Rezvani Motors – Luxury Meets Milirary

Designed for civilians. The toughest and most powerful road going Extreme Utility Vehicle on Earth.

BULLET PROOF GLASS AND BODY

THERMAL NIGHT VISION

NUMEROUS SECURITY FEATURES

AVAILABLE 1,000 HP DEMON V8

STARTING AT $259,000 USD

FEATURES

Bullet proof glass and body armor
Underside explosive protection
Smoke Screen
Military Runflat Tires
Thermal Night Vision System
Self sealing fuel tank
Radiator protection
Reinforced suspension
Electromagnetic Pulse Protection
Ram Bumpers

Electrified Door Handles
Siren and Horn Options
Strobe Lights
Blinding Lights
Intercom System
Magnetic Dead Bolts
Gas masks
First Aid kit
Hypothermia kit
Continuous video recording

KEY FEATURES

Born from the vision of a pure driving experience, the Rezvani Tank was designed to be the most capable vehicle on and off the road.

A POWERFUL HEART

At its heart sits a 6.4-liter 500-horsepower V8 engine or an optional 6.2L 1,000 Horsepower V8 from the Dodge Demon is capable of propelling TANK™ over any terrain. A 3.6-liter V6 is standard.

BALLISTICS ARMOR

The latest in ballistics armor capable of stopping high caliber weapons and assault rifles. Radiator, battery and fuel tank are all wrapped in kevlar. Underside is also protected against explosive devices.

SMOKE SCREEN

Dense smoke is released at the press of a button to lose trackers.

ELECTRO-MAGNETIC PULSE PROTECTION

Electro-Magnetic pulses are radiated after a nuclear explosion and render electronic devices inoperable. EMP weapons are also used to disable electrical systems prior to a broader attack. Read More about Tank’s EMP Defense Here.

ELECTRIFIED DOOR HANDLES AND MAGNETIC DEADBOLTS

Magnetic dead-bolts and electrified door handles provide maximum security against unauthorized or forceful access.

MILITARY GRADE RUN FLAT TIRES

A solid tire within a tire provides capability to drive heavily damaged tire for long distances at high speed.

BLINDING LIGHTS

The most powerful front and rear blinding lights turn night into day and serve to blind trackers at night.

LUXURY INTERIOR

Elegantly appointed and customized interior with over 10 seat styles provides a sporty feel yet supple driving experience.

SECURITY SURVIVAL KIT

Included military grade gas masks, hypothermia kit and first-aid kit

SIREN/PA

Strobe lights, Sirens and a full intercom system with external speakers and microphone allows driver to communicate with external threats without the need to open door or windows.

CONSOLE SAFE

A quick access built-in safe can hold valuables or protective equipment.

RAM BUMPER

Steel bumper with built in winch and D rings can ram through any situation.

THERMAL/NIGHT VISION SYSTEM

Thermal night vision system from FLIR displays heat signatures as well as standard night vision.

DIMENSIONS

Weight:
B4 6,300 lbs

B7 7,150 lbs

JETOPTERA J-2000 FLYING CAR

JETOPTERA J-2000 FLYING CAR

Jetoptera was recently awarded two 2021 Small Business Technology Transfer (STTR) contracts from the USAF to further characterize the noise of its patented Fluidic Propulsive System (FPS™) in an anechoic chamber wind tunnel and to prove that the FPS™ used with an Upper Surface Blown Wing (USB) configuration will produce specific lift force levels similar to those of a rotor-wing aircraft, yet without moving parts.

For the first contract, Jetoptera has partnered with the University of Notre Dame (Professor Scott Morris) to employ the anechoic wind tunnel in their Turbomachinery Labs and characterize the aero performance and acoustics signature of the FPS™ and compare it to similar thrust propulsors currently employed in Unmanned Aerial Vehicles (UAV) and Urban Air Mobility (UAM) concepts.

“We will compare the FPS™ and three other propulsion technologies that are the legacy propulsors for Vertical Take Off and Landing (VTOL) UAVs and UAM vehicles using a similar power supply for each. Having already established our FPS™ lower noise emissions potential versus a propeller under another program, this time we will be using an anechoic chamber and a different measurement system, with the goal of confirming the advantages of the propulsion technology we have invented” said Dr. Andrei Evulet, CEO of Jetoptera, Inc.

Jetoptera has also partnered with the University of Washington (Professor Alberto Aliseda) to employ the Kirsten Wind Tunnel to demonstrate feasibility of lift and thrust augmentation by a wing-integrated Fluidic Propulsion System via the Boundary Layer Ingestion and Upper Blown Surface Jet Mechanisms. Our goal is to find the maximum vertical lift produced with this combination and demonstrate that by distributing the FPS™ along a wing we can produce a specific lift force (lbf/hp) similar to a low disk load rotor employed by rotary wing aircraft. “We will investigate and find the optimal architecture for the use of the wing for VTOL in conjunction with the FPS™ and how it could match the performance of a rotor, by using the same power, but without the large, noisy, moving parts,” said Dr. Evulet.

“We are on the technological design path to demonstrate that an aircraft using the FPS™ is quieter, faster, simpler, more compact and less expensive than a rotor or propeller driven aircraft. Combined with FPS™’ agnosticism to energy sources – it can be powered by jet fuels, Diesel, SAF, hydrogen or electric – we are confident about the superiority of our propulsion solution as noise, safety and performance continue to be major challenges in unmanned and manned aviation,” added Dr. Evulet.

The period of performance is six months for each contract.

In July 2018, Jetoptera finished propulsion tests, triggering an issuing of $1.5 million in equity. In September 2018, Jetoptera and GE Aviation announced that they were cooperating “to jointly demonstrate a 500-pound-force (lbf) class Fluidic Propulsion System leveraging a gas generator based on GE Aviation’s H-Series turboprop engine. This is the first step towards a fully customized gas generator which will lead to a Jetoptera 500 VTOL full flight demonstrator.”

A 50 kg (110 lbs) subscale propulsion system test rig completed a tethered flight in October of 2018, and the company states that the fluid propulsion system met their standards in the “production of stable, repeatable and reliable thrust”. The company reported that it was awarded a patent for their fluid propulsion system in April 2019, and announced in December that additional patents for “Fluidic Propulsion System“, “Configuration for Vertical Takeoff and Landing System for Aerial Vehicles“, and “Flying Car” had also been issued. In this announcement the company made the updated claim that their fluid propulsion System would allow their high-speed configuration of the aircraft to reach speeds between 200 and 400 mph, a revision to the earlier claim that the craft was only capable of speeds up to 200 mph.

A quarter scale model of the J2000 was reported to have flown in May 2019, and during the initial flight the demonstrator reached a top speed of 90mph. In July 2019, this demonstrator completed a successful cargo-delivery demonstration, and in August Jetoptera claimed that the flight testing campaign that utilized the model had successfully demonstrated several key characteristics of the aircraft, including:

  • Fully autonomous VTOL to wingborne missions; the missions were fully preprogramed to execute VTOL and high speed flight and they can be customized using simple interfaces such as a tablet.
  • Hovering and maneuverability in flight, per mission input or manually.
  • Transitions from and to hovering from speeds exceeding 100 mph.
  • Dynamic characteristics of aircraft in hover and wingborne modes for further analyses.

