Is it Easier to Drift FWD or RWD? An Expert Breakdown

As an avid auto enthusiast and amateur drifter, one of the most common questions I get from friends is whether it‘s easier to drift a front-wheel drive or rear-wheel drive car. While FWD drifting is possible, RWD has a clear advantage for breaking the rear wheels loose and holding a slide. Let‘s delve into the physics and techniques to truly understand why.

The Science Behind RWD‘s Drifting Dominance

The ideal drifting platform has the engine‘s power only going to the rear wheels, with the front wheels used for steering input. This allows you to overload the rear tires while retaining steering control up front. Rear-drive configurations achieve this naturally.

With FWD, the front tires are pulling double-duty – they need to both steer the car and put the engine power down. So when you try to break the rears loose, the fronts are still gripping and pulling you straight. Not an easy starting point!

According to expert drifter Vaughn Gittin Jr., RWD‘s rear weight bias is also beneficial for initiating drifts. The extra mass over the rear tires increases grip, then helps break traction upon abrupt throttle input. By comparison, FWD weight distribution keeps the rear wheels light and "loosey-goosey" as Vaughn calls it.

The physics of weight transfer further stack the deck in RWD‘s favor. Aggressively moving your right foot from throttle to brake shifts load rearward, making the rears lose traction. In FWD, braking keeps weight centralized over the front drive wheels.

Mastering Drift Initiation and Control

In a rear-wheel drive car, all you need to break traction is a healthy dose of throttle in a turn. Adding a "clutch kick" (quickly releasing the clutch) helps unload the rear for easier drifting. Once sideways, you‘ll modulate throttle and countersteer smoothly to control the slide angle.

Things aren‘t so straightforward in front-wheel drive. To initiate a drift, you need to abruptly lift off the gas to shift weight rearward. This "lift-off oversteer" uses the car‘s momentum to swing the back around. However, controlling the slide with throttle requires extra nuance so you don‘t pull yourself straight.

I‘ve found adding a handbrake pull before corners helps get the rears slippery in my front-drive cars. Some persistent clutch kicking or a Scandinavian flick also helps unsettle the rear. But FWD drifting ultimately requires quicker reactions and more countersteering finesse to avoid understeer.

Suspension: RWD Advantage for Drift Optimization

To excel at drifting, your suspension must be tuned for maximum grip up front and predictable breakaway out back. This is easier to achieve in RWD cars, especially with aftermarket parts.

For the front suspension, you want stiff springs and shocks, tightened sway bars, and more negative camber alignment. This maintains front grip when the rears are loose.

Out back, softer springs allow squat under power for better weight transfer. Stiffer dampers prevent bounce after transitions. Lower friction rear toe alignment settings help break traction while staying progressive.

In my experience, front-drive drift setups are always a compromise. Too much front grip prevents lift-off oversteer, while too little cripples steering and stability. RWD alignment freedom is a clear plus.

Horsepower Demands Can Be Surprising

When first learning to drift for fun, a modest 100-150hp is sufficient. But competing against other drifters requires some serious muscle. Let‘s compare power levels:

• Beginner/Amateur Drifting: 150-400hp
• Grassroots Competition: 400-500hp
• Pro-Am Level: 500-600hp
• Professional Formula Drift: 800-1200hp

So while any RWD car can be drifted, you‘ll want 400+ horsepower before hitting the track. Turbochargers, superchargers, engine swaps, and nitrous oxide are popular power-adders. My 350Z is making around 500hp which is decent for local competitions.

Ideal Street Car Platforms for Learning

Virtually any RWD car can be set up for drifting with coilovers, alignment, and sticky tires. But some models have characteristics that make learning easier. Here are my top picks:

Nissan 350Z/370Z – lightweight with robust gearbox and 50/50 weight distribution. Abundant aftermarket support.

BMW 3-series E36/E46 – smooth straight 6 power, great steering and chassis balance. Huge drift scene.

Mazda RX-7 (FC/FD) – rotary engine rewards momentum driving. Nearly 50/50 distribution.

Toyota 86/FR-S/BRZ – affordable RWD sports car to learn car control fundamentals.

For front-wheel platforms, the Honda Civic, Mazda3, and Ford Focus ST are popular starter choices. Just know you’ll need copious seat time to hone your FWD drift technique.

Let‘s Compare Some Common Drift Cars

You can see the RWD cars offer more balanced weight distribution and stronger powerplants – two key ingredients for drift success.

Be Prepared to Replace Tires Frequently

Drifting absolutely annihilates rear tires. The constant breakaway slides wear down the rubber rapidly. It‘s not uncommon to destroy a set of rears in just one day driving. Having a source of affordable replacement tires is a must to keep you drifting.

Expect to go through tires 2-5 times faster while drifting vs regular street driving. So unless you have a sponsor supplying rubber, keep a stash of cheap used tires on hand before you dive into this extremely fun form of motorsport.

Closing Thoughts

While FWD drifting provides a rewarding challenge, RWD‘s superior weight balance, power delivery, and suspension geometry make it undeniably easier to slide. After trying to drift both types of cars, I can definitively say RWD allows you to initiate and control drifts with much more precision and confidence. That said, mastering lift-off oversteer and throttle finesse in FWD is an artform in itself.

Hopefully this technical deep dive has provided some insight into the pros and cons of drifting in rear-wheel vs front-wheel drive cars. Let me know in the comments if you have any other drifting questions!