MotorTrend, an organization with a long-standing desire to experience a Czinger vehicle, recently had the opportunity to drive the Czinger 21C V Max hypercar on a demanding three-day, 500-mile road rally. This unique approach aimed to assess the center-steer, tandem two-seater's performance and livability beyond conventional track testing, offering a comprehensive look at what this seven-figure, 1,250-horsepower machine is like in a real-world, albeit high-performance, setting.

The journey began with a visit to the Czinger factory, a facility so distinct that it required U.S. passport verification for entry. This unusual requirement stems from Czinger's parent company, Divergent Technologies, which supplies advanced components to the Department of Defense. Divergent Technologies is at the forefront of automotive manufacturing, utilizing iterative artificial intelligence and massive 3D printers to design and produce incredibly light and strong mechanical parts. During the factory tour, led by Lukas Czinger, CEO of both companies, the sheer innovation was evident, particularly observing lasers meticulously fusing powdered aluminum into intricate, bird-bone-like automotive components – a true glimpse into the future of manufacturing.

Lukas Czinger elaborated on Divergent's technological philosophy, which aims for the 'Pareto optimal' design point. This means the software iteratively generates hundreds of thousands of designs for a given part, such as a remote reservoir for a rear suspension damper, to achieve the strongest and lightest possible shape, making any further addition or subtraction of mass detrimental. This evolutionary design process has attracted significant attention, with nine automotive OEMs currently leveraging Divergent's 3D-printed parts. While Aston Martin (for the DBR22 Roadster), Bugatti (Tourbillon), and McLaren (W1) publicly acknowledge their collaboration, the distinctive appearance of the Ferrari F80's control arms suggests further undisclosed partnerships.

The Czinger brand produces two primary versions of its hypercar: the high-downforce, track-focused 21C, and the long-tailed, wingless V Max, designed for ultimate top speed. For the inaugural 'Velocity Tour' road rally through California's wine country, the author piloted a silver V Max. The car's cabin, often described as a canopy, offers a sensation akin to piloting a jet fighter, with glass incredibly close on both sides, providing excellent visibility. However, the unique design necessitates a rather elaborate entry and exit procedure, involving sitting on the massive sill, tucking feet into the footwell, and sliding under the roof.

The substantial sills are not merely aesthetic; they house the car's batteries. The 21C V Max is a hybrid hypercar, featuring a total of 4.4-kWh battery power, split evenly between each sill. While not a plug-in hybrid, the mid-mounted V-8 engine continually charges the battery pack. These batteries are crucial, delivering 500 horsepower to the front axle, where each wheel is independently powered by an electric motor. The combustion engine is a Czinger-designed 2.9-liter twin-turbo V-8, producing 750 hp on standard 91-octane premium unleaded fuel, which increases to 850 hp with 100-octane race fuel. The engine is also capable of running on ethanol, potentially yielding even higher power outputs.

Power to the rear wheels is managed by an Xtrac single-clutch automated semi-sequential gearbox, similar to the unit found in the Pagani Utopia. However, Czinger elevates this technology by 3D printing the transmission case and integrating small 48-volt electric motors to accelerate shift execution at lower speeds. This innovative approach effectively mitigates the common lurching and surging associated with other single-clutch automated transmissions during low-speed maneuvers, making everyday driving situations like navigating gas stations and parking lots remarkably smooth and almost normal. This engineering refinement truly represents a significant achievement in hypercar drivability.