The Future of Electric Vehicle Performance? Putting Elaphe’s In-Wheel Hub Motor Prototype to the Test on Ice in a Hyundai Ioniq 5
Prepare to rethink what’s possible with electric vehicles. We pushed Elaphe’s groundbreaking in-wheel hub-motor technology through its paces in a Hyundai Ioniq 5 on a frozen lake, and the results could very well revolutionize EV performance and vehicle architecture as we know it.
By Tim Stevens, Veteran Automotive Industry Insider | Published March 18, 2026
Imagine piloting a 500-horsepower, front-engined, rear-drive American pony car on sheer ice—without a single tire stud. It sounds like a recipe for disaster, a white-knuckle exercise in restraint and surgical throttle control. But as I settled into the driver’s seat of this particular muscle machine on a vast, frozen Swedish lake in early March, I quickly realized I wouldn’t need my saintly patience after all. Here I was, burying the accelerator, executing effortless drifts around a massive skidpad, and grinning like a fool.
The reason for this unexpected balletic grace? A significant assist from the front axle, courtesy of some next-generation stability and traction control. Where you’d typically find nothing but bulky brakes, suspension linkages, and steering hardware up front, this coupe housed something extra entirely. Bolted directly over those brake calipers and barely tucking inside the wheel wells, these motors weren’t just adding horsepower—they were injecting a level of capability that transformed a potentially treacherous vehicle into an absolute master of the frozen surface.
Straight From Slovenia
These revolutionary motors hail from a relatively quiet but incredibly innovative Slovenian company named Elaphe. Though founded back in 2006, Elaphe has largely operated beneath the mainstream radar, focusing on high-stakes, black-ops projects with major automotive manufacturers. Their core mission has always been to champion the transformative potential of in-wheel hub motors, pushing the technology far beyond the realm of electric scooters and bicycles where it’s most commonly seen.
Elaphe’s most high-profile moment arrived through their partnership with Lordstown Motors, a collaboration that promised to finally bring their in-wheel motor technology to the masses. Unfortunately, the dream soured with Lordstown’s subsequent bankruptcy, leaving Elaphe to showcase its remarkable engineering on other platforms.
Vehicles like this modified Hyundai Ioniq 5. Even in its standard form, the Ioniq 5 is a highly competent electric vehicle. However, in this specific iteration—a base, non-N model equipped with Elaphe’s technology—the transformation is nothing short of astonishing, particularly on ice. My initial encounter took place at the Colmis Proving Ground near Arjeplog, Sweden, utilizing a paved handling circuit carved directly into the frozen landscape.
In its default mode, the stock Ioniq 5 is already an extremely capable machine. But when pushed beyond its limits on standard, unstudded snow tires, its stability and traction control systems intervene with swift, decisive power cuts. Attempting to accelerate out of a corner requires navigating an impossibly narrow window of throttle and steering inputs. Deviate even slightly, and forward momentum vanishes instantly.
Interestingly, there is a way to bypass this electronic nanny. A long press of the traction control button allows you to fully disable those systems. Once unleashed, the standard Hyundai transforms into a fundamentally different beast. Suddenly, sliding and spinning the tires becomes genuinely entertaining. However, the experience remains far from rewarding. The stock Ioniq 5 becomes notoriously difficult to drift smoothly, lurching into violent oversteer with minimal warning. Furthermore, if you attempt to power through the slide, the vehicle plummets headfirst into terminal understeer. Even employing an aggressive Scandinavian flick technique results in the car stubbornly refusing to turn, simply plowing straight ahead the moment you apply throttle.
Enter the Quad-Motor Ioniq 5
Elaphe’s version of the same vehicle, however, presents an entirely different reality. To create this marvel, the company removed Hyundai’s dual-motor setup and integrated four in-wheel hub motors. Each individual motor is capable of producing an impressive 188 horsepower and a staggering 1,254 lb-ft of torque. Elaphe seamlessly integrated these motors with the car’s existing battery and power management system, allowing the Ioniq 5’s touchscreen to display the remaining state of charge just as it would in the stock vehicle.
The user experience remains remarkably familiar. You enter the car, twist the drive selector forward to ‘D’ just like a standard Ioniq, and prepare for a radically different journey.
In the default drive mode, the vehicle again proves exceptionally safe and easy to manage on the slick surface. However, unlike Hyundai’s stock safety systems, which cut power abruptly at the first sign of slip and are reluctant to restore it, Elaphe’s system operates with remarkable subtlety. As you initiate a turn, the Ioniq gently reduces power in such a smooth, linear fashion that you can maintain a flat-foot throttle input and simply drive around the corner.
