The rear wheel will get 100 percent of
torque in the normal drive but as much as 50 percent will go the front wheels when needed.
Not exact matches
The angle of peak
torque can change even after
normal strength training, probably because of changes
in many of these factors, including neural
drive, normalized fiber length, regional muscle size, tendon stiffness, and muscle stiffness.
Factors that shift the angle of peak
torque to longer muscle lengths after
normal strength training include increases
in neural
drive at long muscle lengths, increases
in normalized fiber length, specific gains
in regional muscle size, and increases
in muscle stiffness.
Factors that shift the angle of peak
torque to shorter muscle lengths after
normal strength training include increases
in neural
drive at short muscle lengths, decreases
in normalized fiber length, specific gains
in regional muscle size, and increases
in tendon stiffness.
Turbo lag is, of course, present, but a loose
torque converter masks it almost completely
in normal driving.
I also played with the settings of the
torque - vectoring rear differential and noticed slight changes
in the
driving experience between
Normal, Slalom, and Track.
Torque - split for U.S. market cars is up to 50/50 front / rear
in low - grip situations and 90/10
in normal driving; Japanese versions were more rear - biased.
Basics mentioned above would ensure that we get maximum possible continuous
torque to main
drive shaft when engine is being operated
in normal manner.
Standard on the BMW X4 is full - time all - wheel
drive that keeps the crossover
in a front / rear
torque split of 40/60 percent under
normal conditions.
Mazda's all - wheel
drive system, which sends 100 percent of
torque to the front wheels during
normal situations but can send up to 50 percent to the rears
in slipperier conditions, is still available.
4MOTION four - wheel
drive is standard fit;
in normal driving, 90 per cent of power goes to the front wheels, but should conditions require, nearly all of it can be sent to the back by a Haldex clutch taking up
torque at the rear axle.
In normal driving 60 per cent of the engine's power and torque is sent to the rear axle, with up to 85 per cent able to be sent to the rear or 70 per cent to the front axle in extreme condition
In normal driving 60 per cent of the engine's power and
torque is sent to the rear axle, with up to 85 per cent able to be sent to the rear or 70 per cent to the front axle
in extreme condition
in extreme conditions.
Under
normal driving conditions,
torque steer is virtually eliminated
in Ford vehicles
A quick note on the updated xDrive, which is lighter and more efficient with
torque losses
in normal driving reduced by around 30 %.
Under
normal driving conditions, all of the engine
torque is sent to the rear axle, maintaining a rear - wheel
drive character, while minimizing parasitic losses
in the drivetrain.
In normal driving conditions
torque is transferred to the front and rear axles at a ratio of 40: 60.
But the engine's
torque is such that gear selection is almost secondary
in normal driving, meaning most will leave the paddles well alone.
Under
normal driving conditions, the system operates
in two - wheel
drive mode, but it can distribute
torque to all four wheels when road conditions warrant (up to 50 percent of
torque can go to the front wheels on demand).
I'm still not a fan of dual - clutch transmissions
in «
normal» cars — they're just not as smooth as a good
torque - converter box
in stop - and - go traffic and city
driving.
In normal conditions,
driving torque is always transmitted to the rear wheels, and most of the time to all four wheels.
In normal driving operation, it distributes
torque between the front and rear axles at a 40:60 ratio; if necessary, it can direct up to 70 percent to the front or a maximum of 85 percent to the rear.
With so much
torque, it feels perfectly acceptable
in normal driving and cruises
in a relaxed manner once up to speed.
IDD is an innovative system that manages
torque split by sending all power to the rear axle
in normal driving until it predicts, based on sensor data such as yaw rate, steering wheel angle and lateral acceleration that
torque should be diverted to the front axle.
The 4 - wheel is the front - wheel
drive in a
normal road
driving and sends
torque only when required.
Be sure to keep
in mind that the three electric motors
in the hybrid powertrain are supposed to conserve fuel under
normal driving conditions, therefore, the sensitive hybrid system is likely to experience a mechanical overload when it's forced to provide explosive horsepower and
torque output.
Much of the extra
torque is available down
in the 1,850 - to 3,000 - rpm range, just where you need it
in normal driving situations.
Offroad Detection technology The advanced engines and transmissions are complemented by the latest incarnation of the quattro four - wheel -
drive system, which supplies 60 per cent of
torque to the back wheels
in normal driving conditions, and can divert up to 85 per cent rearwards or 65 per cent to the front
in order to retain traction on rougher surfaces if necessary.
In normal circumstances, the
drive torque distribution between front and rear axle can be set from 100:0 to 50:50.
To help it
drive more like a powerful rear - wheel
drive sedan, AMG engineers say the standard - fit 4MATIC all - wheel
drive is rear - biased, with as much as 69 per cent of its
torque channelled to the rear wheels
in normal operating conditions.
In normal driving conditions, its self - locking center differential distributes torque between the front and rear axle in a 40:60 rati
In normal driving conditions, its self - locking center differential distributes
torque between the front and rear axle
in a 40:60 rati
in a 40:60 ratio.
[2]
NORMAL (balanced
driving and fuel economy) This mode leverages IMA's ample
torque in the low rpm range to pursue ease of operation for everyday
driving.
In the case of the RS 5 Coupe, that means up to 60 - percent of the torque to the rear wheels in normal driving, but as much as 85 - percent shifted to the front should road conditions demand i
In the case of the RS 5 Coupe, that means up to 60 - percent of the
torque to the rear wheels
in normal driving, but as much as 85 - percent shifted to the front should road conditions demand i
in normal driving, but as much as 85 - percent shifted to the front should road conditions demand it.
In normal driving conditions, 95 % of
torque is transferred to front axle.
The SQ5
drives through quattro all - wheel
drive system (with self - locking centre differential) that splits
torque 40:60 between front and rear wheels
in normal conditions.
Much like the permanent all - wheel -
drive system, it can send most of the engine's
torque to the rear wheels if necessary, but
in normal operating conditions, it gives the E-Pace a rear - wheel bias for more of a sports - car feel.
In normal weather it's a proper rear -
drive system that lets the XJ handle and steer like a performance cruiser, but then it transparently sends up to half of the engine
torque to the front wheels whenever there's an «oops.»
In normal driving, 100 - percent of the
driving torque is delivered to the front wheels.
In normal operation, up to 100 percent of the
drive torque is sent to the rear axle and when necessary the clutch can transfer up to 100 percent of this
torque to the front wheels.
In addition to the
torque - vectoring rear differential, Honda has developed the Intelligent Traction Management system, allowing drivers to choose what kind of surface they're
driving on, including
Normal, Snow, and Mud and Snow, further improving inclimate weather capability.
The Cayenne's four - wheel -
drive system (Traction Management,
in Porsche - speak) utilizes a full - time transfer case with a 2.7:1 low - range and a clutch - pack center diff - lock that distributes engine power
in a 32/68
torque split, front to rear, under
normal operation.
Through 4MATIC all - wheel
drive,
torque is distributed to both front and rear wheels through a center differential
in normal driving conditions.
Teamed with a manual transmission as
in the Legacy 2.5 GT spec.B, Subaru Symmetrical All - Wheel
Drive employs a viscous - coupling locking center differential with a
normal 50:50
torque split.
Equipped with Quattro AWD, the self - locking center differential sends60 percent of
torque to the rear wheels and 40 to the front
in normal driving.
The Caravan has much more
torque making it more responsive
in normal driving, brakes are far better, excellent handling.
In normal driving conditions, the
torque split is tail - happy 40:60, but if conditions demand, the front end can take up to 70 percent of
torque while the rear can cope with up to 85 percent.