mph. It too sits under the 225g/km higher Vehicle Excise Duty and Congestion Charge strata. The twin-turbocharged diesel records an emissions figure of 220g/km, while also being capable of 34.0mpg.
    Completing the awesome foursome of powerplants is a new twin-turbocharged, high-precision direct injection, 4.4-litre V8 engine producing 408hp. This all-new engine, not seen in any other BMW product before, is the most powerful production non-M BMW V8 engine ever and makes the flagship X6 the most powerful production X product. It can reach 62mph from standstill in 5.4 seconds – quicker than a Porsche Boxster – before going on to an electronically-limited top speed of 155mph.

    All four X6 models utilise facets of BMW EfficientDynamics technologies. Brake Energy Regeneration is standard across the range and combines with active aerodynamics and low viscosity fluids in the steering and transmission systems. Third-generation common-rail technology diesel-engined cars and high-precision direct injection on the petrol models both serve to optimise the combustion process.

    *Note: In conjunction with dynamic package.

    A new high in dynamic capability

    The power of the BMW X6 is harnessed by an advanced chassis that incorporates Dynamic Performance Control for the first time on a BMW. Dynamic Performance Control offers drivers class-leading cornering ability courtesy of a complex multi-clutch differential that, effectively, helps drive the vehicle around a bend.

    A conventional differential wastes power through wheelslip during cornering. A limited-slip differential locks out an unloaded wheel to transfer drive to the wheel with most grip – but the locked wheel can act as a drag on performance. However, Dynamic Performance Control improves on the traditional, performance oriented limited-slip differential. It allows an inside wheel to still deliver power and provide drive, while at the same time sending more drive to the outside wheel that has more grip. The result, combined with one of the most advanced stability control systems available, is a vehicle that out performs the current benchmark BMW X5 and some sports cars in terms of dynamic capability.
    The BMW X6 range goes on sale on 31 May, 2008. The diesel-engined models and the X6 xDrive35i will initially be offered with the xDrive50i going on sale in November 2008.

    Drivetrain

    BMW’s heritage of producing class-leading, high performance and efficient engines is unrivalled. To highlight this fact, no other manufacturer has won the overall honour at the International Engine of the Year awards more times than BMW. 2008 sees BMW retain the title through the 3.0-litre twin-turbo petrol engine in the X6 xDrive35i meaning that BMW has scooped the outright title six times in the last 10 years, winning more categories than any other manufacturer.

    The BMW X6 is the latest model to benefit from BMW engineers’ technological prowess. The all-new range is offered with a quartet of turbocharged engines – the first time an entire BMW model range has been turbocharged. Three of these are award-winning powerplants, while the 4.4-litre twin-turbocharged V8 petrol engine is new to BMW. All four variants come as standard with a sport-oriented six-speed automatic transmission and all models use elements of BMW EfficientDynamics to achieve impressive performance, economy and emissions statistics.

    BMW X6 xDrive30d

    Powered by a 2,993cc engine, the BMW X6 xDrive30d offers the driver the optimum combination of performance and economy which is unmatched by any other performance-oriented Sports Activity Vehicle.
    The in-line six-cylinder diesel powerplant comes with a single turbocharger and third-generation common-rail injection system with piezo injectors for efficient fuel combustion. This latest incarnation of common-rail diesel operates at 1,600bar pressure. Such an arrangement helps the unit produce 235hp at 4,000 rpm. With peak torque of 520Nm available from 2,000rpm through to 2,750rpm, the BMW X6 xDrive30d provides effortlessly smooth, swift acceleration. It accelerates from zero to 62mph in 8.0 seconds before going on to a top speed of 137mph.

    The BMW X6 xDrive30d’s unique balance of economy, emissions and performance is why BMW expects the model to become the biggest selling variant in the UK. The vehicle records a CO2 emissions figure of 217g/km – low enough for the vehicle to qualify for Band F Vehicle Excise Duty and to remain classed as an ?8-a-day London Congestion Charge vehicle in the future if current proposals become statute. It also records 34.4mpg on the combined cycle. An all-aluminium engine block, the weight of which has been reduced by 25kgs compared to the previous, similar 3.0-litre BMW diesel engine, aids the overall performance statistics.

    Compared to conventional 4×4 competitors, none can offer the all round capability of the BMW X6 xDrive30d. While the Audi Q7 records marginally higher horsepower and torque output, this advantage is not translated to on-road performance as the table below indicates. Meanwhile, the Audi, the Range Rover Sport and the Mercedes fall short on all other counts.

    Model

    Power
    (hp)

    Torque (Nm)

    0 – 62mph (secs)

    Top Speed (mph)

    Combined
    mpg

    CO2
    (g/km)

    VED Band

    BMW X6 xDrive30d

    235

    520

    8.0

    137

    34.4

    217

    F

    Range Rover Sport TDV6

    190

    440

    11.9

    120

    28.3

    265

    G

    Audi Q7 3.0TDI S line

    240

    550

    8.5

    134

    28.8

    260

    G

    Mercedes ML 320CDI Sport

    224

    510

    8.6

    134

    29.4

    254

    G

    BMW X6 xDrive35d

    With its twin turbochargers and third generation common-rail diesel technology, the 3.0-litre engine that propels the xDrive35d is the most powerful six-cylinder production diesel engine in the world. Weighing just 210kgs, this high-performance diesel weighs some 50kgs less than a comparable eight-cylinder engine with a similar output. This weight and power advantage serves to maximise the dynamic driving qualities of the BMW X6 xDrive35d, which accelerates from zero to 62mph in 6.9 seconds before going on to a top speed of 147mph.

    It achieves these benchmark performance figures, in part, due to the unique way its brace of turbochargers operate. The first, small turbocharger functions at low engine speeds, developing superior power and torque with the slightest movement of the accelerator. Then, with engine speed increasing, the second, larger turbocharger spools into action. At higher engine revolutions a flap in the exhaust system closes off the smaller turbocharger so that the larger one can operate alone. This process delivers a seamless wave of acceleration and power from low revs with one turbocharger passing the performance baton to the other at the point its peak operational capability falls away.

    The technology means the BMW X6 xDrive35d produces 286hp at 4,400rpm, while peak torque of 580Nm is available from 1,750rpm to 2,250rpm. Despite this impressive performance and like the X6 xDrive30d, this model falls below the 225g/km higher Vehicle Excise Duty and London Congestion Charge tiers. The 2,993cc engine records an emissions figure of 220g/km while also being capable of 34.0mpg on the combined cycle. So, not only is the xDrive35d rapid transport it also makes financial sense for the personal and company car buyer, and challenges the environmental assumptions of the anti-4×4 brigade.

    Model

    Power
    (hp)

    Torque (Nm)

    0 – 62mph (secs)

    Top Speed (mph)

    Combined
    mpg

    CO2
    (g/km)

    VED Band

    BMW X6 xDrive35d

    286

    580

    6.9

    147

    34.0

    220

    F

    Audi Q7 4.2TDI S line

    326

    760

    6.4

    146

    25.4

    294

    G

    Range Rover Sport TDV8 HSE

    271

    640

    9.2

    130

    25.5

    294

    G

    BMW X6 xDrive35i

    The twin-turbocharged petrol engine that powers the BMW X6 xDrive35i has retained its International Engine of the Year award in 2008. This 2,979cc unit is capable of propelling the X6 from zero to 62mph in 6.7 seconds and on to a top speed of 149mph. It achieves this through a combination of twin-turbocharger technology and a high-precision direct injection system.

    Compared to the twin-turbocharged diesel engine in the X6 xDrive35d, the forced-induction technology operates in a different way. It is more efficient for the engine to operate with two same-sized turbochargers with each one helping to supply three cylinders due to the characteristics of petrol power. This sees the X6 xDrive35i produce a diesel-engine style flat torque curve courtesy of its variable vane turbo technology. The engine’s output is 306hp at 5,800rpm while peak torque is attained at just 1,300rpm through to 5,000rpm.

