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In the super fast world of motorsports, a fraction of a second’s error could mean winning the race; or crashing out of it.
Such an extreme scenario just goes to show how vitally important it is to keep the driver safe at all times, if not the machine. Racing cars and bikes are rigged with a host of safety features that ensure that the driver comes out of any accident unhurt, if there were one to occur.
Engine failure during any race translates into a potentially deadly situation for the driver or the rider, because even though racing drivers are trained to react unbelievably fast to any situation, an engine failure is out of their control.
Safety engineering gives the driver more confidence during a race, and of course ensures that the car or bike is recovered from any sort of collision or crash during the race. Legendary drivers of the yesteryears have often met with unfortunate accidents; at a time when advanced technology for safety engineering was not available.
Today, before the start of any race, the safety equipment is investigated thoroughly to ensure that car is safe to run at high speeds on the race tracks, and the driver stays unhurt during any major accident.
The racing associations spend millions on testing, design, development of the racing engines, and on safety engineering. In the highly competitive world of motorsports, every competitor tries to outdo the other by pushing the boundaries of perfection, which means that there are high stakes on the table, when it comes to the engine performances during a race. A single component failure could translate into losing the race, which in turn means a loss of millions for the racing team.
There are cutting edge measuring instruments which are used to determine the efficiency and the performance of the engine, along with computer aided simulation research on how the engine would fare on the actual race track.
Such ultra-modern testing devices are not only essential for the boosting of the engine’s performance, but also an essential requirement for engine safety.
There are extremely dangerous hypothetical situations of the engine blowing up in the middle of the race due to internal problems, which expose the driver to serious injury risks.
Safety engineering in the world of motorsports takes in its purview virtual testing of the race car or bike on a computer simulated platform, tyre check at high speeds, aerodynamic design testing, and automated built in systems that keep the driver safe during a critical situation.
Virtual simulated tests are crucial when it comes to the assessment of the car or bike configurations for the race.
The racecar reaches on an average of 250-300 k/hr, which means that the tyre configurations must be tested for optimal performance on track; otherwise they are going to wear out and cost valuable time for the driver. There are important fuel-engineering processes that make sure that the engine is able to meet high endurance races, where failure of the same is just not acceptable.
The most important aspects of safety engineering incorporate the design of the chassis, which is built out of extremely strong multiple layered materials subjected to extremes of temperature and pressure to form a tough shield; ensuring that the driver walks away from even a devastating impact.
No racing car leaves for the track without certified safety tests, which includes assessment of the safety cells, among other things.
The research and development of the aerodynamic design and safety features on the chassis of a race car or bike, is probably the most expensive areas of motor car and bike racing, and is rightly so; because you can always build a new car or bike, but you can never replace the human who drives it.
Such an extreme scenario just goes to show how vitally important it is to keep the driver safe at all times, if not the machine. Racing cars and bikes are rigged with a host of safety features that ensure that the driver comes out of any accident unhurt, if there were one to occur.
Engine failure during any race translates into a potentially deadly situation for the driver or the rider, because even though racing drivers are trained to react unbelievably fast to any situation, an engine failure is out of their control.
Safety engineering gives the driver more confidence during a race, and of course ensures that the car or bike is recovered from any sort of collision or crash during the race. Legendary drivers of the yesteryears have often met with unfortunate accidents; at a time when advanced technology for safety engineering was not available.
Today, before the start of any race, the safety equipment is investigated thoroughly to ensure that car is safe to run at high speeds on the race tracks, and the driver stays unhurt during any major accident.
The racing associations spend millions on testing, design, development of the racing engines, and on safety engineering. In the highly competitive world of motorsports, every competitor tries to outdo the other by pushing the boundaries of perfection, which means that there are high stakes on the table, when it comes to the engine performances during a race. A single component failure could translate into losing the race, which in turn means a loss of millions for the racing team.
There are cutting edge measuring instruments which are used to determine the efficiency and the performance of the engine, along with computer aided simulation research on how the engine would fare on the actual race track.
Such ultra-modern testing devices are not only essential for the boosting of the engine’s performance, but also an essential requirement for engine safety.
There are extremely dangerous hypothetical situations of the engine blowing up in the middle of the race due to internal problems, which expose the driver to serious injury risks.
