Redefining Supercars: Innovation and the Future of Performance

Author: Jamie Nonis

How electric power, hybrid engineering, advanced batteries, and 3D printing are reshaping the future of supercars.

From 3D-printed hypercar components to industry-disruptinG battery technologies that unleash unfathomable electric power and performance, these groundbreaking innovations are rewriting the rules of automotive engineering and redefining the very definition of a supercar

When a Hyundai Ioniq 5 N can accelerate as fast as a Lamborghini Huracán Sterrato—that is, from zero to 100 km/h in 3.4 seconds—some degree of concern for the fate of the supercar is not unwarranted.

The arrival of the mass-market electric vehicle (EV) has democratised the automotive industry such that legacy carmakers no longer wield market dominance. Many are already losing their competitive edge in an increasingly homogeneous space, and it’s getting harder for automakers to distinguish themselves—and their offerings—in a more even playing field underwritten by new rules of engagement.

In the supercar segment, the existential threat is in overdrive. Lamborghini Chief Executive Officer Stephan Winkelmann once said that electrification is “the biggest challenger ever,” and indeed, the dramatically changing landscape calls into question the very definition of the supercar.

What makes a supercar a supercar in an electric era—where it’s becoming more difficult to justify the same sanctimonious reverence for a V8, V10 or V12 engine when an EV powered by a China-made battery can muster similar power, acceleration and speed?

For Lamborghini, design and performance are “a no-brainer,” according to Winkelmann, “but when we talk about electric cars, they may be fast but they’re not really emotional.” That, to him, is the most challenging aspect of electrifying its fleet.

So, if electrifying the existing product lines is scarcely sufficient, would brand equity, heritage, pedigree and prestige be enough to guarantee the survival of supercar manufacturers beyond the patronage of loyalists in this new world order?

These questions are what the likes of Ferrari and McLaren have been asking themselves as a fully electrified future appears inevitable, while fuel-inefficient internal combustion engines (ICE) are progressively phased out in the face of stricter climate regulations worldwide.

Norway, the world leader in EV adoption, has already mandated that all new cars sold be “zero-emission” from 2025, while Britain and Singapore are banning new sales of petrol vehicles as early as 2030. A litany of other countries are aiming for a 2035–2040 target. What does this mean for the supercar business?

The Electric Revolution

The road to electrification is paved with options—three, to be precise. There are Mild Hybrid Electric Vehicles (MHEVs), which primarily focus on improving fuel efficiency and reducing emissions but are unable to run solely on electric power. Next is the Plug-in Hybrid Electric Vehicle (PHEV) that can be charged externally and offers a more substantial electric range. Both are powered by a traditional petrol engine paired with an electric motor, which is what enables an EV—even the mid-range ones—to achieve instant torque and hence, the kind of phenomenal acceleration figures described at the start of this piece. And a full electric car, well, is able to travel purely on electric power.

Supercar companies have been experimenting with hybrid technology for over a decade. McLaren introduced the first hybrid supercar to the world, the P1, as far back as 2013, and Ferrari rolled out its own mild hybrid, LaFerrari, that same year. Lamborghini, however, only entered the electric conversation six years later with the Lamborghini Sián FKP 37, another mild hybrid with a limited production of just 63 units. The 6.5-litre V12 is equipped with a supercapacitor instead of a conventional lithium-ion battery—advanced for its time—but like LaFerrari, does not have an electric-only mode and cannot be externally charged.

Hybrid supercars have evolved considerably since, with higher performance plug-in hybrids like the Raging Bull’s Revuelto and Temerario—its second and third hybrid models—now combining their V12 and V8 engines with up to three electric motors for a significant boost to performance and power. As these latter-day supercars get more of their juice from advanced batteries, a trend reversal is on the rise with a growing number of new models now fitted with fewer cylinders.

Ferrari and McLaren have both released their first-ever V6 road supercars in recent years—the 296 GTB and Artura, respectively—both plug-in hybrids designed for such easy handling they’re rather irresistible as daily drives. Still, these offer an electric-only range limited to a quick coffee run, perhaps, with the longest belonging to the Koenigsegg Gemera at almost 50 km, compared with the average 400 km-plus range on your everyday EV.

While we’re still waiting for a full-electric supercar from this lot, smaller, pure-electric niche players unburdened by traditional thinking, processes and systems have sped ahead and already set new benchmarks for zero-emissions hypercars that deliver extreme performance. Cue Rimac.

McLaren W1 Suspension System
McLaren’s Formula 1-inspired suspension system uses 3D-printed components to reduce weight and improve aerodynamics.

