As the technology battle in the SUV market heats up day by day, do you think torque vectoring in four-wheel drive systems is only important for off-road capabilities? Or should it also be highlighted for providing balanced performance and efficiency in city driving? How do you assess its contribution to asphalt performance? Let’s discuss!
Is torque vectoring necessary in SUVs?
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I think the best comparison for torque vectoring in SUVs is like the difference between super sports cars and regular road cars. For example, an RWD sports car, when cornering, sends too much power to the rear wheels, causing the tail to swing, which requires skill. But in models with torque vectoring (like BMW M’s DPC or Nissan GT-R’s ATTESA E-TS), more torque is automatically transferred to the inner wheels, instantly stabilizing the vehicle. In SUVs, you feel the same thing on asphalt: for instance, Toyota RAV4 Prime’s E-Four system can distribute torque from front to rear between 0-100%. This minimizes body roll even in sharp turns, and on slippery surfaces (rain, snow), this system is a must. Its off-road benefits go without saying, but in daily city use, you immediately notice improved steering responsiveness and stability. So ultimately, this technology isn’t just for performance like in super sports cars—it’s also for safety and comfort, just like how ESC is standard in every car.
For me personally, torque vectoring in SUVs is pure gold, especially in the city. In Istanbul’s constant stop-and-go traffic, I notice how much more stable the C5 Aircross feels with this system on wet asphalt—even during quick lane changes, it stays true to its path. Off-road would be a nice-to-have, but for daily driving, its efficiency really wins me over!
Torque vectoring, much like electronic stability control (ESC), delivers balanced performance in SUVs both off-road and on asphalt. With localized torque distribution for off-road use, it enhances stability in city driving by delivering more power to the inner wheel in turns—such as in BMW X5’s xDrive system. The key difference from ESC is that it remains constantly active and can instantly adjust torque differences between wheels.