Safety engineering in the world of motorsports takes in its purview virtual testing of the race car or bike on a computer simulated platform, tyre check at high speeds, aerodynamic design testing, and automated built in systems that keep the driver safe during a critical situation.
Virtual simulated tests are crucial when it comes to the assessment of the car or bike configurations for the race.
The racecar reaches on an average of 250-300 k/hr, which means that the tyre configurations must be tested for optimal performance on track; otherwise they are going to wear out and cost valuable time for the driver. There are important fuel-engineering processes that make sure that the engine is able to meet high endurance races, where failure of the same is just not acceptable.
The most important aspects of safety engineering incorporate the design of the chassis, which is built out of extremely strong multiple layered materials subjected to extremes of temperature and pressure to form a tough shield; ensuring that the driver walks away from even a devastating impact.
No racing car leaves for the track without certified safety tests, which includes assessment of the safety cells, among other things.
The research and development of the aerodynamic design and safety features on the chassis of a race car or bike, is probably the most expensive areas of motor car and bike racing, and is rightly so; because you can always build a new car or bike, but you can never replace the human who drives it.
 Fuel Cell Works (press release) | Zero-emission hydrogen fuel cell generator launches in Camden UK Fuel Cell Works (press release) - Camden and Croydon Council have joint ownership of a 5kW portable hydrogen fuel cell generator, funded by Transport of London. The project is being carried ... Air Products is Making the Hydrogen Revolution a Reality |
Every once in a while over the years you get a test car that just fits right. When you first crawl into it, you have the feeling that this car was made for you.
Peter Windsor recently reported that Scuderia Toro Rosso (STR) use a different gearbox case to the RedBull Racing (RBR) car. Reportedly he said it was slimmer to allow more air over the diffuser.
I know they use the same seamless gearbox cluster and that RBR use a cast aluminium case. But from what Ive ever seen of the STR03 and RB4 they are identical aside from the engine and some of the newer aero details not appearing on the STR03.
I didnt believe that STR had any design capacity at their Faenza factory since the Red bull buy out? It doesnt make sense that Red Bull Technologies (the company that design the pairs cars) has designed a case specifically for the STR03, the Engine Regs demands a fixed crank shaft centre height, so it cant for packaging reasons on the Ferrari engine.
Has anyone any insight into this?
Scarbs
I know they use the same seamless gearbox cluster and that RBR use a cast aluminium case. But from what Ive ever seen of the STR03 and RB4 they are identical aside from the engine and some of the newer aero details not appearing on the STR03.
I didnt believe that STR had any design capacity at their Faenza factory since the Red bull buy out? It doesnt make sense that Red Bull Technologies (the company that design the pairs cars) has designed a case specifically for the STR03, the Engine Regs demands a fixed crank shaft centre height, so it cant for packaging reasons on the Ferrari engine.
Has anyone any insight into this?
Scarbs
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Jaguar's new XF coupe looks nothing like Jags of old, and yet there are touches of Aston Martin and other brands in its styling. Others see Lexus clues here and there.
Hi all,
I need a scaled rule for my engineering drawings at university. What make of rule do you recommend for scaled drawings?
Need some advice.
Thanks :)
I need a scaled rule for my engineering drawings at university. What make of rule do you recommend for scaled drawings?
Need some advice.
Thanks :)
It is too evident that all the activities related to car racing revolve around just one key word speed. Therefore, it is quite natural that there goes a lot of complexity in the making as well as functioning of the racing cars.
Out of all, the F1 engines are the most complex of the racing engines that we see moving with lightening speed in the circuit. The machineries of the F1 racing cars are so complicated because they have close to 5000 parts among which 1500 are the moving elements. All these machinery parts together can produce more than 750 hp of energy and can reach more than 20,000 rpm.
Test drive has proved that at the maximum speed the F1 engines can consume around 60 liters of petrol per 100 km of racing. FIA has ruled that in place of a 20 to 30 hp gain, it is not allowed for the manufacturers to develop their engines further and have imposed a rev limit of 19,000 rpm.
Presently, the f1 engines can produce about 720 hp with the help of 8 cylinders in a 90-degree V-angle. However, the limitation of the performance is because of the limits imposed by the organization. Or else, the figures by now would perhaps have crossed beyond all our imaginations.