This model was fully electric, employing batteries as a source of power and electric fans as the means of propulsion. The company reports plans to use thrusters and a turbo-compressor for later models, but has taken meaningful strides in demonstrating their claim that the J200 is capable of fully electric flight.

In January 2020, Jetoptera reported a partnership with Honeywell aimed at the adoption of fluid propulsion systems in the defense market, and in March of 2021 the company was awarded contracts from the U.S. Air Force to test the noise characteristics of the aircraft and prove that their fluid propulsion system was capable of producing “specific lift force levels similar to those of a rotor-wing aircraft, yet without moving parts”.

About Jetoptera

Jetoptera’s vision is to create a world where aerial mobility is commonplace for both cargo and people. We have developed a unique propulsion system integrated with a novel airframe. This allows us to create lighter, more efficient, and less complex aircraft. Our technology enables vertical and short takeoff and landing (V/STOL), high speeds, sizable payloads and range, and maneuverability.

‘This is for you, world’ – the marketing campaign for the EQS

Concept and objectives

‚This is for you, world‘ – die Marketingkampagne zum EQS // ‘This is for you, world’ – the marketing campaign for the EQS

  • The EQS is the first model in the Mercedes-EQ family to be based on the modular architecture for luxury and executive-class electric vehicles. It marks an important milestone in Ambition 2039 – the path to the CO2-neutral mobility of the future at Mercedes-Benz.

    ‚This is for you, world‘ – die Marketingkampagne zum EQS // ‘This is for you, world’ – the marketing campaign for the EQS

  • For the first time, a marketing campaign starts at the same time as a world premiere – in a uniform look. The campaign translates the EQS’s seemingly magical fusion of technology, design, functionality and connectivity into a surreal look that challenges the reality we know. The campaign breaks with conventions and works with a mix of abstract art and fashion that stimulates visually.

“We are particularly pleased to launch an integrated marketing campaign for the first time synchronized at the world premiere of the EQS,” says Bettina Fetzer, Head of Marketing Mercedes-Benz AG. “With this extraordinary staging, we want to combine sustainable mobility with an emotional and luxurious brand experience and further strengthen the fascination for our electric Mercedes-EQ models.”

‚This is for you, world‘ – die Marketingkampagne zum EQS // ‘This is for you, world’ – the marketing campaign for the EQS

BUGATTI CHIRON PUR SPORT receives high marks in north america

BUGATTI CHIRON PUR SPORT RECEIVES HIGH MARKS IN NORTH AMERICA

Following its virtual debut last year, the Chiron Pur Sport has arrived in the United States. Limited to only 60 units, the newest production model from Bugatti is a pure driving machine designed for increased agility and handling – an uncompromising hyper sports car created for corners.

“The Pur Sport offers U.S. customers a new dimension of the Chiron that doesn’t require the Autobahn to fully experience,” said Cedric Davy, Chief Operating Officer of Bugatti of the Americas. “We now have the car for those customers who have been waiting for a Chiron geared more towards agility and dynamic cornering.”

In the short time the Pur Sport has been in the United States, it has earned top marks from some of the country’s most prominent automotive publications:

“The Bugatti Chiron Pur Sport is the best car I’ve ever driven. Period. Full stop. End of story. It just is.” – Motor Trend

“Less weight, more grip, and shorter gearing make the Pur Sport an even wilder Bugatti Chiron.” – Car and Driver

“The Bugatti Chiron Pur Sport Is Worth Every Penny. Your $4 million car better be good, and this Bugatti delivers.” – Autoweek

In addition to rave reviews by journalists, the Chiron Pur Sport left a lasting impression on 24 Hour of Le Mans class winner and longtime Bugatti test driver Butch Leitzinger while testing in Southern California. “The seamless marriage of agility and brute force give the Pur Sport abilities that are unmatched, not only by any other car, but also by any other Bugatti.”

The Pur Sport has a starting price of $4 million and features a W16 engine that generates 1,500 horsepower and 1,180 lb.-ft. of torque.

For more information, please visit https://www.bugatti.com/discover-chiron-pur-sport/

Gordon Murray Automotive reveals the T.50s

Gordon Murray Automotive reveals the T.50s Niki Lauda with the mission to deliver an on-track experience like no other car in history

• All-new T.50s Niki Lauda revealed: designed and engineered to offer “an on track experience like no other car to date.”
• Production limited to just 25 cars
• Designed, engineered and developed in parallel with the groundbreaking T.50 supercar
• Hundreds of components changed to optimise the car for track use
• Engineered without compromise, weighing just 852kg
• Powered by a 725bhp naturally aspirated V12 engine which weighs only 162kg and revs to 12,100rpm
• Named after legendary three-time F1 world champion and Gordon Murray’s former Brabham teammate, Niki Lauda
• Car unveiled on Niki Lauda’s birthday
• Offers a unique and highly personalised ownership experience, witheach chassis named after one of Gordon Murray’s grand prix victories Gordon Murray Automotive has unveiled its T.50s Niki Lauda track-focused supercar for the first time. Developed in parallel with the T.50, the most driver-centric supercar ever built, the T.50s Niki Lauda has been conceived, designed and engineered to offer the ultimate on-track driving experience. Like the T.50, the T.50s Niki Lauda has been designed and engineered without compromise but with an even more extreme specification. It weighs just 852kg and will be powered by a substantially redesigned version of the T.50’s Cosworth-engineered 3.9-litre V12, producing 725bhp, revving to 12,100rpm and going through a newlydesigned Xtrac six-speed paddle-shift gearbox. Advanced aerodynamics, aided by a 400mm rear-mounted fan, will produce up to 1500kg of downforce for optimum track
performance.

Just 25 T.50s Niki Lauda’s will be made, costing £3.1m (before taxes). Production will start in January 2023 at Gordon Murray Automotive’s Manufacturing centre in Dunsfold, Surrey, UK, after the run of 100 T.50 supercars is completed. Professor Gordon Murray CBE: “The T.50 is the ultimate road-going supercar, but I always dreamed of taking it one step further… to build a version that will deliver an ontrack driving experience like no other car in history. “When we created the McLaren F1 GTR it was developed from the F1 road car. From its inception the T.50s Niki Lauda, though, was designed in parallel with the T.50. For the T.50 our target was clear, to make the best driver’s car for the road. With the T.50s Niki Lauda it was equally clear, to make it the best driver’s car for the track. Putting it another way, we asked ourselves what would be the coolest thing to drive on track and create a track driving experience like no other car in history?”

“We had no interest in achieving the ultimate lap time or creating an over-tyred and over-downforced spaceship at the expense of driver involvement, because ultimately you have to possess an F1 driver level of skill and fitness to get the best out of them.” “Instead, I laid out some parameters to create the ultimate driver’s car and experience on track: a central driving position, a V12 just behind your ear revving to over 12,000rpm, producing over 700 horsepower and with an even faster response time than Vthe T.50, downforce limited to 1500kg and a weight of under 900kg. Plus the ability to turn up at any track, make a few basic checks and have fun, without the need for an
entire support crew.