    The advanced turbocharging system on the BMW X6 xDrive35i enables it to deliver class-leading performance figures. The 2,979cc-powered X6 is still capable of achieving 25.9mpg and a CO2 figure of 262g/km.

    Model

    Power
    (hp)

    Torque (Nm)

    0 – 62mph (secs)

    Top Speed (mph)

    Combined
    mpg

    CO2
    (g/km)

    VED Band

    BMW X6 xDrive35i

    306

    400

    6.7

    149

    25.9

    262

    G

    Porsche Cayenne

    290

    385

    8.5

    141

    21.9

    310

    G

    BMW xDrive50i

    Completing the quartet of forced-induction engines is an all-new twin-turbocharged, high-precision direct injection 4.4-litre V8 powerplant. This engine makes its debut in a BMW product and is the most powerful non-M V8 engine the marque has ever offered. It is also unique as the two turbochargers and the catalytic converter are located within the vee of the engine for the first time. This reduces the length of the ducts while also allowing for a wider cross-section, so pressure loss is significantly minimised both on the intake and exhaust side. This enhances engine performance and benefits packaging too.

    The BMW X6 xDrive50i produces 408hp from 5,500rpm to 6,400rpm from its 4,395cc engine. Peak torque is an impressive 600Nm and this is attained from 1,750rpm to 4,500rpm. The breadth of the engine’s flexibility and power ensures the flagship in the X6 range reaches 62mph from standstill in 5.4 seconds and can hit an electronically-limited top speed of 155mph.

    This is the first time that the use of two turbochargers has boosted output on a BMW eight-cylinder petrol engine. Each of the two turbochargers supplies compressed air to four cylinders, ensuring unparalleled spontaneity and an instantaneous response to the accelerator. A further, important, point is that the engine develops its high torque from low speeds and then maintains this superior torque plateau over an unusually broad speed range.

    The new V8 is the most efficient power unit in its class. Combined with a wide range of BMW’s EfficientDynamics features, it gives the BMW X6 xDrive50i a standard of fuel economy and emission management far better than rivals. Average fuel consumption is 22.6mpg and CO2 emissions are 299g/km. The table below underscores the competitive advantage this BMW X6 model enjoys. Neither the Porsche Cayenne nor the Range Rover Sport can match the BMW X6’s all round capability.

    Model

    Power
    (hp)

    Torque (Nm)

    0 – 62mph (secs)

    Top Speed (mph)

    Combined
    mpg

    CO2
    (g/km)

    VED Band

    BMW X6 xDrive50i

    408

    600

    5.4

    155

    22.6

    299

    G

    Porsche Cayenne GTS

    405

    500

    6.5

    156

    20.3

    332

    G

    Range Rover Sport Supercharged

    396

    550

    7.6

    140

    17.8

    374

    G

    EfficientDynamics

    All four BMW X6 models utilise facets of BMW’s award-winning EfficientDynamics technologies. Brake Energy Regeneration is standard across the range in conjunction with active aerodynamics and low viscosity fluids in the steering and transmission systems. Third generation common-rail systems for the diesel-engined vehicles and high-precision direct injection on the petrol models serve to optimise the combustion process.

    On-demand management of ancillary units likewise serves to further optimise the efficiency of the BMW X6. The power required to drive the fuel and steering assistance pumps has been significantly reduced by matching the uptake to current driving conditions, saving substantial energy in the process. In addition, the clutched air-conditioning compressor automatically disconnects the compressor as soon as the air conditioning is switched off to save energy.

    The X6’s aerodynamics also serve to enhance efficiency, with the cooling air flaps behind the BMW kidney grille and air intake open and close electronically as required in all but the X6 xDrive50i. The flaps reduce air resistance when closed and open only in response to a greater demand for cooling air.

    Transmission

    Power in the BMW X6 is transmitted to the road via a standard fit six-speed automatic transmission with an emphasis on sporting gear change characteristics. Gear changes can be delivered using the ergonomically designed gear selector or by the gearshift paddles behind the steering wheel.

    The gearbox’s default setting is a fully automatic drive mode. However, manual gear changes can be instigated by either moving the gear selector to the left or using the steering wheel paddles. Pulling one of the paddles backwards serves to shift up gears and pressing the paddle forwards changes to a lower gear. Using this paddle gearshift is the quickest way for the driver to change gears.

    Chassis

    The BMW mantra of ‘the ultimate driving machine’ is delivered, in most part, by class-leading drivetrains and innovative chassis technologies. Award-winning engines, BMW’s intelligent xDrive four-wheel-drive technology, Dynamic Stability Control + and optional equipment such as Active Steering and Adaptive Drive, set the foundation for benchmark driving dynamics. Adding to this already impressive line-up on the BMW X6 is the world debut of Dynamic Performance Control – a highly advanced differential that enhances the performance of the X6 as standard across the range.

    Dynamic Performance Control

    New to BMW, Dynamic Performance Control marks the introduction of a new standard in drivetrain capability. Available only in the BMW X6, Dynamic Performance Control is unique in its ability to make a four-wheel-drive vehicle, with its inherently mild understeer characteristic, to perform with the responsiveness of a rear-wheel-drive car.

    It works by switching power between the left and the right rear wheels to stabilise the vehicle within milliseconds to help increase traction and lateral acceleration. Handling is lighter and more precise as a consequence during all driving conditions.

    To visualise how it works, the mechanics of canoeing provides a good analogy. If you want to turn right when canoeing, you can brake the paddle on the right side of the canoe. This is how most common electronic stability programmes work. Alternatively, you could use the left-hand paddle powerfully to deliver more control in moving forwards and turning right. This is the principle behind Dynamic Performance Control.

    The new system links the standard rear differential with a mechanical planetary gear set and an electronically-controlled multi-plate clutch for each rear wheel. This system combines advanced electronics and precise mechanics to process complex data such as the yaw rate, wheel speeds, steering angle and engine torque so it can react immediately. When required, the system ensures that drive power distribution to the rear wheels can be freely varied and increased on either side as needed.

    Dynamic Performance Control increases directional stability when accelerating out of bends and provides the driver with extra support in difficult driving conditions. Before under- or oversteer can take place, lateral guided force is used to keep the vehicle on track.

    The system is also effective when the vehicle is coasting. If the rear wheels are on different types of surface, Dynamic Performance Control improves traction by supplying more power to the wheel with more grip. This increases driving stability and allows for much faster acceleration should it be needed. A wheel torque difference of up to 1,800Nm can be actively created between the left and the right rear wheels.
    As a logical addition to the xDrive all-wheel-drive system, Dynamic Performance Control can be matched to all drive concepts and engines. Whereas xDrive variably controls the power distribution between the front and rear axles, Dynamic Performance Control intelligently distributes power between the two rear wheels for precise handling, whatever the driving conditions.

    The power distribution can be displayed on the onboard computer screen located between the speedometer and the rev counter.

    Integrated Chassis Management

    To allow Dynamic Performance Control to work it has to be co-ordinated by the Integrated Chassis Management (ICM) system. This high-performance electronic control network uses high capability computing power to control the drive and suspension functions of the X6 to deliver maximum dynamic capability regardless of driving condition. ICM controls the xDrive, Dynamic Stability Control + and Dynamic Performance Control actuators and, when fitted, the Active Steering and Adaptive Drive functions.
    To enable ICM to function to the desired level, FlexRay technology, the fastest method of data transmission currently available in a production car, is employed. Through the use of more powerful computer processors, offering what is essentially a greater bandwidth, FlexRay is able to cope with far greater amounts of data than previous car electronic systems.

    The result of ICM featuring FlexRay technology is that all the technological features of the BMW X6 respond near instantaneously to inputs to deliver a large Sports Activity Vehicle with sportscar-like handling and performance.