Simultaneously, the system increases regenerative braking on the inside wheels, actively assisting the vehicle’s rotation through the corner. Crucially, this occurs without ever inducing oversteer. There’s just enough controlled understeer to gently discourage novices from pushing too hard, maintaining a perfect balance of safety and engagement.
Progressing further, drivers can engage Sport and Sport Plus modes, each offering progressively more power and driver control. In Sport Plus, the Ioniq 5 becomes genuinely eager to engage in moderate drifts, while the throttle response becomes significantly sharper. Yet, even when the rear end begins to hang out beyond a few degrees, the system swiftly corrals the vehicle, relying once again on the individual regenerative braking capabilities of the four wheels. This stabilization happens smoothly and silently, without the jarring clatter of ABS engaging.
But Elaphe has saved its most exhilarating offering for last: a dedicated Drift mode. In this ultimate setting, the sophisticated control systems remain present to provide assistance, but for the most part, they step back and allow the driver complete freedom. The once-humble Ioniq 5 transforms into an absolute joy on the ice. The tail hangs out playfully through tighter corners, and the car powers sideways through faster sections with confidence and control.
The vehicle behaves in a clean, predictable manner, free from abrupt power cuts or clumsy interventions. When your drift angle begins to fade, the system provides just enough subtle correction to prevent a complete spin, but otherwise, you are free to pivot and swing the substantial 4,600-pound electric vehicle exactly as you please.
Addressing the Weight Implications
Elaphe representatives informed me that, despite the addition of four motors, their modified Ioniq 5 weighs only a few pounds more than the standard production model. The stock brake system is retained, but the suspension has been replaced with bespoke KW coilover units, specifically engineered to manage the increased mass now residing within the wheels.
The addition of unsprung mass—each motor weighing approximately 60 pounds—is a critical engineering challenge. Skeptics might assume this would inevitably ruin the car’s handling dynamics. However, Elaphe’s CEO, Gorazd Gotovac, dismisses this concern with confidence. “The top test drivers in the top performance OEMs would disagree,” he stated emphatically. “From my perspective, that’s enough for me.”
Gotovac acknowledged that for premium luxury vehicles, the added weight in the wheels could introduce complexities in ride quality. Nevertheless, he emphasized that these challenges are entirely surmountable with more advanced suspension damping technologies. He firmly believes that the notion of in-wheel motors negatively impacting handling performance is a persistent myth. “High-mu, low-mu, on tarmac and on ice, we prove that every day to OEMs,” he asserted.
This particular aspect of handling dynamics, unfortunately, is something we could not fully evaluate during our test. While typical frozen lakes are notoriously bumpy and uneven, the proving grounds in Sweden featured surfaces meticulously groomed to be ultra-smooth.
The increased mass at the wheels must surely present certain engineering trade-offs, but Gotovac maintains that these are far outweighed by the potential benefits. By relocating the drive motors to the wheels, significant space is liberated within the vehicle chassis. This newfound space opens possibilities for larger battery installations, expanded cargo capacity, or simply superior overall interior packaging. Even this particular Ioniq 5, which typically features a minuscule front trunk (frunk), boasted a massive, cavernous empty space under its hood thanks to the relocated motors.
Furthermore, Elaphe’s vision extends to designing vehicles from the ground up specifically for these motors. In such purpose-built applications, vehicles can achieve even greater weight savings. Manufacturers can implement smaller brake systems and completely eliminate reduction gearsets and differentials, components that traditionally consume both space and energy. When designed holistically, Elaphe estimates that these integrated systems could reduce manufacturing costs by as much as 10 percent. This cost reduction stems from the ability to utilize smaller batteries, necessitated by the lighter weight and enhanced efficiency of the overall system.
Servicing concerns are also elegantly addressed. What about the practicalities of maintaining the brakes, which are now encased behind those motors? The process is surprisingly straightforward. Once the wheel is removed, three exposed bolt heads become accessible. Loosening these bolts allows you to insert pins that securely hold the motor’s rotor and stator in place. From there, the motor simply disconnects and can be lifted away. It’s an exceptionally user-friendly design.
While routine servicing shouldn’t be a frequent requirement—thanks to the motors handling a significant portion of the braking duties—Elaphe has engineered its hub motors to accommodate even large sports car
