Fear the VE-T
Acceleration
Accelerate with near full power in a front-wheel drive car and you'll quickly notice the resulting effect of rearward weight shift. The front tires will likely lose traction and spin – even on clean, dry pavement. By contrast, hard acceleration in rear-wheel drive cars increases the rear wheels' grip on good road surfaces because of the rearward weight shift.

Braking
Stopping ability is enhanced by the superior weight distribution of RWD. With the rear wheels carrying a greater percentage of the car's weight load than on a front-wheel drive car, they can apply more braking force to the road and help shorten stopping distances. Since RWD contributes to even tire wear, it is more likely that tires on a RWD car will have greater tread depth. Unless tires on a FWD car are rotated religiously, the front tires may become worn and less effective in braking.

Responsive Cornering
Near equal weight distribution helps give front and rear wheels more balanced traction. This balance gives neutral handling characteristics that make cornering maneuvers easier. Rear-wheel drive's more equal weight distribution also aids handling agility through a lower moment of inertia. FWD cars usually have higher moments of inertia, contributing to understeer and sluggishness in cornering. As a result, RWD cars feel more responsive, lighter, and more nimble.

Balanced Force Distribution
With FWD, both steering and propulsion forces tax the front tires' slip-resistance during cornering. That's part of the reason why FWD cars tend to understeer or plow forward, changing directions less quickly than the turning angle of the front wheels. Since RWD separates the tasks of cornering (front wheels) and propulsion (rear wheels), it more equally distributes the traction-threatening forces to all four wheels.

Torque Steering
Torque steering is a negative side-effect of FWD caused by the delivery of power to the wheels that steer the car. During acceleration in a curve or from a standstill, the force of torque steering can pose a hazard by changing the direction of the front wheels unless the driver is alert and can exert counteractive force on the steering wheel. RWD does not exhibit torque effect because the engine is isolated from the steering gear.
Longer Wheelbase
RWD allows a longer wheelbase and a more forward positioning of the front wheels. The longer wheelbase provides better handling while the forward position of the wheels reduces the possibility of the front spoiler scraping on dips.

No CV Joints
FWD cars have four CV (constant velocity) joints connecting the engine to the front wheels. In comparison, RWD cars use universal joints which wear out much slower than CV joints.

Summary
RWD pros:
Fore-aft weight distribution more balanced. Braking performance enhanced. Tire wear more even. Cornering easier, more responsive. Lighter than AWD configuration for better acceleration and cornering performance and better fuel-efficiency. Better hard acceleration performance on good surfaces than with FWD. Better cornering ability because steering and propulsion are applied at separate axles. Greater agility because of lower resistance to changes in direction (lower moment of inertia). Longer wheelbase for smoother ride. Absence of torque steering effect common with FWD. No CV joints to replace.
FWD pros:
Good traction during mild acceleration on slippery surfaces. Lighter weight helps fuel-efficiency. Interior room enhanced by lack of longitudinal driveshaft. Less expensive to manufacture.
AWD pros:
Traction enhanced on all road surfaces under all weather conditions. Faster acceleration "off the line" due to all wheels driving. Better road grip during
knowledge is power my friend
Accelerate with near full power in a front-wheel drive car and you'll quickly notice the resulting effect of rearward weight shift. The front tires will likely lose traction and spin – even on clean, dry pavement. By contrast, hard acceleration in rear-wheel drive cars increases the rear wheels' grip on good road surfaces because of the rearward weight shift.

Braking
Stopping ability is enhanced by the superior weight distribution of RWD. With the rear wheels carrying a greater percentage of the car's weight load than on a front-wheel drive car, they can apply more braking force to the road and help shorten stopping distances. Since RWD contributes to even tire wear, it is more likely that tires on a RWD car will have greater tread depth. Unless tires on a FWD car are rotated religiously, the front tires may become worn and less effective in braking.