    Suspension

    The BMW X6 front suspension consists of a double wishbone arrangement similar to that of an open-wheeled racing car. This allows engineers to fine-tune the suspension for the best kinematic configuration which, in turn, delivers outstanding lateral acceleration and directional stability. At the same time, it minimises the impact forces transmitted back through the car. The rear suspension of the new X6 features BMW’s patented Integral IV rear axle.

    The standard sport suspension configuration can be enhanced by specifying Adaptive Drive. This optional system uses active hydraulic anti-roll bars to counteract the cornering forces of the car to keep the body from leaning too heavily in a corner and unsettling the occupants. In addition to this, Adaptive Drive incorporates Electronic Damper Control (EDC) that uses sensors to continuously adjust the damper setting for the optimum comfort. The driver can adjust EDC to one of two settings, Normal and Sport, dependent on required ride performance.

    A unique four-wheel-drive system

    xDrive is BMW’s unique four-wheel-drive system which first appeared on the revised first-generation BMW X5 in 2003. xDrive works by ensuring that drive forces are instantly delivered to the axle that needs them most. The xDrive concept has two key ingredients – a centrally mounted, electronically activated, multi-plate clutch to distribute drive between axles, and the DSC+ system outlined below.

    The electronically controlled clutch in the BMW X6 is superior in all but extreme off-roading to rival all-wheel drive systems, simply because it is able to respond more quickly. Many conventional four-wheel drive systems require the build-up of hydraulic pressure to change drive distribution. With xDrive being allied to the DSC+ system, it is more predictive. The DSC+ sensors constantly monitor individual wheel speed, steering angle, lateral acceleration, throttle input and yaw rate angles, and feed this back to enable xDrive’s multi-plate clutch to switch power between axles.

    The result of this class-leading technology, allied to Dynamic Performance Control, is a vehicle that offers predictable, safe handling but one that still feels as nimble as a sports car.

    Dynamic Stability Control+

    Dynamic Stability Control+ (DSC+) is standard on the new X6 and offers four additional functions for added safety and comfort:

    • Brake Pre-tensioning shortens stopping distances during an emergency stop by priming the brakes should the car detect the driver lifting off the accelerator sharply in reaction to an incident ahead.
    • Brake Drying improves braking performance in the wet by periodically applying the brake pads to scrub away the film of water that can build up on the brake discs.
    • Hill-start Assistant allows a car to pull away smoothly on a steep gradient without rolling backwards. The brakes are held for the short time it takes the driver to apply the accelerator after releasing the foot or handbrake.
    • Brake Fade Compensation applies additional braking without any extra effort from the driver should sensors detect that the brake pads are starting to lose ‘bite’ due to heat build up.

    The driver of a BMW X6 is also able to select the Dynamic Traction Control (DTC) function of DSC+. DTC allows for a greater degree of wheel slip to enable a driver to pull away on loose surfaces such as snow or gravel without the DSC+ intervening through a loss of grip. DTC allows for more spirited driving in the dry without interruption and can be selected via a button on the centre console.

    Steering

    The BMW X6 comes as standard with a performance-oriented steering rack for precise, short steering inputs. Drivers wishing to build on this can opt for BMW’s unique Active Steering system. This varies the steering ratio depending on road speed. It does this by way of an electronically operated planetary gear that intersects the steering shaft. The planetary gear, in conjunction with an electric motor, is able to add more lock than provided by the driver at slow speeds to make parking and slow speed maneouvres effortless. When driving at higher speeds the opposite occurs with Active Steering actually retarding the input from the driver ensuring a smoother, more composed, drive. It also makes a larger car feel more nimble than its outward dimensions might suggest.

    Safety

    A body structure conceived and designed for maximum occupant safety underpins the BMW X6. In combination with the car’s passive safety systems, it fulfils all prerequisites for excellent results in all crash-tests. Occupant safety is ensured by front and side airbags, as well as head airbags all-round, and crash-activated headrests at the front. Bi-xenon dual headlights including a daytime light function, fog lamps, two-stage brake lights, and Run-flat tyres all come as standard.

    Design

    The design and concept of the new BMW X6 sets a new course for Sports Activity Vehicles. Never before in the premium segment has the command driving position of a 4×4 model been combined with the sporting, elegant lines of a coupe. The reason? The same reason that the BMW 3 Series Coupe and Touring models can happily co-exist together to deliver a bespoke design solution to those with specific motoring requirements. Hence the birth of the Sports Activity Coupe.
    In its design the BMW X6 showcases all the typical BMW design signatures while adding a new distinctive look. It has been crafted to be stylish, sporting and with a powerful presence. At 1,983mm, the BMW X6 is 50mm wider than a BMW X5 and it is 23mm longer at 4,877mm. Its dimensions give the model a dramatic footprint and create a striking appearance.

    At the front, large air intakes positioned far to the outside clearly indicate the cooling requirements of the powerful engines. The air intakes are split horizontally by bars in aluminium colour surrounding the round fog lamps to visually enhance the width of the car. The traditional BMW kidney grille is the largest of any previous or current BMW, and needs to be to feed the engine with the required volume of air. This, combined with the pronounced contours on the bonnet and large, standard specification xenon headlights, enhances the imposing on-road presence.

    At the rear, the view is split by horizontal lines and broad shoulders giving the back of the BMW X6 a wider, hunkered down look. Even the rear lights highlight the unique character of the BMW X6, re-interpreting the typical L-shape of a BMW X model and adding a dynamic, flowing look. Extra ground clearance, strikingly-designed wheel arches, four doors, the large rear tailgate as well as the high waistline, bear a clear resemblance in style to BMW’s other X models.
    The unique proportions of the BMW X6 stand out particularly from the side. The short front body overhang emphasises the dynamic character of the vehicle, the roofline tapering out gently to the rear and the long body overhang at the rear end give the BMW X6 its stretched coupe silhouette. The roof is at its highest point directly over the front row of seats.

    Inside, the coupe ethos is carried over with the BMW X6 having accommodation for the driver, front passenger and dedicated two seats for passengers in the rear. A storage compartment separates the two rear seat passengers. Like all BMW X models, the new Sports Activity Coupe offers an elevated, command seating position giving the driver an even better feeling of security and visibility.

    The BMW X6 offers a sports steering wheel with shift paddles as standard. Another interior sporting feature is the knee pads on the centre console that offer both the driver and front passenger additional support and stability.
    The coupe lines might indicate a lack of interior headroom, but that assumption would be wrong. An unusually generous feature for a coupe is the substantial headroom at the rear of 946mm giving even tall passengers maximum comfort at all times. Part of the design teams’ challenge was to ensure that BMW’s Head of Design, Adrian van Hooydonk, could comfortably fit his 6ft 4inch frame into the rear seats. Incidentally, the BMW X6 has more headroom in the back seats than the Mercedes Benz C Class Saloon. (946mm vs 942mm).

    The boot offers a capacious 570 litres, far more than the space usually available in a coupe and more than many conventional 4×4 competitors. This enables four passengers in a BMW X6 to each take along a set of golf bags in the boot. The boot contents are covered by a concertina cover to offer security and easy access. It can also be folded flat and stored if needed. To increase luggage capacity even further, the rear seat backrest folds down in a 60:40 split to offer a maximum of 1,450 litres.

    A two-stage gas spring featured as standard allows the driver and his passengers to determine the final position of the tailgate when open according to their requirements. This avoids the risk of damage, for example, when opening the hatch in an indoor car park with a low ceiling.

    Dimensions

    Q & A

    This is a new section to a BMW press pack, the content of which is based on an interview between a journalist and Martin Sloan, the Product Manager for BMW X products in the UK. The aim of the section is to provide you with the answers to pointed questions that may not be outlined elsewhere in the press pack and for quotes that can be used in your articles.

    What is the point of the X6?

    An X3, X5, 3 Series Touring and 5 Series Touring between them cover off practicality, four-wheel-drive, dynamic driving and the high up driving position.

