QUOTE (DOF_power @ Sep 3 2009, 14:04)

1] Don't be fooled in believing these are just concepts.
Nissan spent billions on EV and will have the LEAF ready for 2010, and let's not forget Mitsubishi’s IMiev and Chevy's Volt, and BMW are now repositioning themselves a joy of driving with "green" responsibility.
The shift is happening, so forget those "studies".
And motorsport should be it's spearhead, or else it will be one of its corpses.
2] I'm sorry you just don't get. It is just a stupid garagiste mentality.
A link between production and racing machines can and must exist, despite their differences.
You may disagree with me and it's that's OK, but I pity you as you're completely out of touch with the automotive business.
I know, not from auto show concept cars, but from people who work for the auto companies, that right know the changes that are coming are the most radical in the last 90s or so for the automotive industry.
When it comes to the Nissan, Mitsibishis iMiEV and Chevrolets Volt they have one thing in common; none of them will have a significant impact on the auto market. The pure electrics will suffer in price and performance and the plug in hybrid will suffer in price. Without subsidies the Volt will have a consumer price over 40,000 dollar/euro. Around here the iMiEV will cost around 35,000 euro or so when it's introduced next year, two to three times the price of a similar gasoline or diesel powered car. For the average consumer it will be cheaper to buy a more conventional vehicle, and that's what most people will do. The cars you speak of, the plug in and the pure battery car will have a total shared market share of no more than 3% by 2020 under the assumption we keep subsidizing these vehicles. The big trouble for these cars is the cost of the battery and in the past ten years or so lithium batteries haven't become cheaper. High battery costs are somewhat easier to tackle for hybrids than electrics and plug in vehicles, but the cost of the new technology must match the saving in fuel consumption and currently there are other technologies which are better from a cost/benefit perspective, large scale adoption of downsizing/turbocharging/direct injection for instance.
The people who work for auto companies you say you know, do they by any chance work in the PR department? They can't work in R&D, since these guys usually knows what is going to happen the next 5-10 years.
QUOTE (McGuire @ Sep 4 2009, 03:11)

Racing can't claim any meaningful contributions in those areas. Techonology is passed down from the OEs and other commercial industries to racing, not the other way around. Engine controls are a perfect example.
Hope springs eternal that racing could somehow serve as a development theater for production-intent hardware, but unfortunately, the sport is totally unsuited for that purpose.
Have too agree on that.
QUOTE (DaveW @ Sep 4 2009, 07:46)

Apologies, but I think that is a very moot point McGuire. The was a reason for Ford's acquisition of Pi Research, & it was not because they were interested in on-board measurement systems. I believe it had something to do with diesel engine management.
My background is aeronautical, & I know that the aerospace industry had been researching carbon composites for years, but F1 picked up the technology & ran with it, & BAe had to form a technical partnership with Williams GP in order to keep up. Whether you consider it good idea or otherwise (Skydrol appears to be something of an issue), without question the amount of carbon in the latest generation of civil aircraft has been affected profoundly by the F1 community. The technology is now filtering through to road vehicles (albeit slowly).
Whilst I can't discuss tyre (tire, if you will) technology in detail, the observable change in road vehicle tyre properties over the last 30 years has, I suspect, been helped significantly by construction & compound developments driven by motor racing.
Very recently (& right now, I suspect) the F1 community has forced (is forcing) the rapid development of battery technology for KERS. Whilst KERS itself might not be relevant to road vehicles, I'm sure that the battery technology will be.
I was responsible for developing the Lotus active suspension system. Rightly or wrongly, there was a window of opportunity for the technology to reach production & I spent much time with GM trying to help them take it on board whilst they commenced a "technology demonstration" build of 200 Corvettes. Sadly or otherwise, the project failed because GM was unable make sensible technical decisions. An oft repeated issue was "We can't use that part. It is not on our approved parts list" & "We do not use screened cable". At one point they had three perfectly acceptable vehicles produced by Lotus & a similar number that didn't work produced by GM. The project was canceled (inexplicably, to my mind), & the world moved on. The fact that the technology was banned by F1 mitigated against another opportunity.
The point is, OE's work in a mature & methodical manner, just like the aerospace industry. Both, for one reason or another, treat novelty with deep suspicion (partly NIH syndrome, hiding behind procedural practices, I suspect). The racing community is quite the opposite. It will grab technology by the neck & is happy to take risk when trying to understand & run with it.
The "F1 approach" is certainly not without fault. An early example (for me) was the "discovery" by Lotus of Ti. Within a remarkably short time they had a whole vehicle assembled with the steel parts replaced by fabricated Ti equivalents. Unfortunately, they forgot to heat treat welded parts post manufacture, & the Ti components unzipped themselves as soon as they saw a circuit. Lotus dropped the idea & went back to steel (again, that was an inexplicable decision for me, because the reason for, & solution to, their difficulty was known).
In my view, both approaches should have (& have had) a part to play in the life cycle of a technology, & that is one reason that OE's should retain an interest in motor racing. But that is more likely to happen consistently if motor racing makes sure that it is treading paths that will, or might, be relevant for production road vehicles.
If we look at carbon composites, it was an aerospace company, Hercules Aerospace, that did the first carbon fibre tub for McLaren. Civilian airplanes use more and more carbon fibre these days, but I don't think that has that much to do with F1. After all, most fourth generation fighter jets have used carbon composites quite extensively and these companies are usually involved in civilian aircraft too. But in order to use carbon composites successfully in road cars the costs must go down and today a large portion (around half) of the cost of a carbon composite part is caused by labor costs. Putting parts together by hand, as is done for F1, can't be used for car production. I know that large producers of carbon fibre like Toray are looking into means of mass production for the car industry, but I don't think the small scale production in F1, which is done by hand, is the key.
I also don't think KERS will have any significant impact on battery development. Most F1 teams seems to have bought battery cells from a large battery supplier, Renault bought their batteries from Saft for instance. The requirement for F1 and for a road car are also very different from each other. In F1 it's all about power density at any cost while road cars are all about costs and battery life, car manufacturers want a cheap battery with a long life so they can put a ten year warranty on it. If something, the technology transfer is going to go in the opposite direction. Car manufacturers have R&D budgets that are larger than the R&D budgets of racing teams and a cheap battery with a high power density suitable for a hybrid might also be useful for KERS with some small modifications. When it comes to electronics and engine management technology usually transfers from road cars to race cars, well, I think this can be said for much of the technology used in racing. If we take a few examples of late; in F1 they use high pressure fuel injectors to atomize the fuel better, these injectors are based on the injectors originally developed for direct injection in road car engines. Perhaps they use a bit more expensive materials to handle higher operating temperatures or to reduce the weight/size of the component, but they still originate from road cars. Bosch has also begun using hybrid chips in the ECU for racing cars (this makes the ECU compact and heat/vibration resistant), also here the technolgy comes from road cars. Infact the whole unit is taken from the road car side of business and fitted with a new software that is more suitable for racing purposes. In general you need a simpler ECU for racing puposes, there's no need for advanced emissions diagnostics and you don't need a mathematical model that calculates the exhaust temperature and the fuel enrichment requirement, if you want to know the exhaust temperature you can simply add a thermocouple in the exhaust system and a normal load/speed map will do fine for fuel enrichment. Then it's also much easier to make changes to the ECU so you can spend more time on the parts that actually counts.
The Lotus active suspension, didn't that use expensive electronic servovalves? I know that much of the servovalves currently used in F1 are based on MOOG series 30, a series of servovalves originally designed for aerospace applications like missiles. Lotus also use these valves in their electrohydraulic valve system and they are not exactly cheap.