Reimagining Battery Architecture

Since 2009, the Croatia-based leader in advanced electric vehicle technologies and energy solutions has pushed the boundaries of engineering to redefine what’s possible in this space.

It’s an ambitious vision realised in the Rimac Nevera, the company’s first production model and the world’s fastest accelerating production car that can go from zero to 100 km/h in a blistering 1.8 seconds—a record since challenged only by Japan’s all-electric Aspark Owl.

The Nevera, which saw first customer deliveries in 2022, has reimagined battery architecture with a full carbon fibre structural pack seamlessly integrated into the vehicle’s monocoque. Made of lithium, manganese and nickel, the unique, lightweight H-shaped 120 kWh battery is capable of producing a remarkable 1.4 MW of power, making it the highest power battery pack with exceptional energy density ever integrated into a road-legal car. Oh, and range? A very commendable 489 kilometres for an all-electric car discharging this kind of power.

Along with sophisticated algorithms that optimise capacity and power delivery, its quad-motor set-up means each of the Nevera’s wheels are independently driven by its own dedicated electric motor that channels torque accordingly, giving the hypercar an unprecedented level of control and agility—which you’d definitely want more of given the two-seater hypercar’s whopping 1914 horsepower at your fingertips. Insane? Yes. The company then went and beat its own record with an even lighter, more powerful version: the track-focused Nevera R, boasting an astonishing 2107 horsepower.

Not content with keeping its state-of-the-art technologies to itself, Rimac’s electric drive systems and scalable energy platforms are also offered as turnkey solutions to other automotive OEMs such as Porsche, Mercedes-AMG and BMW. In fact, the company’s ground-breaking innovations have led to Porsche acquiring a 15.5 percent stake in the business. Bugatti came knocking, too, leading to a historic merger that formed a new entity, Bugatti Rimac, in 2021.

The Lamborghini Revuelto

Lamborghini’s first V12 series production hybrid, the Revuelto

Rewriting the Rules with 3D Printing

This brings us to the Bugatti Tourbillon. Developed from the ground up and infused with Formula One-derived technologies, its hybrid powertrain features a new naturally-aspirated 8.3-litre V16 engine delivering 1,000 horsepower coupled with three electric motors that add another 800 horsepower. Together, that’s a whiplash-causing total of 1,800 horsepower at your disposal when you go full throttle up to 100 km/h in two seconds flat.

Even more impressive is the fact that many of its parts, such as suspension components, have been 3D printed in a bid to further trim weight off the hypercar for even sharper aerodynamics. Bugatti is not the only one—McLaren has also used 3D printing for the front upper and lower wishbones of the suspension of its limited-production hybrid W1 supercar launched in 2024.

This was in partnership with Divergent Technologies, which reportedly also has deals with Aston Martin and Mercedes-AMG amongst other German and Italian sports car companies. The father-son duo behind the California-based start-up is also responsible for manufacturing the world’s first 3D-printed hypercar: the Czinger 21C.

Founded less than a decade ago by American entrepreneur Kevin Czinger and son Lukas, Czinger Vehicles is rewriting the rules of high-performance automotive engineering and redefining how cars of the future will be manufactured with its industry-disrupting technology that merges AI-driven generative design, additive manufacturing (3D printing) and robotic assembly.

According to the junior Czinger, who’s CEO of both companies, AI-driven programming delivers 20 times higher precision than standard robotics in the manufacturing process. Czinger Vehicles’ other key innovations in materials science include adhesively bonding structures in place of traditional welding, and developing a UV-curable adhesive that cuts curing time from 60 seconds to not more than three seconds—breakthroughs that allow the company to produce stronger, high-performance, aerospace-grade structures at a fraction of the weight and environmental impact.

That said, not every component of the 21C is 3D printed; mainly, large sections of the chassis, engine bar, suspension, braking systems and parts that require intricate, complex geometries, high strength and lightweight design.

The body of the hybrid—a 2.88-litre V8 combined with a higher voltage 800V electric drive system—is made of carbon fibre, another material extensively used in supercar designs today alongside aluminium and titanium due to their lightweight properties that help keep the hypercar’s aerodynamics razor-sharp in a speed-obsessed industry.

With 3D printing a hypercar no longer the stuff of science fiction, a manufacturing revolution is well and truly underway. Who knows where else the supercars and hypercars of tomorrow will take us? As Miranda Priestly famously said about cerulean blue in The Devil Wears Prada, whatever comes to redefine the future of supercars will no doubt trickle down and dictate the design of regular, mass market vehicles, too. And who knows, that might not be such a bad thing after all.