    The sales growth at BMW in the last 10 years has been all about bringing to market new, niche vehicles that specifically target what certain customers are after. The BMW X6 is just another step in this philosophy. The models you mention all cater to different people even though there might be some cross over. The BMW X6 is aimed at customers who like the high up, command driving position, but appreciate the attributes of styling and performance that are synonymous with a coupe. The BMW X5 is closest to the X6 in terms of positioning, but the X6 has several unique selling points aside from styling – namely Dynamic Performance Control, a more sports-oriented gearbox and a full range of turbocharged engines, two of which don’t feature on the X5.

    Why does the X6 only have four seats?

    The BMW X6 is part coupe and all of our coupes have four seats. The other main consideration is that the buyer profile is different too. For example, the BMW X5 can come with five or possible seven-seat configurations. The BMW X6 will be bought more by two person households so the number of seats is not a high factor in the purchasing decision. They are more like to be taking friends to the cinema, than ferrying children to football training.

    The BMW X5 is a big car already, but the BMW X6 has an even bigger footprint. Is there really a need to build and sell such cars in the UK?

    The BMW X6 might appear an imposing car but that is more down to the styling. By comparison it is smaller in length than an Audi A6 and occupies a footprint barely 500 cm2 larger than that car.

    You say this is the first time a range has been produced that is all powered by turbocharged engines. Why is this?

    This is partly to do with packaging requirements, but the main reason is to achieve our targets for lowering emissions while still improving other performance figures. Additionally, BMW no longer regards turbocharging petrol engines with suspicion, having mastered the art using innovative technology such as high-precision direct injection to great critical acclaim.

    Dynamic Performance Control makes an obvious difference to the performance of an X6. What is the weight penalty and will it appear on any other products?

    The extra weight of the system is 12kgs and that includes all the extra wiring and control unit. This is a small price to pay for the on-road benefits achieved. We are rightly proud of this new differential, but there are no plans, as yet, for it to be introduced onto other models.

    Is Dynamic Performance Control better than the variable M differential that is fitted as standard to all M cars and, if so, will these models get this feature in future?

    The unique differential fitted to all M cars is still superior when it comes to pure traction as it can develop up to 100 per cent locking action. Dynamic Performance Control is nearly as good though in regards to this, but it performs better on a four-wheel-drive platform which has a natural tendency to understeer. Dynamic Performance Control eliminates this for a truly responsive feel.

  • Smooth Powershift gearbox cuts fuel consumption by 8 percent in the Volvo C30, S40 and V50

    The two-litre turbodiesel version of the Volvo C30, S40 and V50 is now also available with a fully-automatic transmission.
    This new Powershift transmission is a six-speed unit and it significantly cuts fuel consumption compared with a conventional automatic transmission.

    “According to our calculations, Powershift contributes to a fuel consumption saving of about eight percent compared with a conventional automatic transmission,” says Magnus Jonsson, Senior Vice President, Research & Development, Volvo Cars. (more…)

  • New Ferrari California revealed

    The first official photographs have been published of the Ferrari California, the latest addition to the new generation of Ferraris launched in 2004 with the 612 Scaglietti and added to more recently with the 430 Scuderia.

    The Ferrari California joins the Prancing Horse’s 8-cylinder family which has always been defined by power and performance. It also flanks the flagship 612 Scaglietti in the prestige sporty Grand Tourer segment. (more…)

  • 200 hp Flexifuel Volvo V70 and S80 – environmental responsibility with spice

    The Volvo V70 and S80 are now also available with a five-cylinder, 2.5-litre turbocharged Flexifuel engine with a power output of 200 hp (147 kW) and 300 Nm of torque.
    “The 2.5-litre version adds spice to our environmental offer. It emphasises our aim to offer our buyers the possibility of combining performance with environmental responsibility. With 200 hp on tap, the driver gets a dynamic drive without compromising fuel economy,” says Fredrik Arp, President and CEO of Volvo Car Corporation. (more…)

  • Mazda design world

    2008 Mazda Design

    Mazda’s design DNA

    To come up with a new design identity for Mazda, Laurens van den Acker and his design team had to condense and refine important heritage and brand identifiers into future design DNA. But what is design DNA?

    As its name would suggest, it’s not so different from a human genome. Design DNA is a name for the basic building blocks that makes a car recognisable. It’s a design element that ensures a car shares visual characteristics with other vehicles in the same family, while at the same time distinguishing it from other brands and other products. Essentially they are the visual features that a family of cars has in common – in this case the elements that make a Mazda look like a Mazda.

    Usually these elements include the look and shape of the grille, the roof angle and the shape of the headlights and even rear taillights. It can also mean a crease in a body panel, the shape of a window or even an unusual wheel design that is visually identifiable with a car brand. If these are the essential ingredients for a design language then the combination of them together, crafted expertly, and when well executed, should lead to a number of distinctive and brand unique new cars. In this case the goal is to create a family of beautiful vehicles, all uniquely different, yet recognizably Mazda.

    Car design: one integrated process from concept to creation

    At Mazda concept car development plays a vital role in enhancing consumer brand perception and represents a vital opportunity to communicate good ideas and assess consumer reaction.

    But the origins of a concept vehicle rarely – though sometimes – originates solely in the design studio. In fact, concept vehicle development begins with early Advanced Product Strategy (APS) – strategic team meetings comprising team members from design, marketing and engineering.

    This strategic planning starts with research into emerging consumer lifestyle and future automotive trends to determine the market’s requirement and potential acceptance of a concept vehicle.

    Often, this early research involves documenting the nature of consumers’ lifestyles through observation; by watching how consumers use the vehicles they own and documenting how they feel about them. In combination with market data – which indicates consumers’ buying habits – the APS team is able to evaluate the potential marketability of future vehicles. At this point the APS team is able to create a design and development strategy for any given concept vehicle while ensuring that any such development remains faithful to the Mazda brand and fulfils the strategic goal for the concept.

    With engineering, planning and design professionals all working together as one group, the design development process is enhanced. At this stage a comprehensive design brief is created and full concept development begins.

    From here designers work with packaging engineers to develop the vehicle concept, ensuring it meets the needs of target consumers. Designers begin to create vehicle sketches for the possible concept vehicle. This is called concept generation. At this stage the design is considered more ‘free’, sketches are inventive and investigate a range of ideas involving proportions and form, and even more detailed explorations of face graphics and surface texture. Designers take into account packaging and platform constraints and vehicle ‘hard points’ – the underpinnings of the vehicle chassis and powertrain – determined by engineers and often from a ‘donor vehicle’.

    Once a design is determined further sketches are developed, comprising different vehicle views and interior and exterior details. From here three-dimensional clay model development of the concept vehicle begins. This continues with digital modeling via the use of computer aided design techniques so that different views of the vehicle – often in different environments and different lighting conditions – can be evaluated.

    Interior designers begin in earnest to create interior designs for the concept, working closely with colour and trim specialists who are developing mood boards and colour palettes – including interesting textures and materials. Once an interior design is identified digital modeling gets underway to generate three-dimensional renderings and ultimately modeling data.

    From here interior and exterior prototype components are developed for the final concept vehicle build. This is usually assembled in the design studio, or may be built off-site by a specialist concept vehicle and prototype construction supplier.

    This development process involves hundreds of steps to successfully realize a full-size three-dimensional and faithful iteration of the car design team’s original sketches. For concept cars this process usually takes 12-18 months. Should the concept go on to production, it may take as long as five years before the production vehicle comes to market.

    How to design a car: 9 steps to sketching a concept

    Almost all car design begins with design sketches. Though these are approached from a number of perspectives, the One-Point Perspective is the easiest to master and the quickest to execute and is where most designers’ ideation begins.

    Step 1 – the foundations

    Using a pencil start by drawing a ground line, set two wheel positions and create a shoulder line. It is important to keep your lines light so that you can change things easily and correct mistakes as the design progresses without succumbing to the desire to start again.

    Step 2 – rough proportion

    Mark out the rough proportions of the vehicle, of what will become the vehicle’s bodywork, using a centre line and the window opening.

