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It was the first German aircraft to be built in any significant numbers after the Second World War: a classic aircraft of the type “Pützer Elster B” has been extensively restored with the assistance of the Porsche Museum and will now have the mission of representing the museum at airshows as its “flying ambassador”.
There are close historic ties between the Porsche Museum and the “Elster” (magpie): the Porsche aeroengine Type 678 was tested in this aircraft type at the end of the 1950s. The engine of the Porsche 356 was used not only as a drive for the first German post-war sports car, but also the first German aircraft engine production.
After extensive restoration lasting three years under Project Manager and owner Jürgen Gassebner, a “Pützer Elster B” has been restored to its former splendor. The restorers invested over 1,000 hours in giving the flying machine a thorough overhaul. Particular attention was paid to reconditioning original parts as thoroughly as possible, to minimize the need for new parts.
Tradition of care in the air: vintage aircraft promotes the Porsche Museum
Stuttgart. Not only on land but also in the air, operates the museum of Dr. Ing hc F. Porsche AG, Stuttgart, maintaining tradition.
A vintage aircraft of the type “Pützer Elster B” from 1963 and was extensively restored with Porsche support, and will continue to advertise as a “flying ambassador” for the museum.
Between the Porsche Museum and the “Magpie”, marked D-ElkY from 1963 is a close historical reference: Coinciding with the Porsche 356 was the “Magpie” is the first built in any significant quantity German engine aircraft after the Second World War.
Moreover, that aircraft type in 1957, the Porsche 678 type aircraft engine tested. This four-cylinder boxer engine was based on the drive of the Porsche 356 and was built in the late 50s to a whole aircraft engine program with launch services for up to 75 hp.
Ancestor of the aircraft type “Magpie” was the famous glider double Raab, “from which the aircraft maker Alfons Pützer with Fritz Raab, first developed the motor ship” Motor Raab, a little later – using the double-Raab-wings – after the prototype “Elster A to develop. ”
This was driven in 1957 by a strong 52 hp engine from the Porsche-type 678th Due to increased demands on the flight performance was the “Elster B” later the 95 horsepower Rolls-Royce Continental engine, type C-90 12 and 14 F. From this vintage aircraft that the KG Alfons Pützer constructed in 1957, are now only ten aircraft at LBA approved.
In the extensive, three-year long overhaul of the “magpie” the Restoration invested over 1,000 hours of work. Special emphasis was placed on work up original parts as possible to dispense with the installation of new parts as much as possible. Thus, in addition to the motor and the electronic equipment on board, called the avionics have been updated. Also received the wood airplane has a fully renovated interior and a proper overhaul of the cell, so the wings and the fuselage.
“Magpie” now with a new and classically modern painting: by the renowned Stuttgart designer Wolfgang Seidl developed design concept was quoted as traditional Porsche colors red, white and gray is the classic race car design from the 50s and 60s.
On the wings as well as the lettering on the fuselage has the Porsche Museum in the historical relationship between Porsche and the “Magpie” out.
In future, stationed in the Swabian Heubach Magpie D ElkY ” seen as a flying ambassador for the Porsche Museum at numerous vintage air shows. This museum pays tribute once again the engineering achievements of the company founder Professor Ferdinand Porsche. For over 100 years ago, he developed as Austro-Daimler chief designer in addition to automotive engines and aircraft engines successfully.
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As well as the engine, the electronic equipment on board – known as the avionics – was replaced. The wooden aircraft’s interior was also given full restoration treatment and the airframe, in other words the wings and fuselage, were expertly overhauled. The “Elster” also sports a modern, fresh design: the design concept created by renowned Stuttgart designer Wolfgang Seidl gives a nod to classic Porsche racing car design of the 1950s and 1960s in adopting the traditional Porsche colours red, white and grey. Both the wings and the fuselage itself are emblazoned with the Porsche Museum logo.
After three years of work the Puetzer Elster B D-ELKY took off for its first flight in Porsche colours and branding.
Economic miracle – the 356 runs like hot cakes.
Even in the automotive sector, where well-heeled in those days with the Porsche 356 at prices of around 12,000 .- Mark up can buy the first German sports car. And they do it diligently. The 356 sold like hot cakes, the known, and so roll this year, 4529 copies in Zuffenhausen assembly line.
Porsche is going really well, and Germany experiencing prosperity, at least in parts of the population. A simple employee earned in those days, however, only 250 marks a month. That will have a wife and family. As is to think of a Porsche 356 almost. While automobiles, the very front of 356, followed by VW beetles, Lloyds and other four-wheeled motorbikes with NSU as the Max and the streets of Regina Horex rule, must settle for a small minority of people with dreams. Dreams of flying with airplanes, which had in its extreme forms, the likes of North American P-51 Mustang, a Spitfire, a Messerschmitt Bf 109 or the previous decade brought so much suffering to the world. Memories of Icarus come to mind, the crash and the death sentence of the gods for his grip after the sun had.
Aircraft engines as a new business field for Porsche.
So it is only plausible that where the Allies of Germany in the postwar period, almost everything – not only just flying. The Potsdam agreements seal 1945, the flight ban, which will consolidate the demilitarization of Germany. Only about six years after the war, at least, the construction and flying gliders allowed again. Only four years later, in 1955, with the Paris agreements Germany again to build aircraft engines and operate.
Sun in 1955, anything seems possible, especially at Porsche in Zuffenhausen and we quickly recognize that the four-cylinder boxer engine of the 356 is good not only for vehement propulsion in a sports car, but could also serve as a formidable power an aircraft. The slim, compact design makes it ideal Boxer almost to slip under a plane-Cowling, and then make the Porsche engineers are working the 356-engine flying to teach.
The starting point for the first engine of the 356 had been delivered by the Porsche design office in 1938 and 1940 designed VW boxer engine with central camshaft, push rods and valves arranged in parallel. A design that is improved over the 356-company is a success and has become a powerful drive.
From this moment on D-ELKY is the PORSCHE MUSEUM’s official flying ambassador.
Flying ambassador of the Porsche Museum.
At the meeting in the Swabian Heubach, restored over a period of three years and 1,000 hours Elster B hits with the serial number 32 from the year 1963 therefore, a Porsche 356 B Super 90 from 1963. Quite the contrast to the first, 40-hp 356 with 1.1-liter engine of 1951, so that already at least 185 km / h “peak” and Porsche-typical sports-car performance possible.
With a maximum speed of 180 mph and a cruising speed of 142 km / h at 75 percent power marks the Elster B, the perfect matching flying counterpart.
Much like the posh restored 356 B of the Porsche Museum exudes the luxury of its interior in the 50s and 60s. Stitched gray genuine leather combined with walnut wood and a lot of glittering chrome and polished aluminum. As noble a magpie B was never so at the time, but it was for basic training in the Air Force, the Air sports groups in the armed forces and the training and the glider tow was built in clubs.
The historical connection between Porsche and Pützer is to the restoration team can be here to give full attention to detail, and so every little part not only once or twice, but assessed as long review, and possibly obsolete and refurbished is met by the claim of the highest quality.
On 25 and 26 June 2011, Aerospace and Porsche fans will be at the air shows in Schwäbisch Hall in their element. Heubach fly out of the magpie, and some machines with PFM3200 Porsche engine in the association are to Schwäbisch Hall.
On the ground, the planes form an attractive display with Porsche automobiles. The range that extends from the center of Schwäbisch Gmünd PORSCHE vehicle provided while classic cars like the Porsche 356 Cabriolet to current models like the 911 GT3 RS. Also is the team of 9ELF Dutt’s Motorsport in the ADAC GT Masters race cars used by the 911 GT3 R with 480 hp.
Not only on land but also in the air, operates the Museum of Dr. Ing hc F. Porsche AG, Stuttgart, maintaining tradition.
A vintage aircraft of the type “Pützer Elster B” from 1963 and was extensively restored with Porsche support, and will continue to advertise as a “flying ambassador” for the Porsche Museum.
Between the Porsche Museum and the “Magpie”, marked D-ElkY from 1963 is a close historical reference: Coinciding with the Porsche 356 was the “Magpie” is the first built in any significant quantity German engine aircraft after the Second World War.
Moreover, that aircraft type in 1957, the Porsche 678 type aircraft engine tested. This four-cylinder boxer engine was based on the drive of the Porsche 356 and was built in the late 50s to a whole aircraft engine program with launch services for up to 75 hp.
Since September 2010 the Puetzer Elster B D-ELKY is the PORSCHE MUSEUM’s official flying ambassador. Its design was transferred to 9ELF Team’s 911 GT3 R.
Stuttgart. The Motorsport Newsletter regularly provides the latest information to keep you up updated on Porsche Motorsports all around the world.
Nürburgring
Porsche Intelligent Performance: First win for Hybrid race car on the ‘Ring’ With the further-developed Porsche 911 GT3 R Hybrid,
(l.-r.): Richard Lietz, Marco Holzer, Patrick Long
works drivers Marco Holzer, Richard Lietz and Patrick Long clinched the maiden win for a hybrid race car on the Nürburgring Nordschleife (28 May). Whilst almost all direct opponents needed three pit stops to refuel at the very fast four hour race, the innovative Porsche stopped only twice, providing the decisive advantage in the race.
Spain
Blancpain Endurance Series: Porsche trio stays at the top
With third overall at the second race of the new European GT series held on the northern Spanish track in Navarra (22 May),
(l.-r.): Raffaele Giammaria, Gianluca Roda, Paolo Ruberti
Porsche Cup winner Gianluca Roda as well as Paolo Ruberti and Raffaele Giammaria held on to their points’ lead. After three hours and 102 laps on the 3.9 kilometre circuit, the Italian trio saw the flag 25 seconds off the winner in a 911 GT3 R of Autorlando Sport. Roda and his teammates had won the first race in Monza.
France
French GT Championship: Beltoise and Pasquali defend points’ lead
Scoring third place twice at round three of the French GT Championship in Dijon-Prenois (13/15 May), Anthony Beltoise and Laurent Pasquali defended their position at the top of the table in a 911 GT3 R fielded by Pro-GT by Almeras. Title defenders Patrick Bornhauser and Laurent Groppi finished race one ranking second in Larbre Compétition’s 911 GT3 R.
Australia
Australian GT Championship: two weekends, two Porsche wins
David Wall is the overall winner of the third race weekend on the Eastern Creek Raceway (28/29 May) west of Sydney. The reigning GT champion planted a Porsche 911 GT3 Cup S on second place in race one on Saturday and won Sunday’s partly wet race. At the second race meeting in Winton (21/22 May) north of Melbourne, the overall winner of the weekend was Dean Grant in a 911 GT3 Cup S run by Vodka O Racing.
Spain
Porsche Mobil1 Supercup: Perfect Monaco weekend for the champion
Pole position, fastest race lap, light to flag win: perfect outcome for reigning champion René Rast in the Porsche 911 GT3 Cup of VELTINS Lechner Racing at round three in Monaco (29 May).
Britain’s Nick Tandy snatched the series’ lead with second after the 16-lap sprint. Victory at round two in Barcelona (22 May) went to Tandy’s compatriot Sean Edwards.
Nick Tandy – René Rast – Sean Edwards
Asia
Carrera Cup Asia: Four straight wins for Alexandre Imperatori
At the second race weekend in China’s Zhuhai (27/29 May) it was 24-year-old newcomer Alexandre Imperatori all the way. With these two victories in the 911 GT3 Cup of the StarChase squad, the Swiss-German has now proved unbeatable after four wins in succession.
Twice, Keita Sawa brought his 2010-spec GT3 Cup home in second. Rodolfo Avila from Macau secured the last podium spot for himself to now rank second on the points’ table.
Netherlands
Carrera Cup Deutschland: Home win for Bleekemolen, inspired show from Tandy
Jeroen Beekemolen (Team Deutsche Post by tolimit) from the Netherlands scored a clear lights-to-flag victory at round two in Zandvoort. Second place went to Martin Ragginger, 3.3 seconds adrift of Bleekemolen.
(l.-r.): Martin Ragginger, Jeroen Bleekemolen, Nick Tandy
However, the hero of the 19-lap sprint on the dune circuit was Nick Tandy.
Taking up the race from the last grid spot, the Briton made a bolt through the field to finish in third. With this, the winner of the season-opener retained his points’ lead.
France
Carrera Cup France: Kevin Estre again scores a double win
The dominant driver at the third race weekend was again Kevin Estre in the 911 GT3 Cup of AS Events. With two victories and the lap record at both races (15 May) on the swiftest track of the year in Dijon-Prenois, Estre extended his lead. After a double victory in Nogaro (24 April), the Frenchman has now been unbeaten at the last four races.
