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Physics behind cars
Physics of cars
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This paper is a look at the physics behind car racing. We look look at how we can use physics to select tires, how physics can help predict how much traction we will have, how physics helps modern cars get there extreme speed, how physics lets us predict the power of an engine, and how physics can even help the driver find the quickest way around the track.
Tires are the most important part of race or any car for that mater. (Physics of Racing) After all they are the only thing that is contact with the ground! Tires work by having a high coefficient of friction. Some slicks have a friction coefficient grater then 1! (Physics of Racing) Typical normal street tires have coefficient of about .5 to .6 . In physics we learned that friction was equal to mew times the normal force. Since race cars are typical much lighter then normal cars, they use tricks to increase the downward force on the tires. Some drag tires run really low pressure, other drag cars tune the car to lift the front wheels to put all the weight on the rear tires. Indy cars use a wing to generate down force, and ventures to suck the car to the ground. (How to Make Your Car Handle)
Take a look at a good example of a slick and a normal street tire. The little holes on the slick are to check how much slick is left on the tire, since tires tend to ware on the edges faster. The gaps in the normal tires allow the tire to transfer water away from the tire, so the tire can make contact with the road. Goodyear makes a slick that is grooved for racing in the rain, but only crazy (Indy, F1) people do that!
The circle of traction is a important racing concept with applications from physics. From newtons equation f=ma we know that the more force we apply to an o...
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...turn, so you will end up off the track between points a and b. Because of this, many racing teams use a program called rars. (Physics of Racing) It has many popular tracks, and different styles of racing, and cars. It shows how the cars take the tracks, and has little lines for the apex. This can help the driver find the line.
Refrences
All Physics equations are quoted from:
Physics for Scientices and Engineers 5th Edition
Serway and Beichner
Harcourt, Fort Worth 2000
Going Faster! Mastering the Art of Race Driving
The Skip Barber Racing School
Bentley Publishing, Cambridge 1997
How to Make Your Car Handle
Puhn, Fred
HPBooks, New York 1981
Chassis Engineering
Adams, Herb
HPBooks, New York, 1996
The Physics of Racing
Beckman, Brian
http://www.miata.net/sport/Physics/
2002
Auto Math Handbook
Lawlor, John
HPBooks, New York, 1992
Whether zipping along a winding trail, flying through the open flats, or powering up a steep hill snowmachines and the rider need to use physics to stay in control of the machine and themselves. The main compenents are the track, engine, skis and riding.
Tires are thrown from tires because the centrifugal force expels snow, rocks, and other foreign objects.
Some say that automotive racing began when the second car was built. For over a hundred years, competition has driven innovation in the car industry, thus the industry maxim “Win on Sunday, sell on Monday.” NASCAR and drag racing contributed greatly to muscle cars’ success. Muscle cars were born from these competitions as factory made race cars. Because of this, the muscle car quickly moved from a low quantity specialty item to the image of the American automotive scene. Each brand had to have one and each one needed better performance and personality than the next. The Golden Age began in the 1960s with the introduction of more performance models such as the Chevy SS Impala and the Ford Galaxy Starliner (Auto Editors).
Every year on Memorial Day auto racing fans around the world wake up in anticipation to see the most famous race in the world. The Indianapolis 500 is an annual IndyCar race that has been run since 1916 at the Indianapolis Motor Speedway. It is a race of great tradition that is supposed to represent the fastest racers in the sport at the fastest raceway in the sport. However, Tony George, President of the Indianapolis Motor Speedway and the IRL, is changing everything about the race and the sport.
First, a trip to the track takes longer than a street race, since the closest track in the southwest suburbs of Chicago is an hour away. Going to the track is a hassle versus the get set, ready, go drag race down the street. Simply, street racing is nearby and does not disturb anyone as the contest usually takes place in the dead of the night or in the wee hours of the morning. Secondly, legal racing at a circuit track costs hundreds of dollars. Drag strips are shorter, most commonly a quarter of a mile, than the longer circuit tracks, but the entrance fee is about twenty dollars, which adds up over repeated visits. On the other hand, street racing is free and in 20 seconds, a winner emerges from the duo. Lastly, racing at a track puts enormous stress on a car. By driving fast for extended periods on a track, consider the brakes and tires shot since both will need replacement from tracking over 200 miles per hour. In addition, launching a car from a dead stop at a track versus from a rolling start, as in street racing, is more difficult and can easily ruin the car. Although street racing is not as organized as track racing, impromptu racing has the advantages of availability, affordability, and economic
The average driver doesn’t think about what keeps their car moving or what keeps them on the road, but that’s because they don’t have to. The average driver doesn’t have to worry about having enough downforce to keep them on the road or if they will reach the adhesive limit of their car’s tires around a turn. These are the things are the car designers, professional drivers, racing pit crews, serious sports car owners, and physicist think about. Physics are an important part of every sports and racing car design. The stylish curves and ground effects on sports cars are usually there not just for form but function as well allowing you to go speeds over 140 mph in most serious sports cars and remain on the road and in reasonable control.