    Step 3 – defining bodywork

    Outline the top edge of the vehicle’s body from the rear bumper, across the roof and down to the front bumper. Note that the closer the roofline is to the centre line the less the curvature is implied.

    Step 4 – adding detail

    Once you are happy with the general shape and proportions of your vehicle you can begin to add detail such as the bumpers, headlamps and wheels.

    Step 5 – firming up the details

    This will be the final stage before adding some colour. If you are happy with the way your design is progressing then you can add more details indicating surface texture and wheel design.

    Step 6 – adding shading, suggesting light If your are happy with your design so far then you can begin to add some shading of the windows and wheels using a marker. Note that if you make the front wheels darker than the rear wheels you are better able to suggest movement.

    Step 7 – horizon and scenery

    This is the stage that requires some courage. Take a coloured marker and begin to suggest the reflection of light in the windows and body surface. Imagine where the horizon line is behind you and imagine how that would be reflected in the vehicle’s surfaces and even the scenery behind you.

    Step 8 – adding colour

    Apply the colour marker or pastel of your choice across the length of the bodywork, centering just below the shoulder line. Note it is best to choose a colour that is similar to your earlier marker work.

    Step 9 – cleaning up

    This is the final stage. Take an eraser and try to determine which of the surfaces are upwards facing. If you have accidentally coloured these then remove it. This should ensure that you have the best opportunity to suggest three-dimensional form.

    Mazda Design: from concept to production

    In most cases, concept-cars give a preview of design cues of future mass production models. Following are two examples of such an evolution:

    Ibuki concept to Mazda MX-5 (3rd generation)

    Inspired by the face and form of the original 1990 MX-5 design, Mazda launched the distinctive Ibuki concept in 2004 Tokyo motor show.

    Meaning ‘breathing new energy into’, the Ibuki name suggested the concept car’s secret – that it really was the new MX-5 – while the world’s press reported that any link was merely theoretical.

    In fact, the Ibuki’s ovular design motif – which was apparent all over the car – really would become the design motif of the next generation Mazda MX-5 when launched at the Geneva Motor Show 2005. The ovular headlights and pronounced arches and the clean, uncluttered and clear surfaces would all ultimately be seen in the final vehicle. Inside the production MX-5 kept some elements from Ibuki’s design, such as the three-point steering wheel and ovular centre console, the strong centre tunnel and rectangular door-pull handles.

    What’s more, for the Ibuki concept, Mazda moved the entire drivetrain rearwards and downwards to make the centre of gravity lower and closer to the center of the car. The goal was to improve balance and handling, and maintain the 50/50 weight distribution. The resulting concept had unusually short overhangs and was a full foot shorter than Mazda’s current production MX-5.

    By the time of the launch of the subsequent MX-5, the production vehicle did indeed exhibit shorter overhangs and improved handling.

    Sassou concept to Mazda2 (2nd generation)

    The Mazda Sassou concept suggested what Mazda’s next generation B-segment product could look like when it was introduced at the Frankfurt Motor Show in 2005.

    Designed at Mazda’s design center in Oberursel, Germany, the name Sassou is a Japanese term that means having an optimistic state of mind.

    The concept was designed to appeal to young, first-time buyers and explored what young people would want from a car in terms of future technologies. As a result of this research, Sassou’s interior was based on a concept of ‘illumination’ and an interactive connectivity ideal which saw the car’s entertainment and personalisation system uploaded to the vehicle’s hard drive via a user-operated USB stick key.

    Though the interior contributed much to the concept’s success it was the exterior design that would prevail to the Mazda2 production vehicle. Sassou contained many Mazda design features that would ultimately be apparent in the later Mazda2 production model, including the overall form, the surface creases and the front end – with its large, sporty five-point grille and bonnet – itself an evolution of the Mazda RX-8 front end.

    Advanced design at Mazda: four global studios in full flow

    The responsibility for the successful worldwide introduction of Mazda design falls to four global design studios – located in Irvine, California, Oberursel, near Frankfurt, Germany and Yokohama and Hiroshima, Japan – all guided by Laurens van den Acker.

    This is an incredible challenge, not least in communication terms alone. As Laurens van den Acker is based at the firm’s global Mazda’s headquarters in Hiroshima, Japan, it means he spends a lot of time traveling between studios.

    All four of Mazda’s studios are playing a vital role in the supply of ideas for future design directions. At its simplest each of the studios focus on the creation of products for their local markets. In Irvine, Mazda’s North American design studio works on vehicles and concepts for North America, under the daily direction of Franz von Holzhausen. In Frankfurt, Peter Birtwhistle’s studio focuses on vehicles for Europe. While back in Japan, Yokohama – under Atsuhiko Yamada – concentrates its energy on products for Asia, together with the design headquarters in Hiroshima which guides overall global design strategy and engineering integration.

    The reality is rather more complex, with product origination in one geographic location via import from different global design studios and often destined for more than one market. The result is that each of the studios is effectively globally focused but with local expertise. This leads to an incredibly healthy environment of competition and rivalry in the global design team, but still with openness that ensures efficient working processes.

    Each studio works in three different areas, creating concept cars, crafting production vehicles and evolving a better understanding of how to improve future Mazda vehicles. All are aspects that will crucially affect design. But, arguably, it is the third aspect that is the most important as it asks ‘where are we headed and what do we need to do to get there?’

    It is usually this ‘third way’ that most impacts vehicle architecture and packaging. It starts with a philosophy and then leads to questions as essential as ‘how will we build these cars and what will we build them from?’

    Usually the design studio located geographically closest to production design and advanced engineering and planning that spends the most time focusing on how and where to build a car. This leaves more time available to generate concepts and other ‘experimental’ work to secondary studios. These studios are vital in the development of cars, simply because they have more time to ask questions that their ‘client’, the design headquarters, may not yet even has asked.

    Under van den Acker, each of the studios are encouraged to imagine ‘further out’, to explore future ideas and concepts.

    Nagare, a new design language

    Zoom-Zoom: the physical interpretation of Mazda’s brand heritage

    When Mazda unveiled the Nagare concept car at the LA Motor Show in 2006, it was unlike any concept car seen before; due to its exterior form language of textured surface lines and dramatic, futuristic wedge-like shape.

    At first the car appeared to be a complete visual sea change from the trio of concept vehicles that had immediately preceded it – Sassou, Senku and Kabura – and no one, not even on Mazda’s design team, knew how big an impact their new design philosophy would make around the world.

    The earlier trio of award-winning* concept cars had all wowed audiences at the world’s motor shows in 2005 and 2006 – exhibiting a new and energetic commitment to exciting and contemporary automotive design at Mazda. But with the introduction of the Nagare concept, everything shifted. It was as dramatic an introduction as any car company could hope for.

    But why such a dramatic shift when the latest concepts had been so successful? Franz von Holzhausen, Director of Design for Mazda North America, explains:

    “Mazda has a strong line up of products but we felt that, for the future of the Mazda brand, we needed to create a design language that reflected an emotional attachment to the cars, in a similar way that Zoom-Zoom represented an emotional attachment to the cars when in motion. The three concepts explored ideas that would become part of Flow design philosophy. Nagare really evolved from these concepts when Laurens suggested that we be even bolder and go further than we had before.”

    Mazda’s brand DNA – the component philosophical parts from which a Mazda vehicle is constructed – can be summarized in a series of adjectives: ‘Zoom-Zoom’, ‘young’, ‘stylish’, ‘spirited’, ‘insightful’, ‘emotion in motion’, ‘innovative’, all are adjectives that have, over the years, become directly associated with the Mazda brand. This is because Mazda cars have long been heralded for their exceptional functionality, responsive handling and excellent driving performance.

    “We looked at all of these adjectives and wondered whether they were really being visually expressed through the design at Mazda,” Franz von Holzhausen explains. “Our cars were dynamically great and proportionally they were good but visually we felt that they needed work. It’s already time to prepare the design evolution of tomorrow. The Nagare concepts show the way.”