Italy
Carrera Cup Italia: Maiden win for Marco Mapelli, Balzan defends points’ lead
Reigning champion Alessandro Balzan celebrated his second win of the season at round three in the Autodromo di Franciacorta near Brescia in northern Italy in an Ebimotors’ 911 GT3 Cup.
Allessandro Balzan
The second race of the weekend (14/15 May) went to his 23-year-old teammate Marco Mapelli.
Marco Mapelli
Last year, Mapelli won the Cup class of the Italian GT Championship and now contests his first Carrera Cup Italia season.
Japan
Carrera Cup Japan: Hideto Yasuoka proves invincible
Hideto Yasuoka
Victory at the 2010 finale, victory at race one of 2011 in Fuji. And now first at both races in Okayama (21/22 May): Hideto Yasuoka, a young emerging driver supported by Porsche Japan, has a strong grip on his rivals.
Behind the vice-champion, who took off from pole position and turned the fastest race lap twice in Okayama came Akira in second place.
Scandinavia
Carrera Cup Scandinavia: Robin Rudholm hits the ground running
With three straight wins at the third race weekend in Sweden’s Mantorp (21/22 May)
(l.-r.): Linus Ohlsson, Robin Rudholm, Johan Kristoffersson
reigning champion Robin Rudholm (31, Xlander Racing) increased his points’ lead slightly over 22-year-old Johan Kristoffersson (Kristoffersson Motorsport) and his 20-year-old teammate Linus Ohlsson.
Canada
GT3 Cup Challenge Canada: Gripping start of the 20th one-make race series
Two sprint races in the Calabogie Motorsports Park (14/15 May, Ontario) kicked off the first season of the GT3 Cup Challenge Canada.
Fending off a hefty attack from Marco Cirone, Speed Merchants/Fiorano Racing pilot Perry Bortolotti won both heats in the Platinum Cup class for current 911 GT3 Cup race cars.
GT3 Cup Challenge Canada, Ontario, P1: Perry Bortolotti
Both races of the Gold Cup class for older models went to Martin Harvey in the GT3 Cup fielded by Wingho Motorsports Racing/McDonalds.
Source: Porsche Press Database Public Relations and Media
Motor and Sports Press
Oliver Hilger
Stuttgart.Dr. Ing. h.c. F. Porsche AG, Stuttgart, is widening the top end of its Carrera model line and pairing up each of the two 911 Carrera GTS with an all-wheel drive twin. That means that the 911 Carrera 4 GTS Coupé and Cabriolet will combine the 408 hp (300 kW) top of the range engine of the Carrera GTS family with the intelligent, all-wheel drive Porsche Traction Management (PTM). Driving dynamics are not the only source of attraction. Economics are as well.
Thanks to Porsche Intelligent Performance the new all-wheel 911s consume no more than the equivalent Carrera 4S version, the Coupé remains at 11.0 l/100 km (25.7 mpg imp.) and the Cabriolet at 11.2 l/100 km (25.2 mpg imp.) respectively based on the New European Driving Cycle (NEDC). Moreover both of them boast an even more comprehensive standard equipment package compared with the Carrera 4S models.
The 911 Carrera 4 GTS power unit has its origins in the 3.8-litre, six-cylinder
Carrera S engine.
A wholesale revamping of the intake duct added 23 hp (17 kW), taking the power output to 408 hp (300 kW) at 7,300 rpm. The special aspiration system not only improves peak power output but flexibility and power development as well thanks to a more generous torque curve in the lower and middle engine speed range. 320 Newton metres kick in from as low as 1,500 rpm; the six-cylinder engine delivers its rated torque of 420 Nm in the broad engine speed range from 4,200 rpm and 5,600 rpm.
The sports exhaust system fitted as standard ensures a distinctly sporty sound. It invests the new Carrera 4 GTS with an unmistakable acoustic signature and the rear view of its tail pipe with its unique black surface design lends it a unique character.
At full power the Carrera 4 GTS Coupé sprints to 100 km/h (62 mph) in 4.6 seconds, the Cabriolet in 4.8 seconds.
The Carrera 4 GTS is fitted as standard with a six-speed manual transmission but the Porsche-Doppelkupplungsgetriebe (PDK) seven-speed is available as an option if desired.
The PDK shaves an additional 0.2 seconds respectively off the acceleration times from 0 to 100 km/h (62 mph).
In the Carrera 4 GTS as well, PTM all-wheel drive stands for Porsche’s typical driving pleasure with even more driving stability, traction and agile handling.
What’s more, just how single-mindedly the Carrera 4 GTS is designed for driving dynamics is evident from the use of a standard limited-slip differential. This mechanical rear differential lock contributes to the driving dynamics of the electronically controlled all-wheel drive system.
The PTM achieves this by directing the optimal proportion of the engine torque to the front wheels via a multiple-plate clutch.
Visually, the new Carrera 4 GTS models with all-wheel drive differ in points of detail from earlier variants with rear-wheel drive: In addition to the type name on the doors and rear lid, the distinguishing characteristic of all models with all-wheel drive is the additional reflective stripe between the taillights. What the Carrera GTS models have in common is the 911’s wide body, otherwise reserved for the all-wheel version of the 911s, and the rear axle track width that goes with it.
In numerous other details as well the GTS models differ both visually and technically from the other Carrera models. For example, they run on 19 inch RS Spyder wheels in black with central locking and gloss-lathed rim flanges fitted with 305/30 ZR 19 tyres on the rear axle.
Additional visual features include the Sport-Design front apron with black painted spoiler lip and special side skirts, also in black. Driver and passenger are accommodated on sports seats.
Typical of the GTS, the emphatically sporty black Alcantara covering on centre panels, steering wheel rim, gearshift and handbrake lever, door handles and door storage box lid and extension are offered as standard in addition to a range of leather upholstery options.
The 911 Carrera 4 GTS Coupé, including country-specific equipment and VAT at 19 per cent, is offered in Germany at a price of 111,956 euro, the Cabriolet costs 122,071 euro. Both models will be on sale in Germany from July 2011.
Le Mans Series / Intercontinental Le Mans Cup, round 2 in Spa-Francorchamps, Belgium
Second grid row for Marc Lieb
Marc Lieb (Germany)
Stuttgart. In qualifying for the second round of the Le Mans Series in Spa-Francorchamps, Marc Lieb (Germany) secured the fourth grid spot in the GTE Pro sports car category.
Richard Lietz (Austria)
With this, last year’s winners Lieb and Richard Lietz (Austria) have clinched a good starting position for the 1,000 kilometre race on the challenging circuit in Belgium’s Ardennes region with the 2011 version of the Porsche 911 GT3 RSR.
In the GTE Am category, in which just one professional race driver may compete per vehicle, Frenchman Nicolas Armindo again clinched pole position in the 2010-spec 911 GT3 RSR.
Marc Lieb (Germany)
“My lap was quite okay and, after the free practice, fourth on the grid is what we had expected,” said Lieb. “A half second gap to the pole-sitter is not a lot on a seven kilometre circuit. Tomorrow’s race will be tough. The opposition is strong and many. But we’ll go flat out and would like to finish on the podium.”
Teammate Lietz commented: “Compared to last year’s car, we didn’t manage to find the perfect set-up for the new 911. We simply don’t have the experience from the first round where through no fault of our own we retired due to the flawed start.”
Taking up tomorrow’s six-hour race from eighth on the grid are the two Porsche works drivers Wolf Henzler (Germany) and Patrick Pilet (France).
Wolf Henzler (Germany)
The professionals from the French IMSA Performance Matmut team were also not particularly satisfied with the set-up of their 911 GT3 RSR. “We tried several things but they turned out to be in the wrong direction,” Henzler concluded. “We feel the same as Marc and Richard, the experience with the 2011 car is missing because of our retirement in Le Castellet. We’re hoping to make up some positions through a good strategy and consistent driving performance.”
Belgium’s race professional Marc Goossens qualified the 911 GT3 RSR fielded by ProSpeed Competition on the tenth grid spot. His teammate, Porsche factory pilot Marco Holzer (Germany), was pleased. “With 60 vehicles on this demanding circuit, the race is going to be challenging.”
Like in Le Castellet, Nicolas Armindo was delighted with his pole position in the GTE Am category. The reigning champion of the Porsche Carrera Cup Deutschland shares the cockpit of the 911 GT3 RSR – on the technical basis of 2010 – with his compatriot, IMSA Performance team owner, Raymond Narac.
Austria’s Horst Felbermayr Junior posted the sixth fastest time in the GTE Am-911 run by Felbermayr-Proton. He joins forces with Bryce Miller from America. Team owner Christian Ried (Germany) takes up the race from ninth in the class with Nick Hommerson from the Netherlands.
Porsche works driver Timo Bernhard (Germany) was the fastest of the entire field at the wheel of the Audi R18 TDI. Bernhard shares driving duties in the sports prototype with Porsche factory pilot Romain Dumas (France) and former Porsche Junior Mike Rockenfeller.
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The six hour race starts on Saturday, 7 May, at 14.05 hours. Eurosport broadcasts the entire race live. Eurosport 2 televises the Spa round from 14.00 to 17.30 hours, with the free-to-view station showing the last two and a half hours live from 17.30 hrs.
Qualifying result GTE Pro class
1. Jaime Melo (BR), Ferrari F458 Italia, 2:20.743 minutes
2. Robert Bell (GB), Ferrari F458 Italia, + 0.172 seconds
3. Giancarlo Fisichella (I), Ferrari F458 Italia, + 0.343
4. Marc Lieb (D), Porsche 911 GT3 RSR, + 0.548
5. Augusto Farfus (BR), BMW M3, + 0.717
8. Wolf Henzler (D), Porsche 911 GT3 RSR, + 2.212
10. Marc Goossens (B), Porsche 911 GT3 RSR, + 2.896
GTE Am class
1. Nicolas Armindo (F), Porsche 911 GT3 RSR, 2:23.007 minutes
2. Marco Cioci (I), Ferrari F430, + 0.262 seconds
3. Phil Quaife (GB), Ferrari F430, + 0.478
6. Horst Felbermayr Jr. (A), Porsche 911 GT3 RSR, + 1.592
9. Christian Ried (D), Porsche 911 GT3 RSR, + 3.790
The Le Mans Series
Contested for the first time in 2004, the Le Mans Series (LMS) is open for sports prototypes and GT vehicles. The regulations are based on those of the Le Mans 24 hour race. Five six-hour races are contested this season throughout Europe.
GTE-Pro class: This most popular class amongst car manufacturers (previously known as the GT2 class) is traditionally the best supported: Slightly modified standard sports cars with up to 500 hp and a minimum weight of 1,245 kilograms.
GTE-Am class: Like the GTE-Pro, but with the 2010-vehicle specifications. Moreover, the regulations stipulate that each vehicle must have one professional driver at the most.
LMP1 class: Sports prototypes with up to 550 hp and a minimum weight of 900 kilograms.
LMP2 class: Sports prototypes with ca. 440 hp, GT-class homologated engines and a 900 kg minimum weight.
FLM class: Prototype brand trophy series for the ORECA FLM 09.
All race cars start together but are classified separately according to the class. Points are only allocated for placings in each class. Championship titles are awarded for drivers, manufacturers and teams in all five classes. Claiming the title in 2005, 2006, 2009 and 2010, Porsche works driver Marc Lieb is the most successful pilot in the series.
Porsche Hybrid GT3 R beim freien Training der VLN auf der Nordschleife 29.04.2011
Stuttgart. The development of the Porsche 911 GT3 R Hybrid 2.0 is running at full revs.
This Saturday, April 30th, the further-developed version of the innovative Hybrid race car contests round two of the Nürburgring Long Distance Championship (VLN).
Another test under race conditions is planned at the fourth VLN round on 28 May.
At the race debut of the modified version of the 911 GT3 R Hybrid on 30th April, Porsche works drivers Joerg Bergmeister (Germany),
Porsche takes up the Nürburgring 24 hour race on 25 June with a further developed version of the Porsche 911 GT3 R Hybrid.
So, what’s been done with this latest Porsche 911 Hybrid race car?
Priority of the development was given to the improvement of efficiency through the targeted optimisation of hybrid components, which also resulted in a 20 percent weight reduction. Version 2.0 of the 911 GT3 R Hybrid is intended to achieve the same lap times as its predecessor but with less fuel consumption.
