This article was updated in March 19, 2026 with new products and information by Mark S. Taylor

If you read sports car reviews, you see the term ‘double wishbone suspension’ often. It is a big selling point. Every race car built in the last 50 years uses it. Ferrari, Lamborghini, and Lotus use it. Most supercars use it too. There is a reason for this. The advantages of double wishbone suspension go far beyond just “better handling.” The geometry controls the wheel in ways simpler designs cannot. It is not perfect for everything. Cost and space are real issues. But for performance and feel, it has engineering superiority. We will preview 8 advantages, list the cars that use it, and tell you if it matters for your drive.

advantages of double wishbone suspension

Double wishbone suspension uses two A-shaped arms to connect the wheel to the car’s frame. Two control arms connect the wheel hub to the chassis. One arm is on top. The other is on the bottom. Ball joints at each end let the wheel move. This design creates a “four-bar linkage.” It controls the wheel with two chassis points. This is different from a MacPherson strut. A strut uses one lower arm and the strut itself acts as the top mount. If you are unsure about the basics, check our guide on what is the difference between shocks, struts, and coilovers.

The key difference is the separation of duties. In a MacPherson setup, the strut does two jobs. It holds the spring. It also holds the wheel straight. A double wishbone separates these jobs. Dedicated arms hold the wheel. This gives engineers more control. Why is the top arm shorter? This is deliberate. It is called an SLA design. Short Long Arm. The unequal lengths force the wheel to tilt in as the car bounces. This keeps the tire flat on the road during turns.

RoadActive Suspension

Camber is the tire angle relative to the road, and it determines your grip. It is the most important factor for tire contact.

Imagine two ways to hold a dinner plate flat:

  1. Hold it from one edge. This is one point. If you tilt your hand, the plate angle changes a lot.
  2. Hold it from two sides. This is two points. You can tilt it less because both points resist.

This is the core advantage. A MacPherson strut has one top point. When the car leans in a turn, the wheel leans outward. This is bad for grip. A double wishbone has two points. The four-bar linkage controls the wheel angle. The top arm is shorter. This forces the wheel to tilt in as it moves up. It keeps the tire flat on the road when you push the car hard.

Wikipedia confirms this. Double wishbones “provide increasing negative camber gain all the way to full jounce travel.” A strut stops doing this early and then tilts the wrong way.

1. Superior Camber Control During Cornering — The Primary Advantage

Better camber control means more of the tire stays flat on the road during cornering. This gives you more grip. It makes handling predictable.

Why the arm length matters: The top arm is shorter. As the car leans, the geometry tilts the wheel toward the road. The tire stays planted.

MacPherson comparison: A strut lets the wheel lean outward as it compresses. This is the opposite of what you want. Engineers can try to fix this, but the basic shape limits them.

Real-world result: In a hard turn, a double wishbone car holds the road. Drivers feel confident. The tire works at its best when it matters most.

2. Precise Roll Center Control

Engineers can tune exactly how the car’s body rolls in corners. The roll center is a point the body rotates around. Its position affects balance.

With double wishbone, engineers set this height easily. They adjust the arm angles. They can create the exact feel the car needs.

Why this matters: A high roll center makes the car feel like it will flip. A low one creates too much lean. Getting it right is why luxury cars can be comfortable and stable.

MacPherson limitation: The strut geometry locks the roll center in place. Designers have less freedom to move it.

3. Built-In Anti-Dive and Anti-Squat Geometry

The design keeps the car level when you brake or accelerate hard. Anti-dive stops the nose from diving down. Anti-squat stops the rear from sinking.

The arm angles can be tuned for this. It works without hurting the camber control.

What this feels like: You brake hard. The car stays flat. It does not lurch forward. You can brake later with confidence.

MacPherson comparison: You can add anti-dive to a strut. But it often hurts other parts of the handling. You cannot tune them independently.

High Performance Academy confirms this. The flexibility allows tuning of anti-dive and camber separately. Single-pivot designs cannot do this.

4. The Counter-Intuitive Advantage — Softer Damping WITH Better Grip

You can have a smoother ride and better handling at the same time. This is rare. Most cars trade comfort for grip.

Because the camber stays good, the contact patch stays full. Engineers do not need stiff shocks to fix the geometry. They can use soft shocks.

Car Throttle explains it well. “The advantage of the double-wishbone is you can have comparatively softer damping without compromising the contact patch.”

The result: The car grips the road. It also absorbs bumps well. This is why luxury cars like the Lexus LS use it. They need both grip and comfort.

5. Extensive Tuning Flexibility — The Engineer’s Dream

Engineers can adjust six different things independently to perfect the car’s feel. RepairsAdvisor lists six parameters. Camber curve. Caster. Toe. Roll center. Scrub radius. Kingpin inclination.

No other design lets engineers tune this many things. A strut ties many of these together. Changing one hurts another.

Why this matters: A luxury car needs softness. A race car needs stiffness. A truck needs strength. Double wishbone works for all of them. You just change the arm lengths.

6. Lower Center of Gravity and Lower Hood Line

The layout allows for a lower car body. A MacPherson strut is tall. It goes up into the engine bay. This takes up space.

A double wishbone sits low. It uses horizontal space. The shock is smaller and lays flat.

Result: The hood can be lower. This improves airflow. The engine can sit lower. This lowers the car’s center of gravity.

The supercar connection: This is why Ferrari and Lamborghini use it. They need the car very low for aerodynamics. They cannot use tall strut towers.

