2025 Ford Puma Gen-E Review: Agile Packaging Meets Modest Battery Capacity

The 2025 Ford Puma Gen-E marks the manufacturer’s entry into the European subcompact electric crossover segment. Built at Ford’s manufacturing facility in Craiova, Romania, the Gen-E adapts an existing small-car platform into a purely battery-driven vehicle that sits below the midsize Explorer and Capri in the brand’s electric lineup. In Germany, the base Puma Gen-E starts at €36,900, while the higher Puma Gen-E Premium specification begins at €39,400 before individual options. In this category, it contends with the Jeep Avenger Elektro, which opens at €38,500 in German dealerships, the Peugeot E-2008, priced from €39,000, and the Hyundai Kona Elektro, which lists at €37,990 in its entry-level 48.4 kWh specification. These four vehicles compete directly for urban and suburban buyers across the German market.

Official WLTP testing suggests that the Ford Puma Gen-E achieves an electric driving range of up to 376 kilometers on a single charge when fitted with standard wheels. Ford claims an average energy consumption between 13.0 and 14.6 kWh per 100 kilometers under standardized testing conditions. Opting for the Premium trim with its larger alloy wheels and additional standard equipment lowers the rated figure slightly to approximately 364 kilometers. These official figures are determined through laboratory dynamometer testing rather than varied road driving.

Real-world range typically falls 15 to 30 percent below standardized WLTP ratings because of ambient weather conditions, elevated travel speeds, and cabin heating demands. On the German Autobahn at a continuous cruising speed of 130 km/h in mild 18-degree Celsius conditions, real-world range estimates sit between 230 and 245 kilometers before the battery reaches a low state of charge. In city traffic where deceleration frequently activates the regenerative braking system, the crossover achieves roughly 330 to 345 kilometers of operational range. In sub-zero winter temperatures, continuous cabin heating will reduce the achievable highway range to roughly 185 kilometers.

Ford equips the Puma Gen-E with a lithium-ion battery pack based on Nickel Manganese Cobalt chemistry, delivering a usable capacity of 43.0 kWh from a gross total of 46.8 kWh. Nickel Manganese Cobalt cells provide higher energy density by weight than lithium iron phosphate alternatives, which keeps total vehicle mass lower in a compact platform. In hindsight, automakers that selected heavier LFP chemistries in this vehicle class ended up adding significant curb weight to achieve similar capacity. However, NMC chemistry requires the owner to maintain a daily charging ceiling between 80 and 90 percent to minimize long-term cell degradation. Direct current fast charging peaks at 100 kW, allowing a 10 to 80 percent top-up in approximately 23 minutes at an appropriate high-power charging station. Recharging from 10 to 80 percent on a compatible DC fast charger takes approximately 23 minutes under ideal battery temperature conditions.

Rather than developing a bespoke electric vehicle architecture, Ford adapted its existing Global B platform for the Gen-E. The front axle houses a single permanent magnet synchronous motor delivering 124 kW, or 168 metric horsepower, along with 290 Newton-meters of torque. Mounting the drive unit and power electronics under the bonnet allowed engineers to fit a 43-liter front luggage compartment under the hood. The rear cargo layout functions much like a carpenter’s hidden drawer beneath a workbench, incorporating an 80-liter waterproof storage well with a drain plug beneath the main boot floor. This structural arrangement places the pack low between the axles while raising the interior floor height slightly relative to the petrol model.

The sprint from zero to 100 km/h requires 8.0 seconds, and top speed is electronically governed at 160 km/h.

The chassis layout pairs front MacPherson struts with a semi-independent torsion beam axle across the rear. Ford engineers tuned the passive steel coil springs and anti-roll bars to handle the vehicle’s curb weight of 1,563 kilograms. The steering rack operates with a direct 14.8 to one ratio, translating inputs quickly through the front tires during cornering transitions. Over broken pavement and sharp asphalt seams, the torsion beam transfers noticeable vertical movement into the rear passenger compartment. The suspension setup controls pitch during sudden braking and limits body roll through rapid direction changes.

The dashboard design centers around a 12.8-inch digital instrument cluster and a 12.0-inch SYNC 4 touchscreen mounted above the center console. Physical rotary dials and buttons for temperature and fan speed adjustments have been removed from the lower dash. Adjusting the dual-zone heating, fan intensity, or seat warmers requires the driver to tap on icons along the bottom bar of the center display screen. Removing dedicated tactile controls forces drivers to take their eyes off the road to change basic cabin settings, which creates a safety risk and unnecessary friction during daily driving. Ford maintains mechanical switches for the indicator stalks, steering wheel controls, and column-mounted gear selector.

The standard SYNC 4 operating software supports over-the-air updates, a 5G data connection, and wireless integration for Apple CarPlay and Android Auto. Rear passenger space remains tight for taller adults, where legroom is restricted by the 2,588-millimeter wheelbase and the raised floorpan. Driver assistance options include Ford’s Level 2 hands-free BlueCruise system for certified Autobahn sections. The rear cargo hold offers 574 liters of storage when counting the underfloor compartment, expanding to 1,283 liters with the rear seats folded.

The electric powertrain removes several high-maintenance components found in combustion vehicles, including the dual-mass flywheel, turbocharger, and dual-clutch transmission. In German TÜV roadworthiness data and ADAC breakdown reports, the underlying Puma platform demonstrates solid structural and suspension durability, with past owner issues concentrating mostly on 12-volt battery management and early infotainment software glitches. The permanent magnet drive motor and single-speed transaxle represent a simple mechanical layout with low wear potential. However, because the battery cell packaging and drive unit arrived in customer hands in 2025, real-world data covering high-mileage battery health remains limited. Long-term mechanical maintenance is simplified by the rear torsion beam and standard steel brake hardware.