The general layout of the hybrid was adopted from the 2010 model. A portal axle with two electric motors drives the front wheels and supplements the four-litre, depending on the balance of performance classification approximately 470 hp, six-cylinder boxer engine at the rear. The output of both electric motors has increased from 60 to 75 kilowatts each. For seconds at a time, pilots now have almost an additional 200 hp at their disposal with the 911 GT3 R Hybrid 2.0.
Depending on the programming, this power is automatically activated through use of the throttle pedal. Moreover, pilots can manually call up this extra power, for instance when overtaking.
The electric flywheel accumulator, with its rotor spinning up to 40,000 rpm and stor-ing energy mechanically as rotational energy, is now housed with the other hybrid components in a carbon fibre safety cell on the passenger’s side.
At first glance, the new GT3 R Hybrid is clearly distinguishable from the 2010 model. Thanks to the optimisation of the hybrid system’s high voltage components, the large louvres in front of the rear fenders were no longer necessary. This reduces drag and also lowers fuel consumption. All in all, the weight of the vehicle decreased from 1,350 to 1,300 kilograms. “We’ve collected a great deal of information from our races on the Nürburgring, at the ALMS race at Road Atlanta in the USA, as well as from the ILMC race on China’s Zhuhai circuit, which was an invaluable help for the further development of our racing laboratory,” says Hartmut Kristen, head of Porsche motorsport.
“The emphasis of our work was on improving efficiency. That means we want to keep the lap times consis-tent with 2010 but use less energy, hence less fuel. In this way, we support future developments of road-going, sporting hybrid vehicles.”
The cockpit of the 911 GT3 R Hybrid has also been completely revised. Most of the displays and controls have moved to the steering wheel. Drivers can operate the rest of the functions via backlit buttons now situated on the centre console.
Priority was placed on the ergonomics and the clear layout for pilots – particularly in darkness.
The new 911 GT3 R Hybrid is a perfect example of the ‘Porsche Intelligent Performance’ philosophy, a principle found in every Porsche: More power on less fuel, more efficiency and lower CO2 emissions – on the race track and on the road.
For the Porsche Museum in Stuttgart-Zuffenhausen, the 80th anniversary of the Porsche engineering office founded in 1931 is one of the central themes of 2011.
From 7 July to 28 August 2011, the special exhibition “Porsche Engineering – 80 years of Porsche design” will be paying tribute to the most important and interesting third-party client developments of the past eight decades.
On display will be approximately 20 special exhibits extending from the development of entire vehicles via engines and gearboxes to remarkable industrial projects of the present day.
The ten third-party client vehicle developments include a 1931 vintage Wanderer saloon, the legendary Auto Union Grand Prix racing car and the Audi Sport Quattro S1 with the Porsche Doppelkupplungsgetriebe (PDK) driven by Walter Röhrl.
The Porsche Museum is open Tuesday to Sunday from 9:00 a.m. to 6:00p.m.
On 25 April 1931 Ferdinand Porsche founded an engineering office called “Dr. Ing. h.c. F. Porsche Limited, construction and consulting for engine and automobile manufacturing” (Dr. Ing. h.c. F. Porsche Gesellschaft mit beschränkter Haftung, Konstruktion und Beratung für Motoren- und Fahrzeugbau). Porsche Engineering, contract development by Porsche, thus dates back to the oldest predecessor company of today’s Porsche AG and for more than 80 years has developed customised solutions on behalf of automotive manufacturers and suppliers from the automotive industry, but also for other industrial companies from around the world.
Discover the milestones of Porsche history and join Porsche in taking on the challenges of the future.
Stuttgart. Dr. Ing. h.c. F. Porsche AG, Stuttgart, has been the leading manufacturer of premium sports cars for more than six decades. However, the historic roots of the Porsche brand go back much further than that. When Ferry Porsche built the legendary Type 356 in 1948, he and his engineers were able to look back on a wealth of comprehensive technological experience.
Back on 25th April 1931, Ferdinand Porsche founded and registered a design bureau named “Dr. Ing. h.c. F. Porsche Gesellschaft mit beschränkter Haftung, Konstruktion und Beratung für Motoren- und Fahrzeugbau” in Stuttgart.
Since then, the Porsche company has experienced many highs and lows and has grown from a small design bureau to a world famous manufacturer of sports and racing cars. This success story is based on decades of development experience, stretching far beyond just building sports cars. Over an 80 year period, Porsche has built up a reputation as one of the best known and multi-faceted engineering service providers in the world. The tradition of customer development started by Ferdinand Porsche in 1931 is still successfully continued today by Porsche Engineering Group GmbH, based in Weissach.
Porsche Engineering carries out development work on behalf of car manufacturers and suppliers, as well as companies from other sectors, combining the skills of Porsche as a series manufacturer, technology company and engineering service provider and making these available to third parties.
The 80th anniversary of the founding of the Porsche design bureau in 1931 is one of this year’s central themes for the Porsche Museum in Stuttgart-Zuffenhausen. From 21st June to 11th September 2011 the special exhibition entitled “Porsche Engineering – 80 Years of Porsche Designs” will honour the most important and interesting customer developments from the last eight decades. It will display around 20 special examples ranging from whole vehicle developments, through engines and gearboxes to extraordinary industrial projects in the present. The ten vehicle customer developments on display include a Wanderer Limousine from 1931, the legendary Auto Union Grand Prix racing car and the Audi Sport Quattro S1 with Porsche dual clutch gearbox (PDK). The Porsche Museum is open from Tuesday to Sunday, from 9 am to 6 pm. Further information is available on the internet from www.porsche.com/museum.
80 years of Porsche designs
Discover the history of Porsche customer growth in the Webspecial.
For more than six decades, Dr. Ing. h.c. V. Porsche AG, Stuttgart, has enjoyed a reputation as a leading manufacturer of sporty premium cars. But the Porsche brand has much deeper historical roots. When Ferry Porsche built the legendary Type 356 in 1948, he and his engineers were able to draw on a comprehensive trove of technical experience.As long ago as 25 April 1931, Ferdinand Porsche had established an engineering office in Stuttgart under the name “Dr. Ing. h.c. F. Porsche Gesellschaft mit beschränkter Haftung, Konstruktion und Beratung für Motoren- und Fahrzeugbau“, (“Dr. Ing. h.c. F. Porsche Ltd., Design and Consultancy Company for Engine and Vehicle Production”) and had it entered in the trade register.
Since then, the Porsche company has experienced many ups and downs and grown from a small engineering office into a manufacturer of sports and racing cars that is known throughout the world. This success story is based also on decades of development experience extending far beyond sports car construction. Over an eighty-year period, Porsche has acquired the reputation as one of the world’s most illustrious and versatile engineering service providers. The tradition begun by Ferdinand Porsche in 1931 of third-party client development has been successfully carried on to this very day by the Porsche Engineering Group GmbH with its headquarters in Weissach. Porsche Engineering develops on behalf of automotive manufacturers and suppliers but also for companies from other sectors, bundling the know-how of the manufacturer, technology company and engineering service provider that is Porsche and making this available to third parties.
Ferdinand Porsche the automotive designer
The name Porsche has been associated with pioneering innovations in automotive engineering since the beginning of the last century. Ferdinand Porsche had been busy designing and developing his first cars as far back as 1896. The first fruit of this endeavour was an electric vehicle known as the “Lohner-Porsche” driven by steered wheel hub motors that caused a sensation at the Paris World Exhibition in 1900. This was soon followed by ever more impressive proof of just how innovative Ferdinand Porsche was. A racing car boasting four wheel hub electric motors became the world’s first all-wheel drive passenger car, brilliant also for having four-wheel brakes. No less visionary was Ferdinand Porsche’s next idea: Again in 1900 he combined his battery-powered wheel hub drive with a petrol engine – the principle of the serial hybrid drive had been born.
With this first functional, full-hybrid car in the world, the “Semper Vivus” (“always alive”), Ferdinand Porsche had entered uncharted territory. In this vehicle, two generators twinned with petrol engines formed a single charging unit, simultaneously supplying electricity to wheel hub motors and batteries. As a full hybrid concept, the “Semper Vivus” was also able to cover longer distances purely on battery power until the combustion engine had to be engaged as a charging station. To save weight and create space for a petrol engine, Ferdinand Porsche used a comparatively small battery in the “Semper Vivus” with a mere 44 cells. In the middle of the vehicle he installed two water cooled 3.5 hp (2.6 kW) DeDion Bouton petrol engines for generating electricity, driving two generators, each producing 2.5 hp (1.84 kW). Both engines operated independently of one another, each delivering 20 amps with a voltage of 90 volts. The electricity generated by the dynamos initially flowed to the wheel hub motors, with the surplus power being forwarded to the batteries. An additional special side effect was that it was possible to use the generators as electric starter motors for the petrol engines by reversing the direction of rotation. Starting as far back as 1901 as the Lohner-Porsche “Mixte” and from 1906 onward as the “Mercedes Electrique”, Ferdinand Porsche brought his hybrid drive to the start of volume production.
Ferdinand Porsche in the Lohner-Porsche
This was followed in 1906 by the next step in Ferdinand Porsche’s career. At the tender age of only 31 he landed the position of Technical Director at Austro Daimler in Wiener Neustadt, giving him product responsibility for one of Europe’s leading automotive companies. One of the greatest successes of this era was the so-called “Prinz-Heinrich Car”, in which the Austro-Daimler works team won the first three places in the 1910 running of the highly regarded Prinz-Heinrich Race. In the guise of the Austro-Daimler “Sascha”, he developed a small car which, thanks to its excellent power-to-weight ratio prevailed against its larger displacement competitors in the 1922 Targa Florio, notching up no fewer than 43 racing victories in total.
In 1923 Ferdinand Porsche moved to the Daimler engine company in Stuttgart-Untertürkheim as Technical Director. There, in addition to the Type 8/38 midsized model and the first eight cylinder engine Mercedes-Benz, the “Nürburg” Type 460, it was first and foremost the supercharged sports and racing cars that further consolidated his worldwide reputation as an automotive designer. The sports and racing cars developed under his guidance with the abbreviations “S” (Sport), “SS” (Super Sport) and “SSK” (Super Sport Kurz, or short) ranked among the most coveted cars of their time. In January 1929 he left Daimler-Benz AG. Following a short interlude at the Austrian Steyr works, at the end of 1930 he returned to Stuttgart and opened an engineering office.
Ferdinand Porsche at the office
The founding of the Porsche engineering office
The “Dr. Ing. h.c. F. Porsche Gesellschaft mit beschränkter Haftung, Konstruktion und Beratung für Motoren- und Fahrzeugbau“ was entered in the Stuttgart trade register on 25 April 1921, at the height of the world economic crisis. In addition to Ferdinand Porsche, who contributed 24,000 Reichsmarks to the limited company’s share capital, his son-in-law Anton Piëch and Adolf Rosenberger also invested 3,000 Reichsmarks each as executive partners. From the outset, the work undertaken by the initial twelve strong team around Ferdinand Porsche spanned the entire gamut of motor vehicle technology. Legendary cars such as the Auto Union Grand Prix racing car or the Volkswagen “Beetle” were to emerge from this Stuttgart engineering office in the years that followed. Porsche’s workplace progressed to be one of the most important seedbeds of automotive technology, at the same time preparing the ground for mass car ownership in Germany.
As early as 1931, Porsche designed a six cylinder average mid-size saloon for the Chemnitz car manufacturer Wanderer as well as a new in-line eight cylinder engine. This was followed by a swing axle for the Horch-Werke in Zwickau and an air-cooled five-cylinder radial engine designed for the Phänomen-Werke in Zittau, intended for use in trucks. In addition, the engineering office developed a small car for Zündapp GmbH, which with its rear-engine, rigid tubular backbone chassis and transmission mounted forward of the rear axle was to prove to be decisive for the Volkswagen that came later. The torsion bar suspension patented on 10 August 1931 and used in international automotive manufacturing over many decades is also held to be a milestone in automotive history.
In the spring of 1933, Ferdinand Porsche was commissioned by Auto Union in Saxony to develop the Grand Prix racing car. The moment the contract was signed, the Porsche team led by senior engineer Karl Rabe began work on the Auto Union P racing car (P for Porsche), configured as a mid-engined vehicle. The first test drives took place as early as November 1933 and in the very first racing season in 1934 this vehicle set three world records and won three international Grand Prix races in addition to several hill climb races. Between 1934 and 1939, with drivers such as Bernd Rosemeyer, Hans Stuck or Tazio Nuvolari, the constantly refined Auto Union racing car became one of the most successful pre-war era racing cars . Its technical mid-engine concept proved to be a trendsetter for all modern racing cars and is used to this very day in Formula One.