“In my view it doesn’t get better than that and is driving in its purest form. The T.50s Niki Lauda will give a visceral connection between driver, car and track, the like of which has
not been experienced to date. “I can just imagine going round your favourite circuit, sitting in the middle with that unsilenced V12 screaming just behind you – the driving experience will be something special. With a power to weight ratio better than that of a naturally aspirated LMP1 car, it is also going to be searingly quick and, with such a low weight, will change direction like
an F1 car.

“With the direction of travel of the automotive industry, it’s hard to imagine that there will ever be another car quite like this. Especially not one with a central driving position, a
high revving naturally aspirated V12 engine and that is so lightweight. I believe it will go on to define its era.”

Design
Gordon Murray and the team have worked hard on the T.50s body design to achieve their aerodynamic performance targets, whilst retaining the T.50’s balanced and classic
proportions.

The dramatic aerodynamic features of the T.50s Niki Lauda instantly give away its performance potential. A striking central fin designed to enhance stability features a Niki
Lauda logo. At the rear, the distinctive 400mm fan from the T.50 is retained, accompanied by an even larger rear diffuser and a new delta wing. The rear grille features a T.50s badge and ‘Fan Car’ script.BThe aerodynamic elements continue at the front of the car. Barge boards are sculpted to improve airflow to the side ducts, which house the oil cooling systems for the engine and
transmission. A splitter and dive planes are also prominent and further reflect the car’s aero-influenced design. At the same time, the purity of the T.50 is not lost, creating a purposeful yet elegant look.

Owners will be able to individualise their T.50s through their choice of colours and liveries, so that no two cars will be alike. Professor Gordon Murray CBE: “The styling of the T.50s is completely aero driven, but still attractive. There’s not one body panel carried over from the T.50, but the road car has such a strong and classic shape that it still manages to shine through.”

Engine and transmission
The Cosworth-designed 3.9-litre V12 engine is a dramatically different version of the engine that powers the T.50. It is even more powerful and faster-revving too, delivering 711PS at 11,500rpm, on its way to a 12,100rpm rev-limit. At 178hp/litre, the specific power output of the T.50s Niki Lauda’s V12 exceeds that of the all-conquering Cosworth DFV Formula One engine. The power-to weight ratio of 835PS/tonne betters that of a naturally aspirated LMP1 car.

The T.50s Niki Lauda’s engine is fed by a newly-designed, roof-mounted, highperformance RAM induction airbox (which can increase maximum power to 725bhp). The maximum torque figure is 485Nm, produced at 9,000rpm. A newly-developed, bespoke, straight-through exhaust system also takes the engine sound to a new level. Right through the rev-range it promises to be one of the greatest and most characterful sounding cars ever made.

The state of the art V12 pushes the boundaries of engine design even further, with many new components. Changes include completely revised cylinder heads and camshafts,
plus a higher compression ratio of 15:1. Through meticulous attention to detail, this new iteration of the Cosworth GMA V12 weighs just 162kg, 16kg less than what was already the lightest road-going V12 engine ever. The weight-saving measures extend to the intake, exhaust and control systems, as well as the engine itself. All the valves are made from titanium, while there is no variable
valve timing due to the additional weight of the geartrain and electronic control system.

A simpler induction system features 12 throttle bodies on top of the engine, fed directly by the racing-style air box. The exhaust system does without catalytic converters, has
thinner Inconel walls and, with only track noise limits to meet, benefits from smaller silencers.

A bespoke Xtrac IGS (Instantaneous Gearshift) six-speed paddle shift gearbox is fitted, designed to fit the exacting packaging and weight demands of the T.50s. As part of Xtrac’s efforts to minimise weight wherever possible, even the gears are lighter, contributing to a 5kg total weight reduction. Both the gearbox and the clutch are electronically actuated. Ratios have been chosen to optimise on-track performance and driver enjoyment and engagement, delivering a top speed of approximately 200-210mph. A set of closer ratios optimised for shorter circuits will also be offered, allowing owners to make the most of all six gears via the steering column-mounted paddles. In this configuration, the T.50s Niki Lauda will reach around 170mph flat-out.

Chassis, body and suspension

The T.50s Niki Lauda is built around a specially developed, lightweight carbon fibre monocoque. Optimised for weight reduction and structural rigidity, it is constructed using advanced part-binding technology, with carbon fibre wrapped around a honeycomb aluminium core. This stiffness and strength also contributes to the T.50s’s exceptional occupant safety, with precisely engineered deformable areas. Passengers are further protected by an F1- style ‘passenger safety cell’. Exterior body panels, all unique to the T.50s, are also made from ultra-lightweight
carbon fibre. Windows and screens use glazing that has been further reduced in weight from the road car specification. For exceptional levels of confidence inspiring on-track dynamics, the T.50s Niki Lauda utilises the same forged aluminium front and rear double wishbone suspension system as the T.50. However, the springs, dampers and anti-roll bar have been respecified to optimise track performance, while the ride height has been lowered to 87mm at the front and 116mm at the rear.

As part of the Trackspeed package, the T.50s Niki Lauda’s chassis can be adjusted to find the ideal setup for its owner. Both the chassis settings and the aerodynamics are
fully adjustable.

Steering
The T.50s Niki Lauda retains the T.50’s rack and pinion steering, but with a revised steering ratio.

Brakes
The Brembo carbon ceramic discs of the T.50 are carried over to the T.50s Niki Lauda (370mm x 34mm front/340mm x 34mm rear), with six-piston front callipers and fourpiston rear callipers. The braking system and aerodynamics combine to produce incredible deceleration of 3.5G. To ensure the brakes maintain their phenomenal performance throughout a track session, new ducting around each wheel is designed to improve brake cooling.

Wheels and tyres
The T.50s sits on unique and exceptionally light magnesium forged 18-inch wheels, weighing less than 6kg each, with Formula One-style lightweight wheel hubs and a centre lock attachment. The wheels are wrapped in Michelin slick tyres, measuring 250mm wide at the front (25/64 18”) and 300mm wide at the rear (30/68 18”). A wet option is also provided.

Aerodynamics

The T.50s Niki Lauda has completely new aero, which combines to create 1500kg of downforce. This includes a new 1,758mm-wide, rear-mounted delta wing, the design of which was inspired by the front wing on Murray’s 1983 Brabham BT52 Formula One car and is just as effective today as it was then. The front of the T.50s features a splitter with a central aerofoil section, which generates huge load figures to balance out those from the rear wing. The splitter’s central channel reduces the car’s sensitivity to pitch while allowing airflow under the car to continue to
drive the central diffuser section, keeping the efficiency of the entire aero package high.

Dive planes include horizontal elements paired with a vertical duct to manage wheel arch pressures and tyre wake, reducing drag and improving efficiency. A pair of NACA ducts have been perfectly positioned on the front clam shell in a region of high pressure and where the thin boundary layer is ideal for cooling the large front brakes. A central fin stretching from the top of the roof to the rear lip of the car has also been added for increased yaw stability. The large vertical face is presented to the airflow during high-speed cornering and helps counteract the momentum of the car towards the outside of the corner.

To further improve airflow and accommodate the central fin, the oil cooling systems for the engine and transmission are now located in side ducts. By placing these systems
lower in the car, this helps to optimise its centre of gravity.

