Why Honda Made A Formula Car With Its Engine In This Weird Location

Why It Matters

The Side‑by‑Side demonstrates how unconventional engineering can accelerate driver development, offering a template for low‑cost, high‑feedback training vehicles in motorsport academies.

Key Takeaways

• Engine placed beside driver reduces polar moment of inertia.
• 860‑lb chassis uses 56 hp 742 cc V‑twin motorcycle engine.
• Design improves weight distribution for balanced under‑/oversteer.
• Side‑by‑Side serves as skill‑building platform for aspiring racers.
• Unconventional layout never adopted widely in modern motorsport.

Pulse Analysis

Honda’s Side‑by‑Side emerged at a time when the automaker was experimenting beyond its flagship Formula 1 program. Targeted at karting schools and driver‑development clinics, the car combined a tubular spaceframe with a compact V‑twin engine sourced from Honda’s motorcycle division. By positioning the engine on the right‑hand side of the cockpit, engineers achieved a near‑centralized mass, dramatically lowering the car’s polar moment of inertia. This engineering choice translated into a car that resisted sudden yaw, offering a stable platform for drivers to practice throttle‑steer coordination without the wild oversteer typical of lightweight formula cars.

From a technical standpoint, the Side‑by‑Side’s 56 hp output may appear modest, yet the 860‑lb weight gave it a power‑to‑weight ratio comparable to entry‑level formula racers. The five‑speed sequential gearbox and 175/60 R14 tires provided a familiar feel for drivers transitioning from karting to full‑size formula machinery. More importantly, the side‑mounted engine created a unique weight distribution that softened the transition between under‑steer and over‑steer, allowing novices to explore the vehicle’s handling envelope safely. This focus on balanced dynamics underscored Honda’s intent: the car was a teaching tool, not a record‑breaker.

While the Side‑by‑Side never sparked a broader design trend, its legacy persists in modern driver‑training programs that prioritize low‑cost, high‑feedback platforms. Contemporary racing schools now employ electric powertrains and data‑rich simulators, yet the principle of centralizing mass to enhance predictability remains relevant. Honda’s experiment highlights how targeted engineering—such as unconventional engine placement—can yield tangible benefits for skill development, even if the concept doesn’t achieve commercial success on the track.