In addition to developing racing cars, the engineering office had been equally hard at work since 1933 on the design of a low-cost small car commissioned by the NSU works – an idea that was also exercising other car designers such as Belá Barényi or Hans Ledwinka against the backdrop of the world economic crisis. When Ferdinand Porsche began work on designing the Type 32 compact car, this was already the seventh small car design of his career. A number of prototypes of this vehicle type were built, which with the air-cooled, flat-four, rear-mounted engine and Porsche torsion bar suspension exhibited distinct similarities with the later Volkswagen Beetle. The “Memorandum on the construction of a German people’s car” (Volkswagen) that he presented to the Reich Transport Ministry on 17 January 1943 was to prove critical to the breakthrough of the small car concept. Shortly thereafter, on 22 June 1934, he received the official order from the RDA, the “Reichsverband der Deutschen Automobilindustrie” (German Reich Automobile Industry Association) to design and build Volkswagen prototypes that were assembled in the garage of his Porsche villa in the north of Stuttgart in 1935.
Ferdinand Porsche and Auto Union GP
Contrary to the initial idea of having the Volkswagen built jointly by Germany’s car manufacturers, the Reich government decided in 1936 to build an independent Volkswagen plant, the planning of which was entrusted to Dr Ferdinand Porsche. Since the incorporation of the “Gesellschaft zur Vorbereitung des Deutschen Volkswagens mbH” (Gezuvor) in May 1937, a company established to pave the way for the construction of the German “people’s car”, Porsche, as one of three Managing Directors, was officially responsible for technology and the planning of the future Volkswagen plant and, accompanied by his son Ferry, travelled to the United States of America to find out about modern production methods.
In addition to the Volkswagen project, the Porsche engineering office, located in the Zuffenhausen district of Stuttgart since 1938, was working on numerous other development contracts from the automotive industry. For Daimler-Benz AG work included the development of technical engine components for the Mercedes “silver arrows” between 1937 and 1939 as well as the design of the Type 80 high-speed car for an attempt on the land speed record. The Type 110 compact agricultural tractor with an air-cooled two cylinder engine, developed for the “Deutsche Arbeitsfront” (German Labour Front) (DAF), was the model for the later “People’s Tractor” and the Porsche diesel tractor produced after the Second World War.
In 1938 the Volkswagen works awarded the Porsche engineering office the contract to develop a racing car based on the Volkswagen Type 60, which was to take its place on the grid for a planned long distance race from Berlin to Rome as a promotional stunt for the “KdF car” (“Strength through Joy” car). By the spring of 1939, the Porsche engineers had developed three sports car coupés under the in-house designation Type 64, for the “Non-stop speed endurance test” scheduled for September. As much of the more than 1500 kilometre long race was to be on the new motorways, particular attention was lavished on the vehicle’s aerodynamics. With a sleek streamlined aluminium body, shrouded wheel wells and a modified VW horizontally opposed engine, the would-be record-breaking car, weighing a mere 600 kg, topped 140 km/h (87 mph). When the outbreak of the Second World War prevented the race from being held, the Porsche engineering office used the completed sports cars as fast touring cars, achieving average speeds in excess of 130 km/h (81 mph) on long business trips.
After the outbreak of the Second World War, other types of vehicle were spun off from the Volkswagen for military use. In addition to the Type 81 “VW Kastenwagen” the company, trading as Porsche KG since the end of 1937, developed the Type 62 “KdF off-road vehicle”, the Type 82, known as the “VW Kübelwagen” and the all-wheel drive Type 87 and Type 166 “VW Schwimmwagen” amphibious vehicle, among others. At the end of 1939, the Army’s Armaments Office also awarded the Porsche engineering office the development contract for a medium tank, the design of which however was temporarily shelved owing to the need for heavier types of tank. Initially employed by the Armaments Ministry as a consultant, Ferdinand Porsche headed the Tank Commission from 1941 to 1943. In 1942 Ferdinand Porsche received the contract to design a super heavy tank, the Type 205 “Maus” (Mouse), of which only two prototypes were ever built, however, and never saw action. During the war, development of the military derivatives of the Volkswagen as well as various tank prototypes – including the involvement of prisoners of war employed as forced labourers – took place predominantly in Stuttgart-Zuffenhausen. With the intensification in bombing raids, the Porsche KG engineering office, classified as important to the war effort, was relocated in autumn 1944 from Stuttgart to Gmünd in Carinthia, Austria.
New beginning with third-party client development and sports car construction
With the war over, the Porsche engineering office in its new home in Austria strove to attract new contracts from the automotive sector. But initially it was water turbines, cable winches, ski lifts, mowing bars and various types of tractor based on the “People’s Tractor” that were developed and for the first time also sold under the Porsche name. The most important customer in the early post-war years was the Italian company Cisitalia, whose car enthusiast owner Piero Dusio awarded numerous design contracts at the end of 1946. In addition to a tractor and water turbine, Dusio ordered a mid-engine sports car with hydraulic torque converter and a Grand Prix racing car. The upshot was the Type 360 “Cisitalia” completed in 1948, which technically was far ahead of its time on many counts. Unlike the front-engine Formula One racing cars of the post war year, which for the most part still featured rigid axles, the Type 360 was designed with a mid-engine layout. The suspension featured double trailing arms on the front axle, the rear axle being configured as a double-joint swing axle with torsion bar suspension. In terms of drive train, the single-seater featured a 385 hp (283 kW) 12-cylinder engine with compressor, achieving a maximum engine speed of 10,600 rpm. The 1.5 litre boxer engine’s four camshafts were driven by bevel shafts. The synchronised five-speed transmission – as with the gear change on a motorbike – could be operated with just two gearshift levels via a dog clutch. Thanks to the experience with the Auto Union P-racing car, there was an awareness of the traction problems with the narrow racing tyres that were customary at the time. Power transmission was therefore by means of all-wheel drive that could be activated by the driver if required. But financial difficulties affecting the client Cisitalia prevented the Type 360 from taking part in Grand Prix races.
In July 1947, independent design work began on the Type 356 “VW sports car”. The design concepts became reality in the first half of 1948 under the in-house design number 356 based on earlier designs such as the Volkswagen or Type 64 “Berlin-Rome car”. Once the chassis had completed its maiden drive in February, the finished prototype with the chassis number 356-001 received one-off approval by the State Government of Carinthia. The Porsche sports car brand had been born. Production of the rear-engined coupé and convertible versions of the Porsche Type 356/2 started in the second half of 1948. Series production of this sports car began after the return to Stuttgart in 1950, approximately 78,000 vehicles being built by 1965. The successor model, the Porsche 911, finally helped the company to make the breakthrough as one of the technically and stylistically leading sports car manufacturers in the world.
From the Weissach Engineering Office to the Weissach Development Centre
Despite the successful entry into vehicle manufacturing, third-party client development commissions remained a firm fixture in the then Porsche KG’s service portfolio. The most important client right into the 1970s was Volkswagen AG, with whom there had been an extensive cooperation agreement. Numerous detailed improvements were devised for the VW “Beetle”, which was produced in Wolfsburg in exchange for payment to Porsche of a licence fee of approximately DM 5 per vehicle. Porsche was also involved in developing the successor models for the successful Beetle. The Stuttgart-based company developed numerous prototypes on behalf of the Volkswagen Group, which were to prove groundbreaking for the Wolfsburg Group’s passenger vehicle programme. The best-known contract developments were the VW Porsche 914 unveiled in the autumn of 1969 and the Porsche 924 built in response to Volkswagen development contract EA 425.
In addition to the numerous orders for the Volkswagen Group, Porsche’s third party client development engineers developed numerous other innovations for domestic and foreign clients in the 1950s and 1960s. Porsche developed the amphibious all-wheel-drive Type 597 Jagdwagen vehicle in response to a Bundeswehr invitation to tender. Although the Jagdwagen proved to be technically superior, the contract was awarded to car and motorcycle manufacturer DKW for labour market reasons. Overseas customers as well, such as the Studebaker Corporation, put their faith in Porsche KG’s experience. Between 1952 and 1954, the Stuttgart-based sports car manufacturer developed a four-door saloon with self-supporting body and modern ponton design for the American carmaker.
In 1971, Porsche’s Development Division with its Construction, Testing and Design Departments relocated to the newly constructed Development Centre in Weissach, 25 kilometres to the north-west of Stuttgart-Zuffenhausen. Ferry Porsche had already had a so-called “skid pad” built there 10 years earlier, which had been used ever since for conducting suspension tests. In addition to a large test track, the 1970s and 1980s saw the building of high-spec installations such as wind tunnel, crash facility, emissions testing centre and a wealth of engine test rigs that are available for third-party contracts and in-house developments alike. The Development Centre spanned virtually all areas of civil and military engine technology. Large orders from the German Army were also handled as were future automotive studies for the Federal Ministry of Research and Technology. The client portfolio was recruited from virtually the whole of the world’s automotive industry, which drew on Porsche’s know-how for its own vehicle programmes, from detailed technical solutions to entire vehicles.
Industrial projects and series development
Breaking new ground is a tradition with Porsche’s third-party client development. For example, in the early 80s, Weissach engineers and aircraft manufacturer Airbus joined forces to design a cockpit layout for wide-bodied aircraft, setting a trend by using displays in place of the conventional analog instruments. The project sought to achieve discernible improvements for the pilots’ working environment through optimised styling.
Another major project was the “TAG Turbo made by Porsche” engine developed for the British McLaren International racing team, with the aim of causing a sensation at the very pinnacle of motor sport. Unveiled in the summer of 1983, the 1.5 litre, six-cylinder turbocharged engine dominated Formula One, with 25 Grand Prix victories and three world championship titles between 1984 and 1986. The secret of the Formula One high-performance engine’s success lay in marrying the turbocharger technology with an electronic engine management system. As a consequence, the racing car’s fuel consumption was particularly economical, which critically influenced the racing strategy
A milestone in the development of vehicles for industry was the beginning of the tie-in with Linde Material Handling, which continues successfully to this very day. Having already designed slewing gears and chain drives for Linde, in the 1980s the sports car manufacturer Porsche was retained to design a new generation of forklift trucks. In addition to the functional design of the machine, the Porsche engineers paid particular attention to developing a new ergonomically designed driver workstation concept. The symbiosis of technology and aesthetics also proved beneficial to sales: Sales of the stylistically distinctive Linde forklift trucks increased by approximately 15 per cent in the mid-1980s. In addition to steering axles and lifting masts for every conceivable forklift truck weight class, an electric forklift truck model line was also jointly developed with Porsche to the point of market launch. The Porsche styling of Linde’s conveyor systems has since become an award-winning trademark. For example, the Linde T20 pallet truck received the coveted “Red Dot Award for Product Design” from the prestigious North Rhine Westphalia design centre.
Linde forklift truck
But Porsche Engineering also regularly worked for other carmakers. From 1990 onwards, Porsche’s third-party client development team worked for Daimler-Benz AG on the design and test aspects of a W 124 production saloon fitted with the 5 litre, V8 four-valve M 119 engine. The result was impressive performance. With the four-speed automatic transmission fitted as standard, the Mercedes-Benz 500 E reached the 100 km/h mark (62 mph) in only 5.9 seconds with the top speed electronically limited to 250 km/h (156 mph). In the process, the contract far exceeded the usual development activities. Series production together with the assembly of the body shell and final assembly took place at Porsche’s Zuffenhausen works. The Daimler-Benz works in Sindelfingen were responsible for the paint finish and delivery. Production of the Mercedes-Benz 500 E kicked off in the spring of 1990. The sales success of the speedy GT saloon testified to the successful outcome of the collaboration: 10,479 units had been built by April 1995.
In the early 1990s, Porsche’s third-party client development department entered into a joint venture with Audi to develop a high-performance sport estate car, which caused a sensation. The Audi Avant RS2 unveiled in the autumn of 1993 came into being in Weissach based on the 315 hp (232 kW) variant of the all-wheel drive Audi Avant S2. This borrowed numerous Porsche components, such as for example wheel hubs, high-performance brakes and rims. Exterior parts such as fog lights and indicators as well as the exterior mirrors also came from the Porsche 911 of the then current 993 model series. The Audi Avant RS2 was built at Porsche’s Zuffenhausen works between October 1993 and July 1994. The “Porsche estate car in Audi clothing” – as “Auto Bild” magazine put it – enjoyed keen customer interest. The planned production run of 2000 vehicles was exceeded by 895 units.