The main body of the engines is made of forged aluminum alloy as it much heavier in comparison to steel.
This is an added advantage of the engines. To limit the costs of the engines the FIA has forbidden the use of non-ferrous materials. In the engine as the exact oil requirement is not known, it is such that the oil is for the 70% of the engine while the leftover 30% is in a dry-sump lubrication system, which is responsible for the changing of oil in the engine three or four times in a minute.
There are certain differences of the F1 engines with the other road engines. The main difference here is the higher volumetric efficiency, which is used to describe the amount of fuel or air, present in the cylinders with relation to the regular atmospheric air.
However this does not allow turbo, they are not much different from the normal road engines. The engines also differ on the thermal efficiencies. This includes the factors like the usable horsepower, ignition timing, thermal coating, chamber design and plug locations.
You must remember that among all the amount of energy generated, the car engine uses part of it and the leftovers are measured in the dynamometer. Actually, the difference of the values on the dyno and the workable power of the cylinder give the value of the mechanical energy of the car.
The efficiency of the engine is dependent like the bearing friction, rocker friction, and other moving parts like the piston skirt area upon many factors. Limiting the internal energy friction in turn generates a surplus in horsepower and when the F1 engine is stressed for power, the stress is on the consumption of fuel.
Inline engines are where all cylinders are placed next to one another.
These are however outdated patterns and have not been used in the Formula 1 car since the 60s. The engines are long and thus need a heavy crankshaft. If the external factors allow, the boxer engines are the best ones to apply to your car.
These are actually popular in the F1 cars as they have a low center of gravity and the production costs of the engines are comparatively low. Nowadays the V-type engines are used in the F1 cars.
Out of all, the F1 engines are the most complex of the racing engines that we see moving with lightening speed in the circuit. The machineries of the F1 racing cars are so complicated because they have close to 5000 parts among which 1500 are the moving elements. All these machinery parts together can produce more than 750 hp of energy and can reach more than 20,000 rpm.
Test drive has proved that at the maximum speed the F1 engines can consume around 60 liters of petrol per 100 km of racing. FIA has ruled that in place of a 20 to 30 hp gain, it is not allowed for the manufacturers to develop their engines further and have imposed a rev limit of 19,000 rpm.
Presently, the f1 engines can produce about 720 hp with the help of 8 cylinders in a 90-degree V-angle. However, the limitation of the performance is because of the limits imposed by the organization. Or else, the figures by now would perhaps have crossed beyond all our imaginations.
The main body of the engines is made of forged aluminum alloy as it much heavier in comparison to steel.
This is an added advantage of the engines. To limit the costs of the engines the FIA has forbidden the use of non-ferrous materials. In the engine as the exact oil requirement is not known, it is such that the oil is for the 70% of the engine while the leftover 30% is in a dry-sump lubrication system, which is responsible for the changing of oil in the engine three or four times in a minute.
There are certain differences of the F1 engines with the other road engines. The main difference here is the higher volumetric efficiency, which is used to describe the amount of fuel or air, present in the cylinders with relation to the regular atmospheric air.
However this does not allow turbo, they are not much different from the normal road engines. The engines also differ on the thermal efficiencies. This includes the factors like the usable horsepower, ignition timing, thermal coating, chamber design and plug locations.
You must remember that among all the amount of energy generated, the car engine uses part of it and the leftovers are measured in the dynamometer. Actually, the difference of the values on the dyno and the workable power of the cylinder give the value of the mechanical energy of the car.
The efficiency of the engine is dependent like the bearing friction, rocker friction, and other moving parts like the piston skirt area upon many factors. Limiting the internal energy friction in turn generates a surplus in horsepower and when the F1 engine is stressed for power, the stress is on the consumption of fuel.
Inline engines are where all cylinders are placed next to one another.
These are however outdated patterns and have not been used in the Formula 1 car since the 60s. The engines are long and thus need a heavy crankshaft. If the external factors allow, the boxer engines are the best ones to apply to your car.
These are actually popular in the F1 cars as they have a low center of gravity and the production costs of the engines are comparatively low. Nowadays the V-type engines are used in the F1 cars.
You may have a dictionary that is so big and heavy it has to sit on its own stand. Well don't go rushing to it trying to find out what a Tiguan is. It won't be in there.