Responsive Cornering
Near equal weight distribution helps give front and rear wheels more balanced traction. This balance gives neutral handling characteristics that make cornering maneuvers easier. Rear-wheel drive's more equal weight distribution also aids handling agility through a lower moment of inertia. FWD cars usually have higher moments of inertia, contributing to understeer and sluggishness in cornering. As a result, RWD cars feel more responsive, lighter, and more nimble.

Balanced Force Distribution
With FWD, both steering and propulsion forces tax the front tires' slip-resistance during cornering. That's part of the reason why FWD cars tend to understeer or plow forward, changing directions less quickly than the turning angle of the front wheels. Since RWD separates the tasks of cornering (front wheels) and propulsion (rear wheels), it more equally distributes the traction-threatening forces to all four wheels.

Torque Steering
Torque steering is a negative side-effect of FWD caused by the delivery of power to the wheels that steer the car. During acceleration in a curve or from a standstill, the force of torque steering can pose a hazard by changing the direction of the front wheels unless the driver is alert and can exert counteractive force on the steering wheel. RWD does not exhibit torque effect because the engine is isolated from the steering gear.
Longer Wheelbase
RWD allows a longer wheelbase and a more forward positioning of the front wheels. The longer wheelbase provides better handling while the forward position of the wheels reduces the possibility of the front spoiler scraping on dips.

No CV Joints
FWD cars have four CV (constant velocity) joints connecting the engine to the front wheels. In comparison, RWD cars use universal joints which wear out much slower than CV joints.

Summary
RWD pros:
Fore-aft weight distribution more balanced. Braking performance enhanced. Tire wear more even. Cornering easier, more responsive. Lighter than AWD configuration for better acceleration and cornering performance and better fuel-efficiency. Better hard acceleration performance on good surfaces than with FWD. Better cornering ability because steering and propulsion are applied at separate axles. Greater agility because of lower resistance to changes in direction (lower moment of inertia). Longer wheelbase for smoother ride. Absence of torque steering effect common with FWD. No CV joints to replace.
FWD pros:
Good traction during mild acceleration on slippery surfaces. Lighter weight helps fuel-efficiency. Interior room enhanced by lack of longitudinal driveshaft. Less expensive to manufacture.
AWD pros:
Traction enhanced on all road surfaces under all weather conditions. Faster acceleration "off the line" due to all wheels driving. Better road grip during
knowledge is power my friend
__________________
Guest
Posts: n/a
Originally Posted by sr20 NOS hoe
Im sorry but you need not talk physics with me i have seen it happen MANY times the ser will put more power to the ground and it has less lbs. sorry but it is not up for dispute.
watch videos of 60-1EK or Qitsrn in their 500+ hp hondas. They do some amazing trap speeds, but they are scary to drive down the track.
rwd is better than fwd but you guys make fwd seem worst than it is.
__________________

http://inductionperformance.com/
Induction Performance - 727.505.1423
AEM EMS Tuning, Builds, Assembly, Custom Kits, Installs and more.....

http://inductionperformance.com/
Induction Performance - 727.505.1423
AEM EMS Tuning, Builds, Assembly, Custom Kits, Installs and more.....
Originally Posted by DriftingDJ
Acceleration
Accelerate with near full power in a front-wheel drive car and you'll quickly notice the resulting effect of rearward weight shift. The front tires will likely lose traction and spin – even on clean, dry pavement. By contrast, hard acceleration in rear-wheel drive cars increases the rear wheels' grip on good road surfaces because of the rearward weight shift.

Braking
Stopping ability is enhanced by the superior weight distribution of RWD. With the rear wheels carrying a greater percentage of the car's weight load than on a front-wheel drive car, they can apply more braking force to the road and help shorten stopping distances. Since RWD contributes to even tire wear, it is more likely that tires on a RWD car will have greater tread depth. Unless tires on a FWD car are rotated religiously, the front tires may become worn and less effective in braking.