    The design team set out to discover something new and fresh for Mazda design; in terms of an aesthetic that would define Mazda, that visually communicated the brand and which would become something that Mazda could ‘own’ from a design perspective.

    Under Laurens van den Acker, the design team was challenged to capture Mazda’s driving spirit – embodied in Zoom-Zoom – by trying to capture Mazda’s essential brand characteristics visually in Mazda vehicles, even when they were stationary.

    The result was Nagare or Flow, a whole new design language for Mazda cars.

    *Mazda’s Senku concept car was awarded the Grand Prix du Plus Beau Concept Car at the XXIst Festival Automobile International in 2006 in Paris. Mazda’s Kabura concept won the Detroit Motor Show’s Aesthetic and Innovation Award.

    How to design a Mazda? The lines and elements that make a Mazda a Mazda

    Under Mazda’s emerging Nagare (or Flow) form language, there are many design elements that define a Mazda vehicle.

    The most apparent is the surface treatment itself, which suggests air or fluid flow over the vehicles’ side surfaces. This is apparent for all of the Nagare concept vehicles. Their surface designs are textured to play with light as if the car is speeding through the air, suggesting the vehicles’ dynamic driving characteristics. These surfaces vary in accordance with the vehicle type and its individual shape and characteristics, as seen in the concept cars. Although different between each of the vehicles, it is always appropriate.

    A further clear and all-important element is Mazda’s five-point grille, which again differs between vehicles but which has a strong family resemblance. The exact shape and nature of the grille is dependent again on the appropriateness of the grille (it’s size and shape) within the overall ‘face’ of the vehicle.

    Other elements are apparent in the bonnets, the RX-8-style wheel arches and the head- and tail lamp treatments of each of the concepts.

    These elements – along with the concepts’ fast wedge shape – are essential building blocks for Flow design.

    Inside design: the future of interior design at Mazda

    Until now the majority of Mazda’s design focus has been in the evolution of the Nagare exterior form language. This has been seen in the design progression apparent in the five concept vehicles. But as Laurens van den Acker explains, the focus is shifting to how to translate Flow to the interior of future Mazda vehicles.

    “The interior is a different approach; it is a collection of things. We are naturally maturing this language, by approaching interior development with the goal of having a holistic philosophy.”

    “Interior development is focusing on three key areas – driver orientation, lightness – which is very important to Mazda – and Flow. The idea is that the combination of these three aspects will make our interiors unique and makes our cars uniquely Mazda. You could argue that other brands have driver orientation and they may be trying to be light too. But only Nagare combined with the other two can define Mazda.”

    The goal with the interior design is to generate similar design DNA for the interior that the design team has been identifying for the outside of future Mazda vehicles, in order to create consistent interiors across Mazda’s future product range.

    Driver orientation is a key focus because the soul of all Mazdas should be the essence of a sports car. This is a key brand characteristic for Mazda. The second aspect lies within the intellectual interpretation of ‘lightness’ as a future brand value.

    According to Laurens van den Acker, there are four aspects to this lightness:

    “The first aspect is to create a visual lightness: things need to ‘look’ light. We can achieve this through creating ‘floating surfaces’, thin looking shapes, openings etc. The second aspect is physical lightness: the interior parts and pieces need to ‘be’ as light as possible, in terms of weight. The third aspect is the mental aspect of lightness – this is the fun aspect because we don’t want things to become too serious. With Zoom-Zoom we are more young at heart so I want us to make sure that we keep a twinkle in the eye. The fourth aspect is sustainable lightness: the environmental aspect to this. ‘Don’t leave any footprints behind, tread lightly, etc’. Of course, choice of responsible materials and processes, re-use etc plays an important role.”

    This philosophy of lightness is extraordinarily prescient. Van den Acker believes that within an increasingly stressful world our ability to enjoy driving a Mazda may have as much to do with the purity and serenity of its interior form as it does to its driving dynamics.

    In terms of lightness Nagare also means less denseness, less emotional drain, less visual static:

    “Flow is also about not being bothered by too much information, about being given information only when you need it. We need less rather than more. Our interiors will look very simple with just a few areas of information and technology. The ultimate goal is to have a interior, created from Flow, which is calming and peaceful.”

    So Nagare – from an interior perspective – is devoid of mental stress and anxiety. It is just as central to Mazda’s new design approach as the exterior surface textures.

    Colour & Trim: driving developments with new materials

    The successful execution of creating Flow interiors with the visual lightness that Laurens van den Acker describes is highly dependent on new and innovative ways of using materials.

    Here Mazda’s design team is working hard to develop a revolutionary approach to both exterior and interior form and material choice.

    Simple forms which flow in terms of both shape and function across components will require a sea of change in interior design and may require complex manufacturing techniques. The ideal of having conventionally separate and distinct interior components flowing into one another – such as the instrument panel flowing into the centre console and on into the front seats, while combining functional and technical elements such as climate control and audio entertainment systems – will require a revolution in form creation and manufacturing.

    Mazda is already developing advanced materials that meet its environmental responsibilities. Bioplastics which produce less CO2 in their manufacture than conventional plastics, have already shaped the interior of the Taiki concept and work continues to bring these materials – and others – to production vehicles. To do so while maintaining functional simplicity and ergonomic clarity and yet still maintain an occupant friendly, sensual and calm interior is a challenge that will depend upon such an innovative approach to colour and material use. As Laurens van den Acker explains:

    “By applying the thinking of Nagare then Flow becomes how one object flows into another; such as how an interior form like an IP (Instrument Panel) could become a seat – like in Taiki – or how driver information systems flows into the car and how this is managed. We are just starting to think this way. Instead of being a typewriter – where every button has a function – we are starting to link all these things. In reality everything is linked anyway. Though with Nagare there will be an emotional and visual link through the use of colour and materials.”

    Mazda’s design process: the fusion of art and science

    “The most interesting thing about Mazda design, in terms of the technology used to help create it, is that 20 years ago, it wouldn’t have been possible,” explains Peter Birtwhistle, chief of design, Mazda Europe. “The complexity and the subtlety of the surfaces would mean, even in the hands of the most skilled clay modelers, that it is virtually impossible to do by hand.”

    Traditionally, during the car design process, a car designer would sketch a car and then make a small exterior clay model before moving to larger clay models at the green light stage. Highly skilled modelers then work on the full-size clay to generate a life-size, near-realistic ‘vehicle’. This process has been used for generations of cars, but in recent years the integration of digital design processes has seen car development change. Though the exact methods used vary between automakers, cars are increasingly created within the computer (or transferred there from the initial 2D sketches) using digital design software. Ultimately this software allows 3D mathematical form data to be created from a 2D drawing. This information is combined with technical information, such as the existing components including the chassis and drive system, – known as the ‘hard points’ – to create a 3D ‘realistic model’ before a time-consuming clay model ever needs to be cut. At this stage, this data can be exported to a multi-axis milling machine, which can produce a life size clay facsimile of the vehicle containing the exact complexities of the original design. Ultimately this data can be used to create actual car components and production tooling moulds for the manufacturing process.

    Today complex surfaces could only have been executed digitally. This is because it is easier to design and produce clean, clear surfaces than the complex textured surface language. This combined with a technological understanding that is rare amongst car designers and the integration of advanced computer aided design and engineering processes within Mazda, means that Mazda has the technical ability to bring design ideas to market.

    “If you break it down to its simplest forms it is not that much more complicated to do that current construction” says Franz von Holzhausen, “but the manufacturability of the textures will be crucial because these textures are a signature design language for Mazda.”

    “Every concept car that we have done has been a learning process,” explains Laurens van den Acker. “We have worked with some of the most adventurous engineers in the world. There is a long history of this kind of innovation at Mazda. It’s a designers dream to have engineers that want, so much, to do this. We do have to work very closely with our engineers and our suppliers. Everyone has to be on board.”