In 2001, under the development name “Revolution Engine”, Porsche Engineering started work as a development partner on developing a new V2 engine for the American motorbike manufacturer Harley-Davidson’s “V-Rod” model. Against the backdrop of a collaborative relationship stretching back to the 1970s, Porsche engineers designed a water-cooled, 1131 cc power unit based on a racing engine which delighted discerning Harley-Davidson customers with its performance and engine sound in equal measure.
Harley Davidson V Rod
Into the future with tradition and innovation
Today, as in the past, Porsche Engineering is grappling with the engineering challenges of the future. Be it the conspicuous expertise in the electromobility arena that Porsche Engineering displayed in the Boxster E research project in 2011 or in the development of the Seabob production water sport sled, experience in the lightweight construction and downsizing arenas but also thinking outside the box with the development of a premium outdoor grill in 2008 – Porsche Engineering’s engineers dedicate themselves to each project with the same commitment to ultimate quality, innovative concepts and customised solutions.
Nowadays, all development projects for clients worldwide are controlled by the Porsche Engineering Group GmbH (PEG) founded in 2001 and headquartered in Weissach. Thanks to Porsche’s own distinctive development network, PEG is able to call on the services of its subsidiaries Porsche Engineering Services GmbH in Bietigheim and Porsche Engineering Services s.r.o. in Prague. By networking all its locations and sharing information closely between project teams, PEG offers interface competency and lateral thinking, ensuring that client projects are delivered consistently and productively and without a hitch.
The combined expertise of Porsche Engineering’s engineers and the comprehensive resources at the Weissach Development Centre’s disposal are behind innovative services to the highest quality standards.But the public only gets to see the tip of the iceberg. Thanks to draconian confidentiality, Porsche Engineering protects its clients’ product strategies and brand identities with the greatest care at all times. Only very few projects are known of, and only with the clients’ explicit consent. Because Porsche’s third-party client development will only succeed if a customer returns. This maxim prevails to this day – as it has for more than 80 years.
Power, efficiency, performance. Porsche has risen in every discipline. Porsche ambition is high, but the result clearly illustrates why they build sports cars – because there is only one direction: forwards.
ATLANTA – April 28, 2011 — The 911 GT3 RS, one of Porsche’s most popular, coveted and successful track-inspired production cars, has been given a final, thrilling injection of thoroughbred motorsport technology resulting in the 2011 Porsche 911 GT3 RS 4.0. Limited to 600 vehicles worldwide, the 911 GT3 RS 4.0 brings together in a sports car the attributes that have made the Porsche 911 GT3 a consistent winner on the race track.
The motorsport-derived 4.0-liter engine, already the highest displacement 911 engine ever, also features the highest per-liter output — 125 horsepower (hp) per liter — from a naturally aspirated Porsche flat-six engine.
The engine uses forged pistons, the connecting rods are fashioned from titanium, and the crankshaft has been lifted unchanged from the 911 GT3 RSR race car. It achieves its maximum power of 500 hp at 8,250 rpm. Maximum torque of 339 ft/lbs is reached at 5,750 rpm.
The 911 GT3 RS 4.0 offers truly impressive performance, lapping the famed Nürburgring-Nordschleife in 7 minutes and 27 seconds.
Available exclusively with a six-speed manual transmission, the 911 GT3 RS 4.0 sprints from 0 to 60 mph in only 3.8 seconds, and with its gearing designed for the race circuit it reaches the 124 mph mark on the race track in under 12 seconds. The 911 GT3 RS 4.0’s outstanding driving dynamics come from numerous, meticulously coordinated details. In addition to using suspension components typically encountered in motor racing, weight reduction is also of supreme importance.
Equipped as standard with lightweight components such as light but strong carbon fiber sport bucket seats, …………………..
…………….carbon fiber front fenders and luggage compartment lid, and weight-optimized carpets, the two-seater’s ready-for-action weight is just 2,998 lbs with a full fuel tank.
The 911 GT3 RS 4.0’s power-to-weight ratio is 5.99 lbs/hp. This limited edition 911 is painted Carrara White as standard and emphasizes its proximity to motor racing by its dynamic appearance.
Signature characteristics are the wide track, the low vehicle position, the large rear wing with side plates, central twin tailpipe, and the aerodynamically optimized body. Air deflection vanes mounted on either side of the front bumper – called ‘flics’ or dive planes – make their first appearance on a production Porsche. They create increased downforce on the front axle, and together with the steeply inclined rear wing, provide aerodynamics on par with its performance capabilities.
As a result, at the 193 mph top track speed, aerodynamic forces exert an additional 426 lbs of downforce, thus pushing the 911 GT3 RS 4.0 onto the road. With a manufacturer’s suggested retail price starting at $185,000 (excluding destination), the new Porsche 911 GT3 RS 4.0 goes on sale in the United States in late 2011.
Chris Harris has an exclusive interview with Andreas Preuninger about the new Porsche 911 GT3 RS 4.0. Read the full story at www.evo.co.uk
The UK list price is yet to be confirmed, but Porsche has advised that £128,000 is likely to be the figure. There are only 600 cars being built, and fewer than 50 will come to the UK.
About Porsche Cars North America Porsche Cars North America, Inc.
(PCNA), based in Atlanta, Ga. is the exclusive U.S. importer of Porsche sports cars, the Cayenne SUV and Panamera Gran Turismo. Established in 1984, it is a wholly-owned subsidiary of Porsche AG, which is headquartered in Stuttgart, Germany, and employs approximately 220 people who provide parts, service, marketing and training for 196 dealers. They, in turn, work to provide Porsche customers a best-in-class experience that is in keeping with the brand’s 63-year history and leadership in the advancement of vehicle performance, safety and efficiency. At the core of this success is Porsche’s proud racing heritage that boasts some 30,000 motorsport wins to date. Note:
To commemorate its social media milestone of surpassing one million fans on Facebook, Porsche has created this special edition of the 911 GT3 R Hybrid complete with the signatures of over 27,000 Porsche fans. The car makes its North American debut this week at the New York Auto Show before it goes on display inside the Porsche Museum in Stuttgart.
Porsche’s hybrid racer develops 480 hp from its 4.0-litre flat-six engine and is matched with two 80-hp electric motors. The German automaker recently tested the hybrid system’s capability during the 2010 24 Hours of Nürburgring, and Porsche firmly believes that hybrid performance cars like this foreshadow the future of racing.
Porsche has achieved yet another milestone, the fastest 1,000,000 facebook fans in automotive history! This is the gift Porsche had prepared for their Facebook fans.
Porsche currently has over 1,504,488 fans on Facebook.
The name Porsche has been associated with pioneering innovations in automotive engineering since the beginning of the last century. In 1900 Ferdinand Porsche, founding father of the present-day Dr. Ing. h.c. F.Porsche AG, Stuttgart, entered uncharted territory. With the first functional, full-hybrid car in the world, the ‘Semper Vivus’ (‘always alive’), the principle of the serial hybrid drive had been born. In a four year project the Porsche Museum in Stuttgart had the Semper Vivus recreated. 111 years after this ground breaking innovation by Ferdinand Porsche the Semper Vivus will again drive into the limelight of future appearances as part of the Porsche Museum collection in Stuttgart.
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Source: Porsche AG
He developed the world’s first hybrid car, advanced electric car, and all-wheel drive car a century ago, and now Porsche brings a recreation of his Semper Vivus to New York
NEW YORK – April 20, 2011 – The name Porsche has been associated with pioneering automotive engineering innovations since the beginning of the last century. In 1900 Prof. Ferdinand Porsche unveiled his Lohner Porsche, an electric car with wheel-hub motors driving the front wheels. Soon after, this car featured all-wheel drive and four-wheel brakes, another world first. A highlight of his early years as an automotive designer was the Lohner-Porsche Semper Vivus that went down in history 111 years ago as the first functional hybrid car.
Video: Fox Car Report @ New York
Porsche’s Semper Vivus (Always Alive) recreation is a tribute to Prof. Porsche’s visionary invention. The fully functional Semper Vivus replica, based on original drawings and exhaustive research, is a collaborative effort between Porsche Engineering and Karosseriebau Drescher, a coachbuilding company based in Hinterzarten in the state of Baden-Württemberg, Germany. This faithful replica, whose visionary design impresses to this very day, is on display at the New York Auto Show press day on April 20.
Source & Credits: Porsche
The history of the Lohner-Porsche Semper Vivus
Prof. Ferdinand Porsche was busy designing and developing his cars as early as 1896. The first fruit of his endeavors was an electric vehicle known as the Lohner-Porsche. It was driven by steered wheel-hub motors, and it caused a sensation at the Paris World Exhibition in 1900. This was soon followed by an even more impressive example of Prof. Porsche innovative spirit. A racing car boasting four wheel-hub electric motors became the world’s first all-wheel drive passenger car and marked the automotive engineering debut of four-wheel brakes. No less visionary was Prof. Porsche’s next idea; in 1900 he combined his battery-powered wheel hub drive with a petrol engine, thus creating the serial hybrid drive principle.
Prof. Porsche had entered uncharted territory with the Semper Vivus, the world’s first functional, full-hybrid car. In this vehicle, two generators paired with petrol engines formed a single charging unit, simultaneously supplying electricity to wheel-hub motors and batteries. In autumn 1900, Prof. Porsche set to work on a first prototype with petrol-electric hybrid drive. Presumably he based the world’s full hybrid car on a conversion of his electric racing vehicle from the Semmering-Bergrennen race. To this end he combined his electrical wheel-hub motors with two combustion engines and no mechanical connection whatsoever to a drive axle. Instead, they each drove an electric generator supplying both the wheel-hub motors and accumulators with electricity. This was the birth of serial hybrid drive. As a full hybrid concept, the Semper Vivus was also able to cover longer distances purely on battery power until the combustion engine had to be engaged to recharge the batteries.
To save weight and create room for a petrol engine, Prof. Porsche swapped the original 74-cell accumulator in his electromobiles for a smaller battery with only 44 cells. In the middle of the vehicle he installed two water-cooled 3.5 PS (2.6 kW) DeDion Bouton petrol engines — driving two generators to create electricity — each producing 2.5 hp (1.84 kW). Both engines operated independently, each delivering 20 amperes with a voltage of 90 volts. The electricity generated by the dynamos initially flowed to the wheel-hub motors, with the surplus power being sent on to the batteries. An added bonus was that it was also possible to use the generators as electric starter motors for the petrol engines by reversing the direction of rotation.
In practice, Prof. Porsche still had to contend with the principal problem of his wheel-hub cars – the vehicle’s heavy weight. Although the Semper Vivus hybrid car’s total weight was only 70 kg more than the original version, the 1,200 kg prototype was a challenge for the pneumatic tires’ soft rubber mix. In other respects as well the hybrid concept was still a long way away from being ready for series production. With its bodiless chassis, exposed petrol engines and unsprung rear axle, the Semper Vivus may have impressed visitors to the Paris Motor Show in 1901 but potential car buyers must have felt the bare-bones prototype was not for them. The interaction of engine, batteries and control system also still needed a lot of development and in addition to the ambitious control technology, a constant problem was dirt being thrown up and fouling of the accumulators. Yet the hybrid concept pointed to new possibilities that Prof. Porsche resolutely set about turning into reality.
The road to the Lohner-Porsche Mixte
In 1901 Prof. Porsche developed the revised concept of his ‘petrol-electric hybrid car’ into a variant that was ready for series production under the Lohner-Porsche Mixte name (borrowing the French term ‘voitures mixtes’). With a four-cylinder, front-mounted engine, this model mirrored the Mercedes vehicle concept just recently designed by Wilhelm Maybach but with its two wheel-hub motors still conforming to the concept of a serial hybrid car. Prof. Porsche was now using a powerful 5.5-liter, 25-hp (18 kW) four-cylinder engine from the Austrian Daimler engine company as an electrical generator. The engine was connected by a driveshaft to the electric generator located under the seat, with control handled by a primary controller next to the steering wheel.
To solve his vehicles’ weight problems, Prof. Porsche was constantly reducing battery size while also attempting to design a dust-proof battery housing. While the Lohner-Porsche Mixte was only able to drive a few kilometers on electric power alone because of the reduced battery capacity, the unladen weight of the four-seat touring car including body fell to around 1,200 kg. In normal driving mode the petrol engine and generator ran at a constant speed, feeding the wheel-hub motors and battery with electricity at a constant voltage. In addition to his drive concept’s high-level of efficiency, the car offered other advantages as well. By reversing the polarity, the generator could be used as an electric starter motor, eliminating the need for the strenuous and hazardous hand cranking of the engine.