[7]"Power Gains from a Sports Catalyst." Car Tuning & Modified Cars - How To... Guides. Web. 08 Oct. 2011. .
In the sport of F1 there are many different feats of engineering to get the cars to go as fast as they do. Some of the technology and modern parts of an F1 car are, the suspension, energy recovery, tires and brakes, aerodynamics and gearboxes. These are just some of the components of an F1 car that will be explained in this paper.
Over the years, cars have advanced from a very basic and functional piece of technology to a high speed and intelligent set of interrelated components. Cars play a big part in our world and have changed a lot over the years.
Although this article appeals to common sense the most, Paul-Mark’s claims are obvious with very good example to back those claims up. Readers get the full picture of what is really going down in the street racing scene and how the dangers continue to exist. Paul-Mark has strong appeals and emotions throughout this paper that keeps readers hooked the entire time.
author build car with suitable cockpit to evaluate steering response curve and proper physical behavior of the car to give realistic experiment. with this setup author has conducted experiments on different linear and non linear steering response curves to find out suitable steering system for passenger car. After study author come on conclusion that linear response curve with a high steering ratio like 1:45 or 1:60 lead to the least amount of lateral velocity of the car at speed of 200km/h and this will lead to complete crash due to loss of control on
In order for the operator to comfortably maneuver a curve there are several variables that must be accounted for, the radius of the curve, friction and velocity. Radius length may depend on sight distance and right of way, or property lines as well as sight distance. Friction depends on the surface properties of various materials and climate. The slope and velocity are usually dependent on the variables just described. While building and designing these roads, it is industry standard to put 1/3 of the change in grade within the horizontal curve and 2/3 of the transition length on the tangent. In Layman’s terms, by the time the car approaches the first part of the curve, 2/3 of the grade has already been built. This assures smooth transition for the driver to maneuver the curve³.
The purpose of this paper is to review on how physics can help to improve motorcycle performance. I currently own a 2003 Harley Davidson VROD. It came from the factory weighing in at 683.3 lbs (dry) or 285 kg. The VROD has a wheelbase of 67.2 inches or 1710 mm. The Engine that resides in the VROD is an 1130cc German designed performance engine developed by Porsche that has a winning stature in the racing world. The VROD is claimed to have a 115 horsepower or 86 kW of power at 8250 revolutions per minute (rpm) at the crankshaft. It also claims to have 84 foot ponds of torque or 113.9 N-m at the crank. All that information translates into that the VROD line of motorcycles are long, low, and very fast compared to other larger displacement motorcycles of that style. With such a high tech engine, I feel that more power can be tweaked out of it to help improve miles per gallon (mpg) horsepower, and torque. We will first begin with air intake performance. A stock air flow filter allows a set amount of air flow to pass thru the combustion chambers of the engine. But as we all know more ai...
In modern days, society is entrusted with the responsibility of using one of the most accessible pieces of potentially dangerous pieces of machinery. With the rates of injuries and fatalities caused by vehicles continuously increasing, it has become the role of engineers to evaluate and improve the measures taken to prevent further damage. One major aspect of road safety is intersections, where the possibility of collisions is very high. 20% of all accidents occur within 100m intersections (K.W Ogden, 2001). The intersection that will be discussed in this report is the Broadwater Rd and Newnham Rd intersection at Wishart. This intersection is subjected to steep inclines and in some cases sight distance was largely hindered, resulting in a very unsafe intersection. Hence, to improve this intersection, speed limits have been proposed along with an appropriate duration of the orange light to prevent potential accidents.
Cars are amazing! All the different parts—the engine, the wheels, the gears, and all the fiddly bits like the windscreen wipers—came together, very gradually, over a period of about five and a half thousand years.