With the powertrain coolers located directly downstream of the front wheels, barge boards have been added to manage the turbulent wake emanating from the front wheel
arches, ensuring a clean flow of air to the side ducts.

The T.50s Niki Lauda retains the same 400mm ground-effect fan as the T.50, but here it runs in a single High Downforce mode, spinning at 7000rpm. The T.50s also has much
simpler ducting, with a permanently open duct running down to the redesigned rear diffuser.

Like the chassis, the T.50s Niki Lauda’s aerodynamics can be adjusted to suit its owner’s preferences, adding or removing downforce as required. To balance the car’s aero, the front diffusers are adjustable, as is a slotted flap on the rear wing. The highspeed balance can be further honed through changes to the car’s ride height.
In the optimum configuration, when a particular race circuit demands it, up to 1500kg of downforce will be achievable. However, the car’s aerodynamics have been carefully
designed to ensure that the T.50s Niki Lauda’s performance remains accessible and exploitable regardless of the driver’s experience.
Professor Gordon Murray CBE: “When we first ran the CFD we were already ahead of our downforce target. At one point we were achieving 1,900kg of downforce, but we
backed it off to 1,500kg to make the car more manageable for the owners.”

Interior
The dihedral doors lift to reveal a race-car oriented cabin. The T.50s Niki Lauda retains the driver-focused central seating position of the T.50, giving the driver an unhindered view of the track ahead and allowing perfect placement. The driver sits on a full racing carbon fibre seat with fore and aft adjustment, and is secured with a six-point harness. The T.50s is a two-seater with a fixed passenger seat to the left of the driver, complete with a four-point harness. In place of the seat on the right is a fire extinguisher system. Occupying the space formerly taken up by the passenger footwell is a vertical switch gear panel similar to that found on the legendary McLaren F1 GTR. Should the owner wish, the car can be ordered without a passenger seat to save further weight and create an even more focused feel.

The rectangular carbon fibre steering wheel is a lesson in simplicity, featuring only the key controls that the driver needs. This includes buttons for the traction and launch control, as well as the car-to-pit/driver-to-passenger radio and to select neutral. The slim, uncluttered design is influenced by Murray’s racing experience. Professor Gordon Murray CBE: “I used to make my drivers take their watches off, partly for weight, but also because it adds to the steering inertia. Big wheels with lots of switches are quite heavy from a steering inertia point of view, so for the T.50s I wanted
to keep the wheel small, clean and simple.” To avoid unnecessary distractions, the T.50s features a single digital screen. This displays essential vehicle and engine data, as well as aero info, the gearchange indicator, telemetry, lap time, tyre pressures/temperatures, G-forces and a camera video feed.

Driver comfort was another priority for Murray when designing the T.50s, which maintains the same spaciousness and visibility as the road car. This makes the T.50s Niki Lauda a uniquely usable track car, despite its incredible performance. Professor Gordon Murray CBE: “Engineering the ultimate track-focused supercar has to start with the driver. It was essential that we retained a central driving position, with every control arranged within easy reach and with no distractions or unnecessary information on display. And in my opinion, you don’t get a better view than that from the central driving position and one which allows you to place the T.50s Niki Lauda with millimetre precision on any circuit. You are left with nothing to take away the purepleasure of pushing this car as hard as you can on your favourite race circuit.”

“Racing drivers are often uncomfortable, they just put up with it because they’re trying to win a race. The McLaren F1 had a really nice driving position and good visibility and I think that helped the guys at Le Mans because it made it more comfortable for them. In the T.50s, the driving position ergonomically is just about as good as it gets. This is a
car you can drive all day.”

Named after a racing legend
The T.50s Niki Lauda has been named after legendary three-time Formula One World Champion, Niki Lauda. Professor Gordon Murray CBE: “The T.50s is named in honour of Niki to commemorate his famous win with the Brabham BT46B fan car in the 1978 Swedish Grand Prix. Niki was a great racing driver and he was also a good friend and it is absolutely fitting that
we are launching the T.50s Niki Lauda on his birthday. Niki would have appreciated the innovation and engineering detail in our car.”

The Lauda family said: “We are proud that Gordon Murray Automotive has named its new car after Niki. He would have been extremely honoured to have been associated with a car designed and engineered by Gordon, with whom he had such a long association and friendship.” Each chassis to be named after one of Gordon Murray’s F1 race wins Additionally, each of the 25 cars’ chassis will be individually named after one of Gordon Murray’s grand prix wins on different circuits. The first car will be designated Kyalami 1974 and further cars will be named after the 24 subsequent wins, in chronological order. Each car will also come with a specially commissioned book about the race that it is named after, with Murray’s view and memories of the victory.

Professor Gordon Murray CBE: “Each car will carry its own individual story, being forever linked to the grand prix victory it is named after. The T.50s is inspired by my love of motorsport, so it seemed entirely fitting to create this special connection to iconic races from the past.”

Customer experience
T.50s Niki Lauda buyers will receive a bespoke and personalised service, from the first expression of interest, through the specification, manufacturing and handover periods, as well as throughout the entire duration of their ownership. Each of the 25 individually specified cars will be unique, both in terms of setup and in the choice of colours and liveries.

A Trackspeed package will also be included which comprises both engineering support and all the equipment needed to run the car at a track, including a full set of pit tools and
refuelling equipment. Customers will be invited to a track day to have both chassis and aerodynamics set-upfor them to suit their driving style and experience. Owners will also benefit from a day’s
on-track tuition in the T.50s Niki Lauda to enable them to get the most from their car, and there will be a day’s tuition for the owner’s nominated technician to help them
prepare the car for track driving days. Additionally, there will be ongoing engineering support to allow owners to run their car at events and track days around the world. Gordon Murray Automotive is planning its own special events for T.50s Niki Lauda owners in future.

Gordon Murray Automotive are working closely with Stefan Ratel and his SRO organisation towards creating a GT1 sports club, which will provide exclusive track days aligned with the GT World Challenge Europe events on some of Europe’s most prestigious circuits. This is a first step with a view to creating a future supercar race
series.

Professor Gordon Murray CBE: “It was essential to me that the T.50s Niki Lauda is easy to live with and enjoy. You will own the car, you will be completely in control of where
and when you enjoy it. My vision is that owners will take it to a circuit, check the tyre pressures, climb in, fire it up and have fun. That’s the way it should be.”
-EndsAbout

Gordon Murray Automotive

Gordon Murray Automotive creates exclusive low volume sports cars – the T.50 supercar will be the brand’s first model with customer cars built from January 2022. Its sister car, the
T.50s Niki Lauda goes into production one year later The company is a sister company to Gordon Murray Design and was first announced in November 2017 during an exhibition,
named ‘One Formula’, which celebrated Murray’s 50 years of car design.

About Professor Gordon Murray, CBE
Having spent 20 years as Technical Director to two Formula One teams from 1969-1990 Gordon Murray has a wealth of technical, design and engineering experience. At Brabham he was instrumental in two world championship wins (1981 and 1983) before three consecutive championship wins with McLaren Racing (1988, 1989 and 1990). In 1990 – after 50 Grand Prix wins – Gordon moved away from Formula One to concentrate on establishing a new company for the group, McLaren Cars Limited.