Before the end of 1901, Ludwig Lohner and Prof. Ferdinand Porsche had pulled off a respectable result by selling five Lohner-Porsche Mixte cars. With a selling price of approximately 14,000 Krone each, this made the cars very exclusive commodities. The purchaser of this initial series was Emil Jellinek, the well-known general agent of the Daimler engine company in Stuttgart-Untertürkheim and the inspiration behind the first Mercedes (named after his daughter) only the year before. Despite this contact, a cooperation agreement to supply Mercedes engines failed to materialize and only seven Lohner-Porsches with Daimler engines were built. From 1903 onwards, petrol engines from Panhard & Levassor were used because the large French automotive manufacturer had acquired the license rights for France, Great Britain and Italy from Ludwig Lohner.
At about the same time, Prof. Porsche again significantly modified his cars’ drive concepts. For the weight reasons and to reduce production costs he dispensed with the purely electric driving capability and shrunk the battery to a minimum for initiating the starter motor. He replaced the missing energy storage unit with another innovation. The generator, designed as a stationary armature machine, was fitted with an electro-mechanical speed regulator patented as a “device for automatically regulating electric generators.” Prof. Porsche also ushered in a further development in wheel-hub motor technology. A redesigned hub casing allowed the kingpins to be relocated closer to the center of the wheel. This steering geometry, patented in May 1902, significantly reduced the effect of road impacts and the effort needed to turn the steering wheel. To reduce the unsprung mass of the wheels, Prof. Porsche also reduced the diameter of his wheel-hub motors, which he compensated for by using wider windings.
In April 1902, having incorporated these improvements, Prof. Porsche took his place on the starting grid for the Exelberg race. His two-seat Mixte racing car was not only visually impressive due to its modern proportions but impressive on the track, as well. His Lohner-Porsche seemed to cope effortlessly with even the steepest gradients of the 4.2-km gravel road leading up to the Exelberg, and it emerged as the victor in the large car class. Porsche received additional high-profile publicity in the autumn of 1902 when he chauffeured Austrian Archduke Franz Ferdinand in the Lohner-Porsche during a military maneuver. The aristocratic passenger seems to have liked the vehicle with its elegant touring body. Soon after, Prof. Porsche received a thank you letter testifying “just how satisfied in every respect his Imperial Majesty” was after the ride.
Despite these impressive demonstrations, sales of the Mixte production variants remained far lower than expectations. With only 11 hybrid cars sold, the return on investment was not on par with the enormous technical development costs between 1900 and 1905. The main problem was undoubtedly the high sales price. Depending on design and equipment, a Lohner-Porsche Mixte cost between 14,400 and 34,028 Krone, in some cases making it almost twice as expensive as comparable, conventionally powered motor vehicles. This was compounded by the high maintenance cost of the complex drive system that was unable to keep pace with the ever increasing reliability of normal petrol cars. Pure electric vehicles, however, were economically more successful. Approximately 65 Lohner-Porsche electric cars were sold during the first five years of series production to the end of 1905.
The reincarnation of the Semper Vivus
In November 2007 the Porsche Museum embarked on one of the most interesting and challenging projects in its history: the construction of a faithful replica of the 1900 Lohner-Porsche Semper Vivus. Even 111 years after its invention, building the world’s first functioning hybrid car was a great challenge for all. Ultimately it was not just about an extreme attention to visual details but also achieving the same performance as the original. The Porsche Museum entrusted the workmanship to a team of experts led by coachbuilder Hubert Drescher, who had already proven his competence in numerous difficult restoration projects. As with a number of racing car projects, the aluminum body of the Porsche Type 64 museum exhibit originates from the Hinterzarten coachbuilder workshop, as well.
Exhaustive research in various archives the across Europe was the first step. The outcome was a handful of black-and-white photos and an original technical drawing serving as the project’s foundation. As with Prof. Porsche, the Semper Vivus replica initially began as a blank sheet of paper. This meant that in addition to a good deal of imagination, the project required extensive research and calculations in order to be faithfully recreate an accurate and working likeness of the electric wheel-hub motor. Since no specifications or other helpful records had survived, experts initially created ready reckoners and design drawings on graph paper in the time-honored fashion. This involved the painstaking study and laborious measurement of photos and drawings. As there was no functioning wheel hub motor in existence, technical details such as performance and range had to be resurrected and calculated from scratch.
When it came to selecting materials, coachbuilder Drescher took his inspiration, among other sources, from coaches and carriages from the dawn of the 20th Century. This required the assistance of experienced suppliers who were entrusted with the manufacturing of the special materials. The fully functioning Semper Vivus replica, which took approximately three years to build, does not solely include replica components. For example, it was possible to fit some original components including combustion engines.
Today, Prof. Ferdinand Porsche’s innovative spirit lives on at Porsche AG’s Research and Development Center in Weissach, Germany where the company is applying its engineering strength to develop various hybrid systems. Porsche’s first production hybrid, the 2011 Cayenne S Hybrid SUV, is on sale in many markets including the United States. Its parallel full hybrid system will be adapted for use in the Panamera S Hybrid that goes on sale later this year with a U.S. MSRP of $95,000 (excluding destination). Porsche engineers are busy developing its 911 GT3 R Hybrid racecar for further competition while continuing work on the 918 Spyder plug-in hybrid super sports car the company first showed at the Geneva Auto Show in 2010.
Semper Vivus Facts and Figures
Year
Units
Engine:
2x Single cylinder De-Dion-Bouton combustion engine
Output:
2.5 hp (1.85 kW) per cylinder
Electric motor output:
2.7 hp (2 kW) per wheel
Top speed:
35 km/h (22 mph)
Range:
200 km (124 miles)
Overall width:
1,880 mm
Overall length:
3,390 mm
Overall height:
1,850 mm
Total weight:
1.7 tons
Front wheel weight (single):
272 kg (with wheel hub motor)
Track width front:
1,350 mm
Track width rear:
1,540 mm
Wheelbase:
2,310 mm
Ground clearance:
250 mm
About Porsche Cars North America
Porsche Cars North America, Inc. (PCNA), based in Atlanta, Ga. is the exclusive U.S. importer of Porsche sports cars, the Cayenne SUV and Panamera Gran Turismo. Established in 1984, it is a wholly-owned subsidiary of Porsche AG, which is headquartered in Stuttgart, Germany, and employs approximately 220 people who provide parts, service, marketing and training for 196 dealers. They, in turn, work to provide Porsche customers a best-in-class experience that is in keeping with the brand’s 63-year history and leadership in the advancement of vehicle performance, safety and efficiency. At the core of this success is Porsche’s proud racing heritage that boasts some 30,000 motorsport wins to date.
Watch as Porsche Factory Driver Patrick Long and Chef Sosa take the Porsche Cayenne S Hybrid through New York City to Union Square Market to prepare for an evening of Healthy Intelligent Performance.
Livestream Poggenpohl Event
Healthy Intelligent Performance w/Top Chef Angelo Sosa and Porsche Race
Car Driver/Les Mans Champion Patrick Long
The original recipes below were developed by Chef Angelo Sosa exclusively for Porsche Cars North America and the Porsche Healthy Intelligent Performance event. BREAKFAST
HIGH-PERFORMER’S MILKSHAKE
5 OZ. WHEATIES
3 PC. CARDAMOM
1 PC. STAR ANISE
16 OZ. SOY MILK
2 T. AGAVE NECTAR
METHOD: INFUSE WITH SOME SPICES STAR ANISE, CARDAMOM AND WHEATIES
WITH THE SOY MILK. BRING THE MILK TO A SIMMER, ADD ALL THE INGREDIENTS
AND LET IT STEEP AS IF IT WAS A TEA. REMOVE THE SPICES AND BLEND THE
LIQUID MIXTURE, AND CHILL AND SERVE.
“MODERN BAGEL”
½ LB. CREAM CHEESE
½ LB. SMOKED SALMON
4 OZ. MILK
1 TSP. SALT
GARNISH: CAPERS, DILL
METHOD: BLEND ALL INGREDIENTS TOGETHER IN VITA PREP AND PLACE INTO SIS
WHIP CREAM GUN—AERATE SALMON MOUSSE ONTO MINI BAGELS, GARNISH WITH
CAPER AND DILL PLUCHES
PICKLED BEETS WITH CURRIED HONEY
1 LB. BEETS, BABY
1 OZ. EVOO
½ OZ. THYME
1 T. SALT
2 OZ. WATER
Angelo Sosa Bio
“As a chef, I’m loyal to my classic training, but with a passion for innovation. I love extracting and blending flavors and taking the ordinary to new heights.”
New Campaign will Rely Heavily on Owners’ Everyday Stories
Atlanta, March 24, 2011 – For the first time, Porsche is challenging many Americans’ perception of Porsche sports cars and in particular the 911 in a new campaign launching today.
The Engineered for Magic. Everyday campaign, via agency Cramer-Krasselt/Chicago, seeks to show the many dimensions of the iconic Porsche 911 and the brands other storied sports cars through the lens of daily driving.
The magic of Porsche is how thoroughly the cars transform your everyday, routine driving,said David Pryor, vice president of marketing, Porsche Cars North America. It’s not only about the weekend joyride. It’s the only car in the world that combines true sports car exhilaration and the drivability for daily use. This campaign brings this fact to life, painting a bigger picture of the real Porsche value proposition, in some cases through the words and images of owners themselves.
Spanning TV, print, online, mobile, direct mail and a cinema promotion, the campaign drives home the engineering genius that allows these coveted sports cars to be everyday drivers.
When most people think of Porsche, they think magic and the cars certainly are, said Marshall Ross, chief creative officer, Cramer-Krasselt. What is markedly different about this campaign is were not selling the dream-car mystique of Porsche — that’s already a given. The creative challenge here was to tell the truth of the drivability of the car and still make it feel as special as it really is.
Debuting in selected markets tonight during the NCAA Tournament, the TV spot features vignettes of Porsche sports car owners in a number of seemingly everyday scenes:a parent picking up kids at school, a man running a home-improvement-store errand and a mom clearing away snow from the windshield each with titles re-characterizing the car as a school bus, a pickup truck and a snowmobile. In another vignette, as a man fires up the engine after a long day at the office, we see how the car’s incredible, mood-shifting virtues as his getaway car complement the everyday ones.
The closing voiceover says: Engineered for Magic. Everyday.
At the hub of the integrated campaign is a consumer-generated website PorscheEveryday.comwhere owners can share their own everyday stories.
With a combination of professionally produced videos and images along with owner-submitted content, the site builds a mosaic showcasing the many ways a Porsche is engineered for everyday magic.
For this effort, Porsche has once again reached out to its passionate and active loyalists and enthusiasts to participate and contribute to the story.
Last month, to start things off, Porsche sent 200 Flip video cameras to select owners asking them to contribute videos. The brand has also invited input from all its owners, the Porsche Club of America, dealers and their customers, and the million-plus Facebook fans for everyday stories, photos and videos.
In partnership with the Reelz channel, Porsche will also invite amateur film-makers to submit films that demonstrate daily magic.
Ten filmmakers will be selected to experience daily magic in a Porsche and then make a film about the experience. The winning submission will be shown in cinemas across the country …a first for Porsche and on the Reelz channel.
Porsche Cars North America, Inc. (PCNA), based in Atlanta, Ga. is the exclusive U.S. importer of Porsche sports cars, the Cayenne SUV and Panamera Gran Turismo. Established in 1984, it is a wholly-owned subsidiary of Porsche AG, which is headquartered in Stuttgart, Germany, and employs approximately 220 people who provide parts, service, marketing and training for 196 dealers. They, in turn, work to provide Porsche customers a best-in-class experience that is in keeping with the brand’s 63-year history and leadership in the advancement of vehicle performance, safety and efficiency. At the core of this success is Porsches proud racing heritage that boasts some 30,000 motorsport wins to date.
About Cramer-Krasselt
Cramer-Krasselt is the second-largest independent marketing and communications agency in the U.S., with billings nearing $1 billion. An Advertising Age Agency to Watch three of the last four years, C-K has grown by more than 50 percent since 2005. C-K is frequently recognized for its insight-driven creativity spanning advertising, digital, engagement strategies and public relations that helps clients change their category conversation. Headquartered in Chicago with offices in New York, Milwaukee and Phoenix, it represents major brands across virtually every industry, including: Benjamin Moore, Benihana, BRP (Ski-Doo, Sea-Doo, Evinrude), Burlington Coat Factory, Corona Extra, Crocs, Edward Jones, Â Heinz (Ketchup, Smart Ones, Classico, Ore-Ida, Steam Mash), Hilton Hotels Worldwide, Johnsonville Sausage, Porsche, World Kitchen (Pyrex, Corelle) and Zicam. For more information, visit Cramer-Krasselt at www.c-k.com.