    The story and importance of Flow: the Nagare generation

    After lots of brain storming, sketching, research and feasibility studies the Nagare design language was born, in the form of the Nagare concept car: but where did it come from and how did it evolve?

    The design team began by looking at the dynamic qualities existent in Mazda vehicles. Of these nothing summed up Mazda better than ‘emotion in motion’; Mazda’s commitment to engineering vehicles that offered a purity of childlike enjoyment through the sheer joy of motoring.

    Hours of discussion confirmed amongst the design team that Mazda deserved the same emotion in its cars when they were static as it had earnt when they were moving.

    “We turned to nature for inspiration, focusing on images of motion created by forces like wind and water,” explains Laurens van den Acker. “Such natural flow lines all lend an intuitive sense of motion.”

    “We wanted to create cars that had a ‘snapshot feeling’ of this natural motion,” explains Laurens van den Acker. “We realised that the automotive industry is one of the few industries that hadn’t yet captured these amazing natural textures from the landscape. Architecture, fashion and product design have all looked at these landscape elements. There was a great opportunity for us to interpret this for Mazda design.”

    “Our new surface language is car-centric,” adds Franz von Holzhausen. “After studying the architectural approach, which tends to be strictly rigid, and the organic approach, which is highly fluid, we created Nagare to straddle those two disciplines. It is fluid, graceful, and dynamic. But the message it registers on the beholder is flow-motion.”

    From here Mazda’s designers began to explore the possibility of textured surfacing on cars: as if the cars’ surfaces had been naturally sculptured by air or water. Mazda’s design team began by developing a surface language to visually describe their Flow philosophy. Like the natural elements that had inspired them the team wanted to communicate the sheer raw power of Mazda motion even when their cars were still, as van den Acker explains:

    “It was in making the transition from observing motion in nature as an expression of energy to applying it to a manmade object such as a car that we discovered what a thoroughly exciting and logical creative approach the design concept represented. This revelation allowed us to proceed to create one dramatic and unique design after another.”

    Conventional automotive design dictates that the panels of car bodies are comprised of smooth, clean and clear surfaces. Yet Flow is like a ripple or a wave effect across the surface of the metal.

    “The surface language of Nagare goes against conventional design thinking of clean, uncomplicated surfaces,” explains Franz von Holzhausen. “This is what we are all taught at college so it goes against the grain.

    “We are breaking the golden rule of design – which is to simplify,” explains Laurens van den Acker. “Everybody will tell you to remove lines until you have no more left to remove. We are adding lines, which is kind of counter intuitive, but if we do it well it looks natural and creates beauty.”

    ‘Flow’ – Mazda’s Nagare design series

    “Each concept displays a slightly different interaction between motion and flow in terms of its surfacing. There is no right or wrong way to capture the impression of motion, so each of the concepts we present…[embodies] a different interpretation of our new surface language.”

    – Laurens van den Acker, General Manager Design Division

    The first concept car created using Flow was the Mazda Nagare, launched in November 2006. As the first of a series of design concepts – some closer to actual production vehicles than others – Nagare was a pure exploration in Flow surfacing.

    Mazda Ryuga followed soon after – in January 2007 – and began to explore the idea of combining the beauty of motion with man-made structures – in this case, the traditional Japanese rock garden.

    By the time of the Mazda Hakaze design concept – in April 2007 – Flow had begun to investigate the different vehicle iterations that the design philosophy could realize practically.

    The interior possibilities for Flow design really began to take shape with the introduction of the Taiki concept, in October 2007.

    Furai, of course, began to communicate extremel sporty possibilities for Flow design, when it was introduced in January 2008.

    All of the Nagare concepts confirm that far from being a design exercise in experimental form, Mazda’s Flow strategy is evolving towards a true production reality.

    The Nagare concept car series is to be continued with the introduction of further vehicles in 2008.

    Mazda Nagare concept – Los Angeles Motor Show 2007 (October 2006)

    According to Franz von Holzhausen, who led Irvine’s design team in the development of the Nagare concept, Mazda’s first public display of Nagare design, the Nagare concept vehicle was actually “a concept of a concept”.

    At the time Mazda’s designers were simply exploring potential surface language and vehicle proportions that would began the evolution of Flow. Nagare’s form had been unconstrained by functional realities, it was simply a visual blueprint of conceptual intent.

    Yet, despite coming – as it did – at the very beginning of an intellectual process that was evolving ‘on the fly’, Nagare displayed a number of Flow elements that would remain. Its sleek and aerodynamic form was to prove justifiably robust and this ‘fast’ shape would later inform all of the subsequent concepts, as would the wheels planted firmly in all four corners to express agility.

    Most impressive of all was the two long butterfly doors that moved forward and up to enable access to the four-seat interior. With a centrally located driving seat and wraparound lounge effect rear seating, Nagare managed to combine driving dynamics and interior function all in the one innovative package.

    “Our Irvine studio really pioneered the design philosophy, the concept of Nagare. It grew from the earlier Senku and Kabura concepts and Nagare evolved from there,” explains Franz von Holzhausen. “As we started to develop the Nagare concept we realised that we were creating a design philosophy that had a lot of light.”

    Mazda Ryuga concept – North American International Auto Show 2007

    By the time the Mazda Ryuga followed from Mazda’s Hiroshima Design Center, in Japan – led by Chief Designer Yasushi Nakamuta – Mazda’s design team had begun to ask ‘how would nature form objects if artificially controlled by man?’

    The result was the hugely successful and beautiful Ryuga concept, ‘an exploratory study’ that added definition and reality to Flow by adding the kind of detail that was impossible on the first concept.

    Ryuga (pronounced ree-yoo-ga) managed to express both natural beauty as well as man-made motion. Ryuga’s stunning side surfaces were actually inspired by the simple yet beautifully refined flow of carefully raked rocks found in Japanese karesansui gardens.

    The Flow wedge shape, so apparent on the Nagare concept, again added dynamicism and movement, thanks to smaller volumes at the front and larger volumes at the rear.

    As Laurens van den Acker put it Ryuga “added definition” to the evolving Nagare design philosophy, by adding powertrain and interior design details that were absent from the first Nagare concept.

    Again, the design team placed large wheels far into the corners of the concept. The wheels, with their 21-inch slightly twisted wheel spokes, added drama as if they too were moving even when Ryuga was static – the effect, like a powerful gas turbine, was stunning.

    Details such as a headlight shape inspired by the flow of morning dew falling from bamboo and rear tail lights, suggesting lava flow, underlined how far the approach had come.

    Mazda Hakaze concept – Geneva Motor Show 2007

    Conceived at the Mazda Motor Europe design centre near Frankfurt, Germany, the Hakaze concept (pronounced hah-kah-zay) is a crossover coupe with the feel of a roadster, and represented a more practical and functional iteration of Flow design.

    Hakaze was developed for consumers that wanted to drive an exciting coupe or convertible but who – due to their own lifestyle demands – required a more practical vehicle. Hakaze set out to fulfil the requirements of all of these groups and had a number of features that communicated this intention: The concept is fun and agile like a coupe, yet it still has the practicality and function of an SUV, while a roadster feel was possible thanks to its glass roof which can be removed and stored in a slide-out compartment in the rear bumper.

    Most surprising of all was Hakaze’s extremely compact proportions. Though wider and taller it is just 15mm longer than a Mazda3 hatchback.

    The surface treatment for Hakaze took its inspiration from a combination of natural elements like sand-dunes and technological man-made objects such as helicopters, speed boats and jetfighters. The result was a more muscular and taut interpretation of Nagare form language, entirely appropriate for a vehicle of its type.

    Continuing from Mazda Europe’s earlier Sassou concept, Hakaze displayed a unique illumination system with light flowing directly into the lower rear window creating an impression of floating light.

    The result was a concept that was agile yet tough, a combination of coupe and SUV, and the most contemporary interpretation of Nagare form language yet seen.