Responsive Cornering
Near equal weight distribution helps give front and rear wheels more balanced traction. This balance gives neutral handling characteristics that make cornering maneuvers easier. Rear-wheel drive's more equal weight distribution also aids handling agility through a lower moment of inertia. FWD cars usually have higher moments of inertia, contributing to understeer and sluggishness in cornering. As a result, RWD cars feel more responsive, lighter, and more nimble.

Balanced Force Distribution
With FWD, both steering and propulsion forces tax the front tires' slip-resistance during cornering. That's part of the reason why FWD cars tend to understeer or plow forward, changing directions less quickly than the turning angle of the front wheels. Since RWD separates the tasks of cornering (front wheels) and propulsion (rear wheels), it more equally distributes the traction-threatening forces to all four wheels.

Torque Steering
Torque steering is a negative side-effect of FWD caused by the delivery of power to the wheels that steer the car. During acceleration in a curve or from a standstill, the force of torque steering can pose a hazard by changing the direction of the front wheels unless the driver is alert and can exert counteractive force on the steering wheel. RWD does not exhibit torque effect because the engine is isolated from the steering gear.
Longer Wheelbase
RWD allows a longer wheelbase and a more forward positioning of the front wheels. The longer wheelbase provides better handling while the forward position of the wheels reduces the possibility of the front spoiler scraping on dips.

No CV Joints
FWD cars have four CV (constant velocity) joints connecting the engine to the front wheels. In comparison, RWD cars use universal joints which wear out much slower than CV joints.

Summary
RWD pros:
Fore-aft weight distribution more balanced. Braking performance enhanced. Tire wear more even. Cornering easier, more responsive. Lighter than AWD configuration for better acceleration and cornering performance and better fuel-efficiency. Better hard acceleration performance on good surfaces than with FWD. Better cornering ability because steering and propulsion are applied at separate axles. Greater agility because of lower resistance to changes in direction (lower moment of inertia). Longer wheelbase for smoother ride. Absence of torque steering effect common with FWD. No CV joints to replace.
FWD pros:
Good traction during mild acceleration on slippery surfaces. Lighter weight helps fuel-efficiency. Interior room enhanced by lack of longitudinal driveshaft. Less expensive to manufacture.
AWD pros:
Traction enhanced on all road surfaces under all weather conditions. Faster acceleration "off the line" due to all wheels driving. Better road grip during
knowledge is power my friend
Accelerate with near full power in a front-wheel drive car and you'll quickly notice the resulting effect of rearward weight shift. The front tires will likely lose traction and spin – even on clean, dry pavement. By contrast, hard acceleration in rear-wheel drive cars increases the rear wheels' grip on good road surfaces because of the rearward weight shift.

Braking
Stopping ability is enhanced by the superior weight distribution of RWD. With the rear wheels carrying a greater percentage of the car's weight load than on a front-wheel drive car, they can apply more braking force to the road and help shorten stopping distances. Since RWD contributes to even tire wear, it is more likely that tires on a RWD car will have greater tread depth. Unless tires on a FWD car are rotated religiously, the front tires may become worn and less effective in braking.

Responsive Cornering
Near equal weight distribution helps give front and rear wheels more balanced traction. This balance gives neutral handling characteristics that make cornering maneuvers easier. Rear-wheel drive's more equal weight distribution also aids handling agility through a lower moment of inertia. FWD cars usually have higher moments of inertia, contributing to understeer and sluggishness in cornering. As a result, RWD cars feel more responsive, lighter, and more nimble.

Balanced Force Distribution
With FWD, both steering and propulsion forces tax the front tires' slip-resistance during cornering. That's part of the reason why FWD cars tend to understeer or plow forward, changing directions less quickly than the turning angle of the front wheels. Since RWD separates the tasks of cornering (front wheels) and propulsion (rear wheels), it more equally distributes the traction-threatening forces to all four wheels.