Starting gun for sales of the Porsche 918 Spyder hybrid super sports car 918 units of exclusive future technology
The latest rendering of Porsche’s plug-in hybrid 918 Spyder super sports car.
Now available for ordering, the 918 Spyder will feature cutting-edge plug-in hybrid technology and stunning performance, forever changing the future of the super sports car
ATLANTA – March 21, 2011 — After outstanding customer response to the concept car first shown at the 2010 Geneva Motor Show, Porsche today announced that dealers around the world will begin taking 918 Spyder customer orders. This is a significant step toward actual production of the company’s next super sports car, a Porsche that marries unique plug-in hybrid technology and outstanding performance in a visually stunning and purely Porsche package. Porsche Press Release
Stuttgart. Today is the day that Dr. Ing. h.c. F. Porsche AG, Stuttgart, puts on sale the 918 Spyder super sports car with its innovative plug-in hybrid drive. Production development is proceeding apace in the wake of the outstanding customer response to the concept car unveiled at the Geneva Motor Show 2010. Thanks to its unique hybrid technology, the 918 Spyder is estimated to consume a mere three litres of fuel per 100 kilometres (94 mpg imp.) based on the New European Driving Cycle (NEDC). Its V8 engine delivers more than 368 kW (500 hp), assisted by two electric motors with a total of at least 160 kW (218 hp). The 918 Spyder is available for immediate order priced from 645,000 Euro – subject to VAT and country-specific charges.
To ensure a 918 Spyder’s exclusivity, the two-seater is limited to no more than 918 units. The earlier a customer orders his vehicle, the earlier it will be delivered, as production is initialized in the same sequence in which orders are received. Production of the 918 Spyder is scheduled to commence on 18 September 2013 – 9/18 in US date convention – in a quasi manufacturing operation at Porsche’s main plant in Stuttgart-Zuffenhausen. Delivery of the initial vehicles will commence in November 2013.
The design’s DNA is derived from the Carrera GT and Porsche 917 sports car as well as the RS Spyder and is very closely modeled on the 2010 concept car. Unlike the concept car, however, the production version of the two-seater, based on a carbon fibre-reinforced plastic monocoque, features a manual roof system with removable roof panels that can be stowed in the front luggage compartment.
The 918 Spyder is driven by a unique type of plug-in hybrid system. It comprises a high-revving V8 engine with a displacement exceeding four litres and output of more than 368 kW (500 hp). The mid-engine power unit is based on the racing engine of the successful Porsche RS Spyder, which provided impressive proof of its efficiency with its multiple victories in the Michelin Green X Challenge in the American Le Mans Series, the Le Mans Series and the 24 Hours of Le Mans. Power transmission to the rear wheels is by means of a compact, seven gear Porsche-Doppelkupplungsgetriebe (PDK). This is complemented by two electric motors – one each on the front and rear axle – with a joint mechanical output of at least 160 kW (218 hp). This configuration offers an innovative, variable all-wheel drive with independent control of the propulsion force on both axles. The energy storage unit is a liquid-cooled lithium-ion battery that can be charged from a conventional domestic power socket, delivering a range in excess of 25 km (16 miles) in the NEDC on purely electric power. The charging time depends on the country-specific mains network, being approximately three hours in Germany, for example. A quick charging option is planned to reduce charging time yet further.
The 918 Spyder’s combined total fuel consumption in the NEDC (ECE-R 101) is anticipated to be 3.0 l/100 km (94 mpg imp.), equating to CO2 emissions of 70 g/km (112 g/mile). Despite that, the super sports car offers performance of the highest order. It accelerates from a standing start to 100 km/h (62 mph) in a maximum of 3.2 seconds and has a top speed of more than 320 km/h (199 mph). That means the Spyder will be able to manage a lap of the Nürburgring Nordschleife in less than seven minutes and 30 seconds – trumping the Porsche Carrera GT, which needs seven minutes and 32 seconds. The top speed on purely electric power is 150 km/h (94 mph).
To shorten the time the customer has to wait for the 918 Spyder, Porsche is offering everyone placing an order the exclusive opportunity to acquire a 911 Turbo S “Edition 918 Spyder”, also limited to no more than 918 units. Visually, both inside and out, the special edition is inspired by the 918 Spyder’s characteristic individual features. That includes the distinctive acid green features such as the specific and part-embroidered model logos and seams, the instrument cluster needles, the specific PCM screen and illuminated door entry guards. The limited edition badge on the glove compartment lid bears the same number as the 918 Spyder the customer has ordered. The 911 Turbo S “Edition 918 Spyder” can also be ordered in the same colour.
Both the technology and basic equipment of the new 911 Turbo S “Edition 918 Spyder” are based on the 530 hp (295 kW) 911 Turbo S. In the case of the special edition, the already comprehensive standard equipment is complemented in particular by an enhanced leather interior, a special instrumentation version and additional carbon elements both inside and out.
The 911 Turbo S “Edition 918 Spyder” is being offered to coincide with the commencement of sales of the 918 Spyder with deliveries starting in June 2011. The Coupé version of the special edition costs 173,241 Euro in Germany and 184,546 Euro as a Cabriolet – including VAT and country-specific equipment items respectively.
Note: Images of the 918 RSR and the 911 Turbo S “Edition 918 Spyder” from the Porsche press database
According to Porsche, you can buy a 918 Spyder from any Porsche dealer anywhere in the world, provided they’ve signed a participation agreement with Porsche. Details are few and far between on what that agreement entails. What Porsche is saying, though, is how dealers who sign the agreement will order their cars.
Dealers who want to place an order for a 918 will have to submit an “Allocation Request Form.” Porsche will reply with an “Allocation Response Form,” which tells the dealer whether there’s a car available for them. Once that’s done, the dealer submits an order form, along with a $200,000 down payment. Porsche will respond with a confirmation and an estimated month for production.
The next step is another $200,000 deposit 12 months before the production date. The balance – $445,000 plus shipping, if you’re counting – is due when Porsche says the car is done. Porsche says the car will not be shipped until it has been paid for in full. The reason, apparently, is that it won’t be building any of the hyper-expensive 918s on speculation, and that each car needs to have an owner before it is built.
Porsche unveiled a new Boxster variant this week, the all electric Boxster E is a “mobile laboratory” for testing Porsche’s future electric drivetrain technology. There are currently 3 identical Boxster E’s being tested on the roads of Stuttgart, near the Porsche factory in Germany.
With 240hp and AWD the Boxster E makes the 0-60 dash in 5.3 seconds, it uses twin electric motors and has a 29 kWh battery system mounted behind the seats, offering ideal weight distribution. Porsche hasn’t revealed the top speed, range or charge time specifications for the car as Porsche is staying tight lipped about it, not uncommon when it comes to test-bed cars.
Most industry insiders are suggesting that this will be the first all electric offering from Porsche and may hit showrooms as early as 2012 with 2013 being offered as a slightly more realistic shipping date.
The Boxster is the smallest and lightest car in Porsche’s current model line up, making it ideal for an electric car conversion. Porsche has been making serious inroads into the electric and hybrid vehicle space in the past 12 months with the introduction of both the 918 RSR and the 911 GT3 Hybrid.
More updates will follow as news and information comes in from Porsche.There’s no word on when consumers will be able to get their hands on an all-electric version of the Boxster, and other details on the guts of the car are fairly sparse.
“We’ll have something spectacular to show there,” Hans- Gerd Bode, a spokesman at the Stuttgart-based carmaker, said in an interview today. “You’ll have to wait and be surprised.”
At the North American International Auto Show in Detroit, Porsche will debut a new model.This video might give you a glimpse at what you can expect to see. Watch the unveiling live, in the webcast from 6:30 AM EST (11:30 AM GMT) at http://www.porsche.com/detroit
Just the Facts:
Porsche will roll out a new model in Detroit on January 10, 2011.
Other models will make their U.S. debuts at the Detroit show.
A live Webcast will enable the public to watch the premieres.
STUTTGART, Germany — Porsche has announced it will unveil an all-new model in a world premiere at the 2011 Detroit Auto Show January 10th. Porsche has an official presence at the Detroit show this year for the first time since 2007.
Porsche has been hinting for some time that its return to the Detroit show would include an impressive debut.
Speculation is that it will be a supercar that could be a version of the 918 Spyder concept that made its debut at the 2010 Geneva Auto Show and was recently green-lighted for production a few months later. The German magazine Auto Zeitung reported earlier this month that the car could be the 929, a “no-compromise two-seat supercar” based on the 918 that would slot in above the 911.
First Press Conference at Detroit Auto Show Is World Premiere of New Porsche Concept
SOURCE Porsche Cars North America, Inc.
German Car Company Returns to Motor City with Highly Anticipated Concept Vehicle
ATLANTA, Jan. 7, 2011 /PRNewswire/ —
WHAT:
In aworld premiere,Porsche will take the wraps off a new car that promises to be one of the most intriguing and talked-about debuts at the show. This marks the automaker’s first appearance at the Detroit Auto Show in four years.
WHO:
Matthias Muller, President and CEO, Porsche AG,
Wolfgang Durheimer, Board Member, Research and Development, Porsche AG
Bernhard Maier, Board Member in Charge of Sales & Marketing, Porsche AG
Michael Mauer, Head of Design, Porsche AG
Detlev von Platen, President and CEO, Porsche Cars North America
WHEN:
6:30 a.m., Monday, January 10, 2011
USA/Canada – live feed
06.20 – 07.05 A.M. EST (= 11.20 – 12.05 UTC/GMT)
Live event to start appx 06.30 EST (= 11.30 UTC/GMT)
To be followed by footage at the end of the live part
WHERE:
Porsche Stand,
Cobo Hall
1 Washington Boulevard
Detroit, Michigan
Satellite broadcast of Porsche Press Conference at North American International Auto Show 2011 from Detroit.
Webcast Link: The press conference will be broadcast live 6:30 a.m., Monday, January 10, 2011 on the Porsche website www.porsche.com/detroit.
Inside Line says: Porsche isn’t saying anything — except to remind the faithful to keep watching.
Porsche is now unveiling the 2011 911 GT3 RSR, the latest iteration of what’s surely the most successful GT race car of all time.
What’s new? More power, for one thing.
Porsche has made extensive changes to the 911 GT3 RSR to be competitive in the coming season on the routes of the world.
Her world premiere of the 2011er version of the world’s most successful racing car in the GT racing season party “Night of Champions” at the Development Centre Weissach. When developing the GT3 RSR had a redesigned aerodynamics at the front and rear, changes to the suspension kinematics and on the engine in the foreground.
The Porsche 911 GT3 RSR, including lots of detailed improvements in the new season.
The naturally aspirated 4.0-liter flat-six gets a 5-hp bump to 455, the full power of which is unleashed at 7800 rpm. Maximum torque is 332 lb-ft, and the powerhouse still redlines at a screaming 9400 rpm. Vrroooom!!!
To achieve the slight power gain, Weissach engineers tweaked the engine control to adjust even more precisely to differing fuel quality. The intake is also reworked, while the exhaust system is entirely new. The four-valve-per-cylinder engine sports individual throttle bodies and dry-sump lubrication. It’s an evolution of a tried-and-true engine, not the new, direct-injection powerplant now used in most of Porsche’s street-legal 911s.
The task of routing the power to the rear wheels falls to a sequential six-speed gearbox with a three-disc carbon clutch. The traction-control system is adjustable and tuned to enable maximum acceleration. Eighteen-inch BBS wheels are fitted; the fronts are wider than last year’s—12 inches instead of 11—while the rear wheels remain a staggering 13 inches wide. The suspension is completely adjustable. Despite a galvanized-steel body, the new long-distance racer weighs a claimed 2690 pounds.
From the outside, you can tell it’s the 2011 model by the LED taillights taken directly from the street-legal current-gen 997. There is a new front lip spoiler with improved airflow; the rear is also tweaked, adding additional apertures for ventilation. While the rear now looks much like the current 997, the GT3 RSR curiously keeps the looks of the “phase-one,” pre-2009 997 at the front. The cutout for the front turn signals looks almost exactly like that of the 2004–2008 models. It’s a surprising decision as the GT3 Cup and the GT3 R, the RSR’s sister models in Porsche Motorsport’s lineup, showcase the latest 911 styling in full.
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The 911 GT3 RSR is not street legal, and the price is steep: In Germany, Porsche will charge €410,000 before taxes. At current exchange rates, that’s more than half a million dollars. But for those on a budget, Porsche Motorsport will offer a kit to upgrade last year’s model to 2011 specs.