His first project there, the F1 road car, is still regarded as one of the world’s best-engineered cars. A racing version won two world sports car championships and the Le Mans 24-hour
race in 1995. McLaren Cars then completed several other successful projects culminating in the Mercedes-Benz SLR McLaren. Gordon left McLaren in 2005 to set up a Gordon Murray Design Ltd (in 2007), of which he is Chairman. The innovative British company is a world leader in automotive design, and reverses the current industry trend for sub-contracting by having a complete in-house capability for design, prototyping, and development.

In 2017, Gordon Murray Design celebrated the company’s 10-year anniversary along with that of the iStream® manufacturing process at a special event, named ‘One Formula’. Gordon also marked the 25th production anniversary of the McLaren F1 road car, and his 50th year of design and engineering.

In May 2019, Professor Murray was made a Commander of the British Empire (CBE) by the Duke of Cambridge, Prince William, in recognition of his contributions to the motorsport and
automotive sectors over the past 50 years.

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Media contact
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Sales enquiries
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enquiries@gordonmurrayautomotive.com
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“Porsche Unseen” provides a glimpse of unreleased concept cars

“Porsche Unseen” provides a glimpse of unreleased concept cars

Stuttgart, Germany. Under the title “Porsche Unseen”, Porsche is for the first time publishing design studies from 2005 to 2019 which have until now been kept under lock and key. The sports car manufacturer is showing spectacular visions of 15 different cars. The early studies cover the segments “Spin-offs“, “Little rebels“, “Hyper cars“ and “What’s next?”. In this way, Porsche is offering an exclusive insight into its design process – from the very first drawing to the finished model ready for series production.

“Porsche Unseen” provides a glimpse of unreleased concept cars

“Porsche Unseen” provides a glimpse of unreleased concept cars

“People all over the world love the timeless and innovative design of our sports cars,” says Oliver Blume, Chairman of the Executive Board at Porsche AG. “Visionary concept studies are the foundation of this success: they provide the pool of ideas for the Porsche design of tomorrow, and combine our strong tradition with trailblazing future technologies.”

“Porsche Unseen” provides a glimpse of unreleased concept cars

“Porsche Unseen” provides a glimpse of unreleased concept cars

The previously unpublished design studies are being presented exclusively by the Porsche Newsroom in a series of articles. The 911:Magazine web TV format has also dedicated an episode to selected studies and examines the connection between the studies and the current production models together with Porsche Chief Designer Michael Mauer. For fans of the brand, the book entitled “Porsche Unseen” is released today by the Delius Klasing publishing house. Interested readers are given a detailed look behind the scenes of Style Porsche. A selection of studies will also be on display later for fans to admire live: the Porsche Museum will be integrating the models in the exhibition in 2021.


The design process: from the first drawing to the drivable prototype
The design process starts with a sketch. This is visualised in the next step as a 3D model. As soon as an idea is to be developed further, small models are produced in a scale of 1:3, then followed by hard models in the scale 1:1. “The virtual world is the first step, but you especially have to experience the unusual models in reality in order to understand whether a car has small, large or surprising proportions,” says Michael Mauer, Vice President Style Porsche. In contrast to the development of a production model where several models are always developed with different styling formats, the vision projects, on the other hand, concentrate on a single vision model which serves as a protagonist for the central idea.


“Porsche intentionally has just a single design studio – located in the direct proximity of development,” says Michael Mauer. “Weissach is our epicentre. Instead of opening advanced design studios in the distant metropolises of North America and Asia, our designers come from all over the world to Porsche in Weissach in order to create the latest production sports cars and automotive visions at the heart of the brand. More than 120 designers, experts for interior, exterior, colours and materials, model builders, modellers and study engineers work in the Porsche Design Studio.

“Porsche Unseen” provides a glimpse of unreleased concept cars

“Porsche Unseen” provides a glimpse of unreleased concept cars

The design studies: on a journey of the mind into the future of mobility
“When it comes to the visions we develop, it is not about bringing every car onto the road. Instead, it is more a question of establishing creative space and a relationship with the future,” says Michael Mauer when describing the design process and adds: “There are two possibilities for continuing to develop as a brand: either you improve your products from the present, that is to say step-by-step. However, it is difficult to be really innovative in this process. Or you give free rein to your creativity. The idea is to let your thoughts jump to the day after tomorrow, and to then move back from there to tomorrow.”

Based on this idea, Porsche develops the product and brand identity which characterises and secures the appearance of all models in the long term. The design language for future models develops from the long-term vision. In this process, the higher-level goal is to combine the Porsche design DNA with state-of-the-art vehicle engineering. On the one hand, this secures the innovative capability of future Porsche models and, on the other, also provides an evolutionary reference to the rich history of Porsche. A closer look at some examples:

The Porsche 919 Street (2017; 1:1 clay model) was developed on the basis of the technology used in the Porsche 919 Hybrid, promising to make the exhilarating driving experience of the LMP1 race car available to amateur drivers. Under the outer shell are the carbon monocoque and powerful 900 PS hybrid racing drivetrain that helped the Porsche 919 to achieve numerous victories at Le Mans. The dimensions and wheelbase were also the same as on the race car.

With its spartan, puristic cockpit, the characteristic radiator grilles over the mid engine, red graphic elements and the suggested fins at the rear, the compact Porsche Vision Spyder (2019; 1:1 hard model) clearly calls to mind the Porsche 550-1500 RS Spyder from 1954. At the same time, the study was intended to further develop the design identity of Porsche and provide a pool of ideas for future details – for example, the ultra-modern roll bar.


The Porsche vision “Renndienst” (2018; 1:1 hard model) is the free interpretation of a family-friendly space concept for up to six persons. The design team designed a futuristic “space shuttle“ with exciting proportions. The study shows how the Porsche design DNA with its characteristic surface modelling can be transferred to an unknown vehicle segment for the brand. In the interior, passengers find a comfortable and modular travel cabin. The driver sits in a central driver’s seat. The all-electric drive technology is located in the underbody. As a result, passengers can enjoy an unexpectedly generous space and travel experience combined with Porsche-like flair.

The book “Porsche Unseen” is now available from retailers with the ISBN number 978-3-667-11980-3. The design studies are presented in detail over 328 pages with impressive photos from Stefan Bogner and informative text by Jan Karl Baedeker. It is published by Delius Klasing Verlag and is also available in the Porsche Museum shop.

The-new-Mercedes-Maybach-S-Class-Exterior-design

Exterior design of the new Mercedes-Maybach S-Class

The new Mercedes-Maybach S-Class: Exterior design

Well-balanced proportions and many exclusive details

The Mercedes-Maybach S-Class expresses the superlative luxury that is the hallmark of the brand. It is a well-conceived combination of sublime beauty and trailblazing technology. It has an 18 centimetre longer wheelbase than the long Mercedes-Benz S-Class. Plus a number of exclusive features.

The Mercedes-Maybach S-Class is a classic three-box saloon with perfect proportions. These are determined by a short front overhang, the longest wheelbase in this model family, a well-balanced rear overhang and large wheels.