    Mazda Taiki concept – Tokyo Motor Show 2007

    The most futuristic of the Nagare concepts the Taiki (pronounce tie-kee) is a sports cars designed for a future sustainable society, exploring weight reductions and aerodynamics technologies in pursuit of improving fuel efficiency and reducing CO2 emissions.

    Taking its inspiration from the Earth’s atmosphere (Taiki means just that in Japanese) the groundbreaking stretched coupe form with its front-engine rear-wheel-drive layout, short overhangs, and all-glass canopy, was designed to visually express air flow and can be seen in everything from its surface treatment to its complex but beautiful wheel arches and wing-like tail.

    With a form comprising complex rippled shapes, Taiki’s exterior was inspired by the flow of fabric in the wind – the flowing robes of a celestial maiden in Japanese legend and Japanese koinobori “climbing carp streamers”. The result is an unusually non-aggressive and responsible take on future sports car design.

    The design team, led by Atsuhiko Yamada, chief designer, Manager /Advance Design Group at Mazda’s Design Division in Yokohama, Japan, took the koinobori theme to create an air-tube concept that is most apparent in its complex and futuristic form.

    Taiki shows the most advanced iteration yet of Flow interior form language with the flow of air literally shaping the flow of the interior components – specifically the way in which the dashboard flows through the seats and down into the door trim. Advanced materials in the form of bioplastics which produce less CO2 in their manufacture than conventional plastics, shaped the interior with its yin-yang split of driver-focused cockpit and calm, relaxing passenger area.

    Mazda Furai concept – North American International Auto Show 2008

    The Mazda Furai concept (pronounced ‘foo-rye’ – Japanese for ‘sound of the wind’) is the latest in Mazda’s family of Nagare-based concepts and celebrates 40 years of Mazda involvement in motorsport.

    Created at Mazda North American Operations’ (MNAO) studio in Irvine, California under the leadership of Franz von Holzhausen, Director of Design, the design team set out to design a car that blurred the boundaries between road-car and weekend racer to create an actual functional race car.

    Mazda’s Irvine design team began by taking the successful Le Mans Courage C65 chassis and added a closed cockpit and Nagare design elements. But while the four previous concept cars explored Nagare’s emerging design aesthetic, and featured core Nagare design elements such as the aggressive headlamps and unique five-point grille, Furai has each of its Nagare textures and details serving a functional purpose.

    Where Taiki had been a visual interpretation of the flow of air, it fell to Furai to actually channel it. On Furai, Nagare’s ‘flow lines’ actually enhance the vehicle’s aerodynamic performance, by channelling and directing the air flow over Furai’s body surface. At the front the air flow package takes air moving under the car and directs it inside the body to the engine-cooling radiators, while the form of Furai’s side surfaces feeds air to the rear brakes, the oil cooler and the transmission cooler. Elsewhere, an under-car diffuser helps draw the volume of air flowing through the radiators and engine bay, out the rear.

    Mazda people – The spirit of Mazda

    Laurens van den Acker, general manager, Design Division, Mazda Corporation

    Laurens van den Acker is general manager of Mazda’a Design Division. He is responsible for the overall design and styling of all of Mazda’s global products including concept vehicles and it was his initiative that introduced the new global design identity of Nagare form language at Mazda. Van den Acker is the driving force that has established Mazda’s strong and creative global design network.

    Before joining Mazda van den Acker was chief designer of Strategic Design in the Dearborn Advanced Studio at Ford Motor Company, North America.

    Prior to that assignment, he held several different design positions during his seven years with Ford, including chief designer for the Ford Escape and Mercury Mariner and was chief designer of Strategic Design and chief designer of Ford’s Brand Imaging Group. He has also designed for Volvo and Audi.

    During his time at Ford Laurens van den Acker contributed to key vehicles – including the Ford Model U, 427, Bronco and GloCar concepts.

    Van den Acker graduated from Delft University of Technology in the Netherlands with a Master of Engineering degree from the Faculty of Industrial Design

    Laurens van den Acker says he is delighted to be heading Mazda Design, particularly at this time and for a company that is so supportive of such innovation.

    “By tuning up the visual volume this way we are creating a new generation of Mazda vehicles and reinforcing Mazda’s commitment to build sporty and passionate vehicles. Ultimately this Nagare form language – as applied on the Taiki and Ryuga concepts – will be seen as similar exterior textural elements on future Mazda production vehicles.”

    Peter Birtwhistle, chief designer, Mazda Research & Development, Europe

    Peter Birtwhistle is chief of design for Mazda Europe. He is responsible for overseeing the design and development of all vehicles for Mazda’s European design operations and is based at Mazda’s European research and development centre in Oberursel, Germany. Responsible for creating vehicles in the world’s most competitive and challenging car market, Birtwhistle leads an international team of designers.

    Birtwhistle joined Mazda as a senior designer in 1988 and has been leading Mazda’s European design operations since 2000. Before joining Mazda Birtwhistle was assistant exterior studio chief designer at Porsche, and a studio designer at Audi and Vauxhall.

    He studied automotive design at the Royal College of Art, London.

    “With the new design philosophy we will get more visual expression and excitement into the bodies of Mazda cars beyond conventional elements. It’s great to have such a common goal and it is a very creative time because there is such openness to new ideas; to have designers able to create so many elements and so many details. We are creating forms and features that would not have been possible before the new Nagare form language”.

    Franz von Holzhausen, director of design, Mazda North American Operations

    Franz von Holzhausen is director of design at Mazda’s North American Operations (MNAO).

    He is responsible for overseeing the design and development of all vehicles for Mazda North American Operations and is based at Mazda’s North American design and research and development centre in Irvine, California, USA.

    Von Holzhausen joined Mazda from General Motors where he was design manager, managing programs including the Pontiac Solstice concept and production vehicles, as well as Saturn derivatives. Prior to his time at GM, von Holzhausen served as assistant chief designer for Volkswagen.

    At Volkswagen, he was a key designer involved in the design development of the Audi TT and Concept 1 New Beetle, working under J Mays.

    Von Holzhausen led the Nagare concept car development – the first concept to show Mazda’s Flow Design philosophy – and which would later spawn Ryuga. Under his day-to-day direction, he and his Irvine design team help design and co-develop the Ryuga concept that would later be finished and built in Japan. Also, the latest Nagare concept – Furai – was executed back in his Irvine studio.

    Von Holzhausen says he is most inspired when he is involved in projects that are truly innovative:

    “I love breaking new ground, whether just for the brand or generally. To a certain extent we are simply providing the design that people have been waiting for. I think we are breaking some boundaries in automotive design that needed to be broken.

    “It is pioneering design. It is forging a way ahead for everyone in the industry. If you think about the textured surfaces, the surface language and manufacture, it is a pioneer for change. It is so different from anything else that is out there”.

    Atsuhiko Yamada, chief designer, Manager /Advance Design Group, Design Division, Yokohama

    Atsuhiko Yamada is chief designer and manager of the Advance Design Group in Mazda’s design division in Yokohama, Japan. He is responsible for overseeing the day-to-day design and development of all vehicles for Mazda’s Japanese and Asian operations.

    In Yokahama his team is engaged in the development of designs for five to ten years from now. It was Yamada’s team that developed the Ryuga and Taiki concepts. He leads a team that investigates and studies design trends in various areas such as pop culture, architecture, product and fashion design and synthesizes them into products relevant to local markets.

    In recent years, he has had lead involvement in the design development of the Mazda2, Mazda6, and CX-9 projects.

    “The philosophy of Nagare is very natural to me for designing a car,” explains Atsuhiko Yamada. “Japanese culture and design, historically, are heavily influenced by nature and we see a lot of beautiful flow design languages in architecture, garden, art and fashion. I was brought up in such an environment and I am excited that I have the opportunity to translate the beauty of nature into car design”.

    “I think this language will appeal to many people even if they have different cultural backgrounds, because nature is so beautiful to everyone. The journey could be endless and there is potentially unlimited design inspiration.”

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