Technical description Porsche GT3 RSR (2011 model year) Engine
Water-cooled six-cylinder boxer engine; 3,996 cc; stroke 80.4 mm; bore 102.7 mm; 455 hp (335 kW) at 7,800 rpm; max. torque 450 Nm; air restrictors 2 x 28.6 mm; max. revs 9,400 rpm; four valve technology; dry sump lubrication; individual throttle butterflies; fuel injection.
Body
Monocoque body (basis GT3 RS) of hot-galvanised steel; aerodynamically optimised front end with front spoiler; aerodynamically optimised front underfloor; adjustable rear wing; 90-litre FT3 safety fuel tank with fast filling function; air jack; welded-in safety cage; race seat (driver’s side only) with flame retardant upholstery; six-point seat belt adapted for use of the HANS Head and Neck Support; electric fire extinguishing system.
Suspension Front axle: McPherson spring strut axle; Sachs four-way gas pressure dampers; double coil springs (main and auxiliary); front axle arms adjustable for camber; adjustable sword-type anti-roll bar; power steering. Rear: Multi-arm axle with rigidly mounted axle sub-frame; Sachs four-way gas pressure dampers; double coil springs (main and auxiliary); rear axle tie-bar reinforced and infinitely adjustable; adjustable sword-type anti-roll bar. Complete suspension infinitely adjustable (height, camber, track).
Brake system
Brake system with balance bar control. Front: Single-piece six-piston aluminium fixed callipers; inner vented, 380 mm diameter; racing brake pads. Rear: Single-piece four-piston aluminium fixed callipers; inner vented, 355 mm diameter; racing brake pads.
Wheels Front: Three-piece BBS light-alloy wheels (12J x 18 ET 34); central bolt. Rear: Three-piece BBS light-alloy wheels (13J x 18 ET 12.5); central bolt.
Electrical system
Motec display with integrated data recording; multi-function display with integrated gearshift indicator; adjustable traction control; battery: 12 volt, 80 Ah, 140 Ah alternator.
Dashing through the snow…..in a 500 hp @ 6,000 rpm open Panamera Turbo Sleigh…..o’er the fields we go, drifting all the way…….exhaust notes ringing, making spirits bright….Oh what fun it is to drive a Panamera Turbo Sleigh tonight !…Oh Jingle bells, Jingle bells…Jingle 188 mph all the way.
Oh what fun it is to laugh and sing in a Porsche turbo sleigh…..dashing through the snowdrifts in a big white cloud of snow………with a V8 twin-turbo engine ….HO HO HO a way we go! Oh, what fun it is to drive a Porsche Turbo Panamera Sleigh
……WISHING YOU HAPPY HOLIDAYS !
Better be good boys and girls….Cause Santa’s comin’ soon in his Porsche Panamera sleigh!
The pace of leading-edge technological development in motorsport has once again been recognized by the prestigious Professional MotorSport World Expo Awards, with Porsche’s innovative 911 GT3 R Hybrid project scooping double honours at a ceremony in Cologne, Germany on Tuesday 16 November.
In the awards, which are given annually as part of the industry showcase, Professional MotorSport World Expo, the Porsche 911 GT3 R Hybrid was named “Vehicle Development of the Year”, while team leader,
Dr Daniel Armbruster, was named “Design Engineer of the Year”, for his work on the project.
Photo by: Dede Seward
Road Atlanta, ALMS Petit Le Mans Oct 2, 2010 – Porscheplatz
Vehicle Development of the Year
Winner: Porsche GT3 R Hybrid
Porsche’s 911 GT3 R Hybrid has raced with success throughout the 2010 season: in November it was the fastest GT car of all in the ILMC race at Zhuhai in China. For Awards judge Charles Armstrong-Wilson, this car “changed public perceptions about hybrids by introducing fresh technology to a new area of motorsport, and showing how it could be incorporated into a race vehicle that has much in common with a road car.”
“We spent a lot of time working to make this unique and innovative concept work,” said Dr Daniel Armbruster, project manager, Porsche 911 GT3 R Hybrid. “This car is our race laboratory. We learnt a lot about this new technology at the Nürburgring 24h; we then made some big steps forward between then and the Petit Le Mans at Road Atlanta and the 1,000km race in Zhuhai. There, the 911 GT3 R proved both its speed and efficiency: It was the fastest GT car in the race, lapping the second-fastest one three times, and it made one fewer pitstop compared to all the other GT cars.”
The judges said Porsche: “changed public perceptions about hybrids by introducing fresh technology to a new area of motorsport and showing how it could be incorporated into a race vehicle that has much in common with a road car. Rather than learning to live with the compromises [of] a hybrid system, Armbruster and his team found ways to derive unexpected benefits from the installation.”
Armbruster commented:
“Porsche is proud to receive these awards. We worked hard to make this unique and innovative concept work. The Porsche 911 GT3 R Hybrid is our race laboratory – we learned much about this new technology at the Nürburgring 24 Hours; then made some big steps forward on the way to the 1,000km race in Zhuhai.”
Design Engineer of the Year
Winner: Dr Daniel Armbruster – Porsche Motorsport
sponsored by Hewland Engineering
Dr Daniel Armbruster led the Porsche Motorsport development team behind the firm’s first hybrid racing car. The Awards jury was hugely impressed by such an innovative project. Said one member of the panel, “Rather than learning to live with the compromises from incorporating a hybrid system, Armbruster and his team found ways to derive unexpected benefits from the installation.
There was also praise for Porsche’s use of the Williams Hybrid Power (WHP) KERS technology,
which the judges described as
“a correct and innovative move to finally demonstrate this expensive development from Formula 1 in the wider sport.”
The WHP electromechanical composite flywheel was considered runaway winner as “Powertrain Innovation of the Year”.
Ian Foley, managing director of WHP commented:
“2010 has been a breakthrough year for Williams Hybrid Power, with the success of the program with Porsche Motorsport demonstrating that our flywheel technology is robust in the harshest of racing environments.”
Powertrain Innovation of the Year
Winner: Williams Hybrid Power – Flywheel KERS
Future applications for Williams Hybrid Power’s (WHP) electromechanical composite flywheel could include anything from Formula 1 cars to buses or rapid transit systems. Awards judge David Tremayne, from Grand Prix + [plus], commented, “KERS is a valuable accessory that F1 is revisiting for 2011. The flywheel solution has always seemed the most logical and ‘green’ to me, and Williams’ system, though as yet unraced in the big league, is seminal.”
Accepting the award at the presentation in Cologne, Ian Foley, managing director of WHP commented, “2010 has been a breakthrough year for Williams Hybrid Power, with the success of the programme with Porsche Motorsport demonstrating that our flywheel technology is robust in the harshest of racing environments. This is an excellent example of how motorsport can accelerate the development of new technologies, enabling WHP to get our product to market in the shortest timeframe.”
One “name” you will be hearing more about next year & in the future is flywheel battery technology.
This video relives the dramatic events of the 24 Hour Race at the Nürburgring. Although the 911 GT 3 R Hybrid failed to score a sensational victory, it showed the potential of Porsche Intelligent Performance.
Marc Lieb, Porsche Factory Driver
Patrick Long, Porsche Factory Driver tests the Porsche 911 GT3 R Hybrid at the Lausitzring in Germany in July 2010.
Porsche’s 911 GT3 R Hybrid race car used the technology for the first official race in North America on Oct 2nd, 2010 in the final round of the 2010 American Le Mans Series. (It finished in the middle of the pack.)
Following the season finale of the Porsche Carrera Cup Asia, the Porsche racing laboratory raced at the Intercontinental Le Mans Cup in Zhuhai on 7 November 2010.
The relentless pace of the Porsche GT3 Hybrid of Joerg Bergmeister Porsche Factory Driver and Patrick Long Porsche Factory Driver was impressive. The first GT first to finish the race – but ranked outside classification – finished in sixth place overall in the 1000 km of Zhuhai and made only four pit stops! A performance that earned the German manufacturer the Motul trophy for technological innovation.
“The first race in China with the 911 GT3 R Hybrid was a complete success,” says Hartmut Kristen, Porsche Head of Motorsport. “The car contested the entire race without the slightest technical problem. The excellent pit stops by our factory squad from Weissach and an absolutely perfect performance from the drivers also contributed to this success. The development work on the hybrid system that we conducted since the last race in Road Atlanta has paid off. Today, we showed impressively just what potential the hybrid technology has. This result is a great motivation for continuing our work on the project. This was definitely not the last race for the 911 GT3 R Hybrid.”
The 911 GT3 is Porsche’s first hybrid racer and the precursor to the Porsche 918 Spyder Hybrid production car, which will launch in 2012. Detlev Von Platen, CEO of Porsche North America, says the flywheel technology used in both of the cars represents the future of Porsche.
“This car will define the next 60 years of Porsche,” Von Platen said.
The Porsche 918 Spyder Hybrid
Flywheel technology uses two electric motors at the front axle to supplement the engine (in this case, a 480 horsepower rear-mounted engine). It converts kinetic energy gathered while braking into electrical energy and stores it in a flywheel. Then during acceleration, that energy moves to the front wheels, which support the combustion engine. The process leads to a decent reduction in fuel consumption and an increase in cruising range; the big advantage in races is that the car has to refuel less often, buying it precious minutes on the course.
It’s an exciting advance in making cars more efficient without sacrificing speed and agility–the 918 is no shrinking violet, with an expected 500-plus horsepower all-wheel-drive and 0-62 mph time of 3.2 seconds. Porsche says 900 prospective buyers have already signed up to buy it.
What do you think – is flywheel tech the power of the future? What other car technology should we be watching for?
Specs:
Type: Hybrid
Class: GT Racing
Manufacturer: Porsche
Propulsion system: Hybrid-Electric
Fuel(s): Gasoline / Electricity
Battery system: KERS Flywheel
Time to full battery recharge: Seconds
Price: Not Listed
Availability: 2011-12, Limited
Porsche says
We hope that this will be just the start of the evolution of hybrid systems developed for Formula One moving across to applications where they can contribute to cleaner and more powerful vehicles.
Overview
The Porsche 911 is probably the most well-known vehicle Porsche has ever made and the 911 GT3 R Hybrid will be the latest in the racing line that Porsche has been putting out for competition Gran Tourismo racing. This latest incarnation is not a hybrid in the traditional sense, because instead of batteries, it has a flywheel.
KERS unit
The flywheel is made by Williams Hybrid Power and is a kinetic energy recovery system (KERS), first developed for Formula One racing. When it proved to be inconclusive in its payoff in that racing venue, Porsche agreed to try it for GT racing. The first prototype of the KERS-enabled 911 Hybrid to be racing this year.
The front axle of the 911 has two 60kW electric motors which will drive the axle when a boost is needed. Otherwise, the 911 GT3 will have the usual 4L flat six mounted in the rear of the vehicle in traditional Porsche style. The other modification is for battery storage and braking.
When the driver applies the brakes, such as when rounding a turn, the energy is absorbed by the two motors, which rotate backwards to become generators. That energy is sent to the KERS flywheel, mounted at the center of the car under the right side floor. The rotor inside the KERS module is capable of rotating up to 40,000rpms, storing the kinetic energy of braking.
The energy is stored for 6-8 seconds, during which time the driver can access it to gain an extra power from the 120kW of motor boosting the engine’s push to accelerate the car. This results in both faster pickup speed and fuel savings, both very important to GT racing.
The Porsche 911 GT3 R Hybrid’s first race was at the Nurburgring in May. This is a 24-hour race and the 911 hybrid will acted as a racing laboratory to test the KERS system for GT racing and spearhead the technology there.
Williams Hybrid Power is hoping to be able to commercialize their KERS system for other vehicle applications. Teaming up with the Qatar Science & Technology Park, the two partners will go forward as the Williams Technology Center to work on R&D with commercial goals.
What we like
Porsche is Spearheading this technology and if you think about engineering and racing, the name Porsche always comes up. There may be no better company to make this technology road worthy.
Lots of Potential in many markets where start-stop and bursts of speed and/or power are required, including heavy applications like garbage trucks and construction equipment.
What we don’t
Failed in F1 where the AT&T Williams team used KERS in their Formula One racer and failed to see much return and instead had a lot of headaches with the technology.
Not for Regular Cars as most normal passenger and long-distance vehicles will see little benefit from this kind of technology.
Conclusions
Although the technology is evolving quickly, other tech such as hydraulic power storage and lighter, better batteries may catch up before KERS is really ready for the mainstream. Time will tell, of course, and for racing, this could be a technology with great potential.