7. Torque Steer Reduction in Front-Wheel-Drive Vehicles

It stops the steering wheel from fighting you when you speed up. Torque steer happens in powerful front-wheel-drive cars. The wheel pulls left or right.

The MacPherson constraint: The strut angle is fixed. This limits how engineers can set the steering axis. This creates torque steer.

Double wishbone solution: The arms are separate. Engineers set the steering axis independently. This stops the torque pull.

CarTreatments gives a real example. The Mazdaspeed 3 had bad torque steer. It used struts. The older Honda Integra Type R used double wishbones. It had much less torque steer.

8. Optimized Component Weight Through Precision Load Analysis

Engineers can make specific parts lighter because they know the stress on each part. This is a hidden benefit.

Wikipedia explains it. It is easy to calculate loads. This allows for “optimized lightweight parts.”

A strut carries many loads at once. It must be strong everywhere. A wishbone arm carries specific loads. It only needs strength in one direction.

Result: Each arm can be very light. The whole system has more parts. But each part is efficient. Race cars use this to save weight.

Suspension

Double wishbone suspension costs more and takes up more space than simpler designs. No suspension is perfect. Here is what you lose.

DisadvantageWhy It MattersReal-World Impact
CostMore parts cost more moneyEconomy cars use struts instead
PackagingArms need horizontal spaceTight fit for engines
MaintenanceMore joints to wear outHigher repair bills. Look for signs of car suspension issues
WeightTotal system is heavierMatters for racing, not daily use
FWD fitHard to fit upper armHonda switched to struts for this reason

The honest truth: A good MacPherson strut can beat a bad double wishbone. The BMW M3 and Honda Civic Type R use struts. They handle great. Engineering matters more than the design name. Do not assume a car is better just because of the suspension type.

Accessible / Mainstream

  • Mazda MX-5 Miata: All four corners since 1990. The best handling car for the money.
  • Honda Civic Type R (older): Front double wishbone. A handling benchmark.
  • Acura RDX: Front double wishbone. An SUV that handles like a car.
  • Tesla Model 3 / Model S: Front double wishbone. Adds to the sporty feel.
  • Subaru WRX / STI (rear): Rear double wishbone. Helps with grip.

Sports and Performance

  • Chevrolet Corvette (C5-C8): All four corners. Defined American supercar handling.
  • Honda S2000: Front and rear. A mechanical masterpiece.
  • Porsche Taycan: Front double wishbone. Rare for Porsche.
  • Lexus LC 500: Front double wishbone. Luxury plus speed.

Supercars and Race Cars

  • Ferrari: All around. Needed for high-speed grip.
  • Lamborghini Huracán: Front and rear.
  • Lotus Elise / Exige: Front and rear. Pure handling.
  • Ford GT: All around.
  • Formula 1 cars: All cars use this or a version of it. Proof it works for racing.

For normal commuting, you likely won’t notice the difference over a well-tuned strut.

Your SituationDoes Double Wishbone Matter?
Commuting, highway cruising❌ Very little. You won’t feel it.
Spirited driving, twisty roads✅ Yes. Confidence is higher.
Enthusiast who tracks the car✅ Significant. Lap times improve.
Luxury buyer✅ Yes. The ride is smoother.
FWD car buyer✅ Yes. Reduces torque steer.
Budget buyer❌ Not realistic. Costs too much.

Evo magazine says: “A car doesn’t have to have double wishbones to be a great driver’s car.” The Porsche 911 used struts for years. Great engineering beats a specific part. Choose a well-engineered car first.

Double wishbone is better because it controls wheel camber with two points. This keeps the tire flat during turns. It lets engineers tune many things independently. Struts tie these things together. Struts are cheaper and easier to package. A good strut can match a bad wishbone. But the wishbone design is fundamentally superior for control.

Yes, often significantly better. It maintains the tire contact patch well. Engineers can use softer shocks. Softer shocks absorb bumps better. Struts need stiff shocks to control the wheel. This can make the ride hard. Luxury cars use wishbones for this exact reason.

Yes. It keeps the tire flat on the road. This stops uneven wear on the edges. It prevents cupping caused by bouncing. If you see uneven wear, check our guide on inner tire wear cause. Wishbone cars usually wear tires evenly.

Race cars use it for the tuning freedom. They need to control camber and roll independently. The suspension must absorb curbs without losing grip. The low profile helps aerodynamics. It is essential for lap times.

The main disadvantages are cost and space. It costs more to build. It takes up more room in the engine bay. This makes it hard to fit in small cars. It has more parts to break. Repair costs are higher. This is why economy cars use struts.

Bottom Line — Do the Advantages Add Up for You?

Double wishbone is engineering’s gift to performance, but only when done right.

  • Buying a sports car: It is worth seeking out. The grip is noticeable.
  • Buying a luxury car: It is worth it. The ride quality is better.
  • Buying a daily driver: The benefits are academic. A good strut car is fine.
  • Buying a powerful FWD car: It helps with torque steer.
  • You track your car: You want this design. It helps lap times.

Golden rule: Double wishbone is superior for performance. But a well-tuned MacPherson strut beats a poorly tuned wishbone. Look for the best engineering first. Look for the suspension type second.

Quick Summary:

  • Double wishbone suspension uses two A-arms to control wheel movement precisely.
  • It keeps the tire flat on the road by tilting the wheel in during turns.
  • The design allows for a smoother ride without losing grip.
  • Engineers can tune handling parameters like roll center independently.
  • It reduces torque steer in powerful front-wheel-drive cars.
  • The main downsides are higher cost, complexity, and space needs.
  • It is the standard for race cars and supercars due to its geometry.