Distinguishing features at the front include the distinctive bonnet with a chromed fin and the Mercedes-Maybach radiator grille. This is highly recognisable by its vertical, three-dimensional trim strips. The word mark MAYBACH is elegantly integrated into the chrome surround of the grille. The equally distinctive bumper further emphasises the vehicle’s width with the shape of its air inlets, whose black mesh is also optionally available in chrome.

The Mercedes-Maybach S-Class also differs from its brother models when viewed from the side: The rear doors and flowing, more upright C-pillars underline the model’s superlative status. The fixed quarterlight in the C-pillar is framed by a high-quality surround that seamlessly blends into the side trim. Exclusivity is emphasised by the Maybach brand logo on the C-pillar. In some countries the brand logo is illuminated. The side view is characterised by flush-fitted door handles and 19, 20 or 21-inch wheels specially designed and reserved for this model. The optional ambient illumination projects the brand logo next to the opened front doors in LED technology.

The luxury saloon has the progressively designed, two-section rear lights of the new S-Class generation. Additional lights in the precisely laid-out interior, as well as partly animated functions, also make the Mercedes-Maybach unmistakable at night. The model-specific rear bumper and exhaust tailpipes also lend uniqueness to the rear view.

As well as non-metallic, metallic and designo paint finishes, the range of paintwork for the Mercedes-Maybach additionally includes two-tone finishes with a fine, hand-painted dividing line known as the pin-stripe (see “Under the microscope”). This particularly reinforces the extraordinary hand-built impression.

The new Mercedes-Maybach S-Class: Under the microscope: Two-tone paintwork

One week for the second colour

On request, the exclusive appearance of the Mercedes-Maybach S-Class can be enhanced by a two-tone paint finish with dividing line. This is applied by hand according to the highest quality criteria. It can take up to one week before the vehicle is returned to the regular production process from the custom paintshop.

Even a two-tone Maybach begins its painting process in regular production. In the paintshop, the bodyshell is automatically and electrostatically given a full coat of paint in the colour that will eventually embellish the lower half of the body – plus a layer of clearcoat. In the electrostatic painting process, statically charged paint particles are atomised and deposited on the (earthed) bodyshell.

The bodyshell is then sent to the custom paintshop. Once there, the entire bodyshell is ground to a matt finish by hand. Thorough cleaning is followed by the first, particularly demanding work stage: masking off. As the designers did not position the dividing line between the upper and lower paint finishes in a recess or below a trim strip, this requires extremely precise hand-painting. A special adhesive tape with a corresponding gap is used to apply the only four‑millimetre wide dividing line between the two colours.

As an interesting detail, the doors are weighted with weights before masking the dividing line. This is to simulate the effect of subsequent interior finishing with windows, power window fittings, loudspeakers, panelling and other technical equipment. This allowance ensures that the dividing line along the side and doors will later be at exactly the same height.

All the surfaces that will later bear the lower colour are masked off. These also include the transitions to the interior, e.g. at the doors or wheel arches – even where trim or a lining will later be installed. This too is part of the dedication to quality.

The exposed parts of the body are now completely painted by hand. Pneumatically atomised by compressed air, the paint is applied so that it presents the same picture as after electrostatic painting – this is important because removable parts installed later on, e.g. the bumpers, must precisely match the paint finish. Before the new base coat has fully dried, the masking tape is carefully removed without damaging the edges. The complete bodyshell is then given a new coat of clear varnish.

This has to happen within a very short time window, so that the edges between the paint coats blend into each other and cannot be felt afterwards – unlike competitors, where the dividing line is painted on. If the experts in the custom paintshop are not satisfied, the complete bodyshell is reground, the topcoat is re-finished and the whole bodyshell is given a clearcoat. All in all, the process including the necessary drying times can take up to one week.

The following colour combinations from the Mercedes-Maybach paint chart are available, the choice being dictated by whether the upper colour can fully cover the lower colour:

Lower colour Upper colour
designo diamond white bright obsidian black
high-tech silver selenite grey
obsidian black selenite grey
nautical blue high-tech silver
rubellite red designo kalahari gold
onyx black designo kalahari gold
obsidian black high-tech silver
obsidian black rubellite red
emerald green Mojave silver
Mojave silver onyx black

 Bugatti developed an extreme, track-focused hyper sports car with an unprecedented weight-to-power ratio of only 0.67 kg per PS?

Reduced, raw, authentic. With the technological concept of the Bugatti Bolide1, the French luxury car manufacturer is now providing the answer to the question what if Bugatti built a radically light vehicle around its iconic 8.0-litre W16 engine? The experimental study of the Bugatti Bolide is a track-oriented hyper sports car featuring a W16 engine derived from series production as powertrain combined with a minimal body for maximum downforce. It therefore promises to offer the ultimate Bugatti performance kick.

The idea – what if? An experiment.

“Bugatti stands for the continuous quest for technological innovations – in alignment with the company’s brand values of excellence, courage, dedication. And Bugatti never stands still. We are perpetually aiming for new and exciting goals, and the question that we always keep in mind is: what if?” says Stephan Winkelmann, President of Bugatti.

“We asked ourselves how we could realise the mighty W16 engine as a technical symbol of the brand in its purest form – with solely four wheels, engine, gearbox, steering wheel and, as the only luxury, two seats. Important aspects of our considerations were fine-tuning our iconic powertrain without any limitations as regards the weight-to-power ratio. These considerations resulted in the Bugatti Bolide. An uncompromising experiment, a thoroughbred, a Pur Sang that, in its brute exclusivity, impresses above all with high performance, low weight, and a driving experience in a whole new dimension. Driving the Bolide is like riding on a cannonball.”

The technology – powertrain designed specifically for the racetrack

“The Bolide is the ultimate answer to the question of what if Bugatti built a track-focused hyper sports car that met the FIA’s safety requirements. Designed around the W16 powertrain with the minimum body structure and unbelievable performance data. The result: the smallest possible shell for a breathtaking performance vehicle that allows the W16 to truly come into its own,” explains Stefan Ellrott, member of the Board of Management of Bugatti and Head of Technical Development. “All of Bugatti’s expertise has been condensed into the Bugatti Bolide. It is therefore an innovative information source for future technologies. The Bolide is thus more than just an intellectual exercise.

“In terms of technology and organisation, the Bolide was one of the most ambitious projects of my career,” says Frank Götzke. After playing a crucial role in the development of the Veyron 16.4 and the Chiron, the engineer was also responsible for the technical concept of the Bolide. In only eight months, he created a completely new vehicle around the well-known Bugatti W16 all-wheel powertrain, which was highly modified for the project.

The 8.0-litre W16-cylinder engine with 1,850 PS and 1,850 newton-metres of torque is at its heart. Bugatti has designed the drive specifically for use on the racetrack and has optimised the engine and gearbox in particular for higher engine speeds. Among other things, this includes dethrottling the intake and exhaust system to achieve an even faster, more spontaneous, and extreme response characteristic. The four newly developed turbochargers are fitted with optimised blades in order to build up more boost pressure and power at higher engine speeds. In order to achieve optimum lubrication even under extremely high centrifugal forces, the oil circuit, oil pressure, check valves, baffles, oil tanks, oil reservoirs, and pump design of the dry sump lubrication have been optimised. The weight of the drive system is also significantly reduced at the same time.