Torque Steering
Torque steering is a negative side-effect of FWD caused by the delivery of power to the wheels that steer the car. During acceleration in a curve or from a standstill, the force of torque steering can pose a hazard by changing the direction of the front wheels unless the driver is alert and can exert counteractive force on the steering wheel. RWD does not exhibit torque effect because the engine is isolated from the steering gear.
Longer Wheelbase
RWD allows a longer wheelbase and a more forward positioning of the front wheels. The longer wheelbase provides better handling while the forward position of the wheels reduces the possibility of the front spoiler scraping on dips.

No CV Joints
FWD cars have four CV (constant velocity) joints connecting the engine to the front wheels. In comparison, RWD cars use universal joints which wear out much slower than CV joints.

Summary
RWD pros:
Fore-aft weight distribution more balanced. Braking performance enhanced. Tire wear more even. Cornering easier, more responsive. Lighter than AWD configuration for better acceleration and cornering performance and better fuel-efficiency. Better hard acceleration performance on good surfaces than with FWD. Better cornering ability because steering and propulsion are applied at separate axles. Greater agility because of lower resistance to changes in direction (lower moment of inertia). Longer wheelbase for smoother ride. Absence of torque steering effect common with FWD. No CV joints to replace.
FWD pros:
Good traction during mild acceleration on slippery surfaces. Lighter weight helps fuel-efficiency. Interior room enhanced by lack of longitudinal driveshaft. Less expensive to manufacture.
AWD pros:
Traction enhanced on all road surfaces under all weather conditions. Faster acceleration "off the line" due to all wheels driving. Better road grip during
knowledge is power my friend
__________________
SR20VET>SR20DET
SR20VET>SR20DET
Originally Posted by SlidewayS15
Isn't the Sentra A FWD.....The SR20det is a RWD motor
Isn't the Sentra A FWD.....The SR20det is a RWD motor
Originally Posted by DETriment
i woulda been fine if i hadnt hit a puddle and understeered all the sudden, i was slightly sideways right before the puddle.
Originally Posted by OniS14
sr20_NOS_hoe...i want to nominate you for TR's official FWD SR spokesperson!
ok, i can drive, so lets see who can beat me in a FWD car with the same power. all your spouting at the mouth sr20 nos hoe sounds like a bunch of driver crap and has nothing to do with car setup. i challenge any of you tards to any kind of racing. and you can have more power than me too, it doesn't matter, the fastest part of my car is ME. FWD doesn't completely suck, but its defitelty not better than rear drive. so detune your 500hp sr to around 290 to the wheels and lets go to the track. period. if you keep running off at the mouth and don't really do anything about it then we all know what kind of person you really are. but who knows, i might just loose. alteast i'm man enough to admit it.
now put up or shut up. its just that simple.
now put up or shut up. its just that simple.
__________________


Originally Posted by hachibill
ok, i can drive, so lets see who can beat me in a FWD car with the same power. all your spouting at the mouth sr20 nos hoe sounds like a bunch of driver crap and has nothing to do with car setup. i challenge any of you tards to any kind of racing. and you can have more power than me too, it doesn't matter, the fastest part of my car is ME. FWD doesn't completely suck, but its defitelty not better than rear drive. so detune your 500hp sr to around 290 to the wheels and lets go to the track. period. if you keep running off at the mouth and don't really do anything about it then we all know what kind of person you really are. but who knows, i might just loose. alteast i'm man enough to admit it.
now put up or shut up. its just that simple.
now put up or shut up. its just that simple.
As soon as the build is done you will be the first to know... ill pm you to let you know when to check callouts
__________________
SR20VET>SR20DET
SR20VET>SR20DET
Originally Posted by SlidewayS15
Isn't the Sentra A FWD.....The SR20det is a RWD motor
Isn't the Sentra A FWD.....The SR20det is a RWD motor
Originally Posted by DETriment
i woulda been fine if i hadnt hit a puddle and understeered all the sudden, i was slightly sideways right before the puddle.
Originally Posted by OniS14
sr20_NOS_hoe...i want to nominate you for TR's official FWD SR spokesperson!