Instead of water-to-air intercooling, the Bugatti Bolide has air-to-air intercooling with water pre-cooling for optimal performance on the racetrack. The inflow takes place from the front via one internal and one external air duct on each side of the vehicle. The two water coolers, which are arranged in front of the front axle, provide a more effective radiator system in terms of flow than is customary even in Formula 1. Three air-cooled oil coolers for engine, transmission, and differential with water pre-cooling reduce the temperature even on dynamically demanding race laps. Newly developed and hybrid carbon titanium turbofan radial compressors ventilate and cool the high-performance racing brake system.

1,850 PS and 1,240 kilograms – weight-to-power ratio of 0.67 kg/PS

In order to achieve a dry weight of 1,240 kilograms, all the stops have been pulled out with regard to the materials and production processes used, both in terms of what is currently feasible and what will be possible in the future.

All the screw and fastening elements of the Bolide are made completely out of titanium. In addition, hollow, thin-walled functional components made of an aerospace titanium alloy are used in many places. These originate from a 3D printer and are extremely thin with wall thicknesses of up to 0.5 millimetres. However, they are still very stable with a tensile strength of 1,250 newtons per square millimetre. Hybrid components, such as the 0.5- metre-long auxiliary drive shaft, combine wound high-strength and ultra-stiff carbon fibres with 3D-printed titanium end fittings and can withstand a continuous operating temperature of up to 260 degrees Celsius. In this example, this reduces the weight by around half to 1.5 kilograms and, due to the reduction of the rotating masses, increases the revving ability of the engine at the same time. The forces acting on the front and rear wings are transferred by ultralight but very solid titanium elements. They weigh a mere 600 grams at the front and an astounding 325 grams at the rear.

A worldwide innovation is the morphable outer skin of the intake scoop on the roof, which provides active airflow optimisation. If the vehicle is driven at a slow speed, the surface of the scoop remains smooth. In contrast, a field of bubbles bulges out when driven at fast speeds. This reduces the aerodynamic drag of the scoop by 10 percent and ensures a 17 percent reduction in lift forces. In addition, the flow onto the rear wing is optimised. At 320 km/h, the downforce is at 1,800 kilograms at the rear wing and 800 kilograms at the front wing.

As in Formula 1, the Bolide decelerates with racing brakes with ceramic discs and coatings. The brake callipers weigh only 2.4 kilograms each. The front forged magnesium rims with central lock weigh 7.4 kilograms, while the ones at the rear weigh 8.4 kilograms – with a very wide tyre size of 340 millimetres on the front axle and 400 millimetres on the rear axle (Chiron: 285 mm at the front and 355 mm at the rear). A compressed-air-driven jack system with four rams makes tyre changing easier, a quick refuelling system allows pressure refuelling.

Among other things, a push rod kinematics system with horizontal dampers ensures precise handling. The oil reservoirs are arranged inside the dampers, which improves aerodynamics. Weighing only 100 grams, the push-rods are designed as a thin-walled and flow-optimised titanium lightweight construction with a buckling load of 3.5 tonnes, which corresponds to a dry weight of nearly two Chirons. The welded control arms made of aerospace-grade stainless steel have a tensile strength of 1,200 newtons per square millimetre and are also designed as wing profiles.

Light monocoque made of carbon

The Bugatti team developed a light monocoque made of carbon around the drive. The integral front end flanged to it is also made of high-strength carbon fibres, as are the fully aerodynamically effective underbody and the monocoque itself. The single-fibre tensile strength of the fibres used is 6,750 newtons per square millimetre, the single-fibre stiffness is 350,000 newtons per square millimetre. These represent figures that are only reached in the aerospace industry. The rear frame, designed as a welded steel assembly, offers a maximum tensile strength of 1,200 newtons per square millimetre, despite a wall thickness of only 1 millimetre – this is made possible by the use of high-strength stainless steel, which is otherwise only used in aviation.

With an overall height of only 995 millimetres, the Bugatti Bolide is exactly the same height as the historic Bugatti Type 35, depending on the steering wheel and truncated windscreen, and about 300 millimetres flatter than the Chiron. The wheelbase is 2.75 metres and the width 1.99 metres. Like in an LMP1 racing car, the occupants fold up the doors that are hinged at the front at an angle, sit on a sill that is only 70 millimetres wide, as in a Type 35, and then position their feet in the interior. Thanks to a side wall that is about 150 millimetres lower than that of the Type 35, the procedure is quick and easy – for drivers up to a body height of 2 metres.

Safety is ensured with safety equipment designed in accordance with FIA regulations. These include HANS device compatibility, an automatic fire extinguishing system, a towing device, pressure refuelling with fuel bladder, central locks for the wheels, lightweight polycarbonate windows, and a six-point harness system. The monocoque side floors with integrated carbon coolant pipes are simultaneously designed as side impact structures and structural reinforcement of the monocoque. The driver can see all the relevant data on a motorsport display. For an optimum sitting position, both the pedals and the passenger footrest can be moved by 150 millimetres.

The design – the quintessence of form follows performance

The experimental study of the Bugatti Bolide is also a very special project for Achim Anscheidt, Director of Design at Bugatti. “In my 16 years at Bugatti, I have never worked on a more extreme concept.” The design of the Bolide is radically tailored to the idea of lightweight construction, and the design principle therefore follows on from the overriding goal of achieving a fascinating weight-to-power ratio of 0.67 kilograms per PS.

“It is the very first time that my team had the freedom of creating an absolutely minimalistic design around the W16 engine. The result is the most provocative proportion of a modern Bugatti ever and the distilled quintessence of our Bugatti design ethos that form follows performance,” says Anscheidt. “The Bugatti Bolide, however, is a project more technically driven than shaped by style.”

The stylistic challenge was to transform the unyielding demands of aerodynamics and lightweight construction into an aesthetic that reflects the unique Bugatti DNA, but at the same time illustrates the ambition of an impressive weight-to-power ratio. The overall appearance is dominated by air ducts that are more reminiscent of aerodynamically sophisticated Formula 1 racing cars than classic sports cars. The seemingly filigree and half-open front end is a striking example of the combination of air duct expertise, lightweight construction requirements, and aesthetic dynamics.

The dramatic effect of the overall proportions is made clear by the aerodynamically favourable overall height of only 995 millimetres. The driver’s ultra-sporty seating permits the low-slung shape of an automotive low-flying aircraft. It is therefore not surprising that the appearance of the Bugatti Bolide invokes the so-called X-planes of aviation history and shows a clear X signature from every perspective. It is indirectly reminiscent of the Bell X-1 jet aircraft which was flown by Captain Charles “Chuck” Yeager 1947, the first person to break the sound barrier at Mach 1.06. The Bugatti Bolide “X-periment” has the shape of an aerodynamically optimised, uncompromising racing car and offers ultra-sporty, superlative performance – with no hint of luxury.

As with other Bugatti vehicles, the Bugatti design team also makes use of a colour split in the Bolide. Compared with other models, the share of visible carbon parts is increased by up to 60 percent. Only around 40 percent of the surfaces are painted – in a re-interpretation of the historic French Racing Blue.

“Fifteen years ago, Bugatti succeeded in creating a new segment with the Veyron 16.4: that of the superior hyper sports car. With the Chiron launched in 2016, we systematically developed this segment further. The models bear witness to power and elegance, uniquely combining technology, design, luxury, and quality in a hitherto unknown combination,” explains Anscheidt. “In contrast, the Bugatti Bolide is an absolute rebel. It is clear to see that its only aim is to convey the pure power of the W16 engine in a visually and technically unadulterated form. Reduced, raw, and authentic – like freshly-caught sashimi”.

The DNA – Bugatti Type 35

With the Type 35, Bugatti produced one of the most successful racing cars of all time. The open-top sports car achieved over 2,000 victories between 1924 and 1930. Today, the Type 35 is a legend in racing history. It was inimitable in terms of technology, design, and performance in its time – and still is today. Ettore Bugatti used a double roller bearing and triple ball bearing crank mechanism for the first time. This allowed the engine to rotate at up to 6,000 rpm to move the eight pistons. Two carburettors increased the power to an initial 95 PS. With this engine, the first Type 35 cars were able to reach speeds of over 190 km/h. In the later Type 35 B evolutionary models with a 2.3-litre eight-cylinder engine and compressor, the power output increased to 140 PS, and the Bugatti achieved a top speed of more than 215 km/h.

As well as their incredible power, the engines were primarily renowned for their reliability and endurance. And their lightness. Ettore Bugatti did not compromise when it came to lightweight construction and best possible driveability. He developed special smooth-running wheels to reduce the unsprung masses and, as a result, improve the response of the suspension. The new hollow-bored and forged front axle weighed only 10 kilograms and was nevertheless still stable. A race-ready Bugatti Type 35 weighed only around 750 kilograms. A masterpiece in terms of the weight-to-power ratio.

The verdict – a track-oriented thoroughbred of modern times

The Bugatti Bolide is the unrivalled technological concept of a track-focused Bugatti hyper sports car. The combination of 1,850 PS and 1,240 kilograms dry weight ensures an unbelievable weight-to-power ratio. This puts the Bolide with its W16 engine at the absolute pinnacle in terms of combustion engines used in automotive engineering. “For the first time, we are showing what the W16 engine is really capable of. We have freed the vehicle of all baggage and have illustrated and combined the engine with the lightest possible chassis to create the ultimate Bugatti and to ensure the ultimate driving experience. With the Bolide, we are presenting our interpretation of a Bugatti track car of modern times to Bugatti enthusiasts all over the world and finally make their most fervent wishes come true,” explains Stephan Winkelmann.

Whether the Bugatti Bolide will go into series production, has not been decided yet.

 

 Experience design development at Audi conveniently from home  Interactive live stream with experienced tour guides at www.audi.stream

Tour the design laboratory of Audi online with “Insight Audi Design”

AudiStream illustrates development and working methods of the design laboratories of Audi.
In the picture: Design Audi A3 Sportback

Use your smartphone, tablet or PC to explore design processes at Audi with the new “Insight Audi Design” live stream. The interactive discovery tour has now
been added to the online tours at www.audi.stream . Experienced tour guides present the “Insight Audi Design” live stream from a studio and explain the Audi design philosophy. Using video sequences, they explain how the designers work and show how the team is developing the design language of the future. The guides answer questions in dialogue and construct the roughly 20-minute live stream according to the wishes and interests of the participants. Interested parties can choose a suitable date for “Insight Audi Design” online at www.audi.stream.

AudiStream illustrates development and working methods of the design laboratories of Audi.

The interactive guided tours on AudiStream are free of charge; fees may be charged for Internet access, however, depending on the selected provider. The new “Insight Audi Design” live stream starts with presentation in German and an English version will follow.

AudiStream illustrates development and working methods of the design laboratories of Audi.

With AudiStream, Audi is the first manufacturer to offer online discovery tours. The “Insight Audi Design” stream complements the “Audi live at the Ingolstadt factory” online tour. This virtual factory tour has been offered since November 2019 and provides insights into selected production sections as well as technical highlights of the brand.

Sant’Agata Bolognese / Monte-Carlo, Mónaco, 24 de noviembre de 2019 – Automobili Lamborghini presenta su nuevo concept car, el Lamborghini Lambo V12 Vision Gran Turismo, por delante del mundo Finales del Campeonato de Gran Turismo Certificado por la FIA 2019 que tendrá lugar en Monte Carlo, Mónaco.

Lamborghini Lambo V12 Vision Gran Turismo en Montecarlo

El Lambo V12 Vision GT es un concepto muy visionario, que enfatiza la “diversión de conducir” dentro del entorno digital del icónico juego de carreras Gran Turismo Sport para Sony PlayStation 4, donde estará prácticamente disponible a partir de la primavera de 2020.

Stefano Domenicali, presidente y CEO de Automobili Lamborghini SpA comenta: “Lamborghini es una marca muy joven, y es por eso que estamos aquí hoy para presentar nuestra nueva visión virtual en forma de modelo real, con un diseño muy futurista y genial para ser disfrutado por la joven generación de entusiastas de los juegos de carreras y los súper deportivos ”

La Lambo V12 Vision GT presenta un diseño muy emocionante producido por Lamborghini Centro Stile en Sant’Agata Bolognese. Es un monoplaza, que en su forma virtual utiliza el tren motriz del Lamborghini Sián FKP 37.

El diseño se basa en el ADN de diseño histórico de Lamborghini, ampliando el potencial del lenguaje de diseño de una manera muy futurista. Centrado en la línea central única, la silueta icónica de todos Modelos Lamborghini, enfatiza un diseño de un solo asiento concebido para un juego de carreras donde no se necesita un pasajero.

El potente diseño general del concept car está dedicado a la aerodinámica sofisticada. Un ala grande que alberga una luz trasera Y significativa domina la parte trasera. Todos los elementos están diseñados como superficies de alto rendimiento, integrando diseño y aerodinámica. El cuerpo principal está desconectado de los guardabarros, y el tema inspirado en el hexágono en las ventanas laterales está inspirado en el Lamborghini Marzal de 1968. El Lambo V12 Vision GT utiliza la típica firma Y de Lamborghini para las luces delanteras y las luces traseras.

Un concepto visionario requiere un diseño interior adelantado a su tiempo. El conductor entra en la cabina como un piloto de caza a reacción, desde la parte delantera del automóvil. Los principales controles de conducción se encuentran dentro del El volante futurista y toda la información del conductor se proyecta prácticamente delante del conductor. “El Lambo V12 Vision Gran Turismo está creado para proporcionar el mejor auto virtual para los jóvenes fanáticos y jugadores, que están muy entusiasmados con Lamborghini y sus aspiraciones futuristas”, dijo Mitja Borkert, directora de Lamborghini Centro Stile.

“Es una oportunidad para el talento de diseño dentro de Lamborghini para estirar las alas y visualizar un automóvil que, como todos los Lamborghini, es un giro de cabeza y la mejor experiencia de conducción, pero también refleja el empuje de Lamborghini en tecnologías futuras, particularmente en el campo de materiales ligeros e hibridación “.

Photos and videos: media.lamborghini.comLamborghini Lambo
Information on Automobili Lamborghini: www.lamborghini.com