2025 Opel Grandland Electric Review

The 2025 Opel Grandland Electric measures 4.65 meters in length, placing it at the upper boundary of the compact SUV segment. This second-generation Grandland is built upon Stellantis’s new STLA Medium platform and arrives in a densely populated European market. It competes directly with its French platform sibling, the Peugeot E-3008, which commands a base price of €48,750. Other key rivals include the Volkswagen ID.4 Pro at approximately €46,000 and the Renault Scenic E-Tech EV60 at €41,990. Opel asks €46,750 for the entry-level 73 kWh Grandland Electric in Germany, while the GS trim with a larger 82 kWh battery requires a step up to €51,950. Buyers can also specify a 97 kWh Long Range version, or a newly introduced dual-motor all-wheel-drive variant.

For the standard 73 kWh model, the manufacturer claims a range of 523 kilometers on a full charge. The larger 82 kWh and 97 kWh variants are rated at approximately 582 kilometers and 694 kilometers, respectively. WLTP figures suggest an energy consumption of 16.9 to 18.5 kWh per 100 kilometers for the entry model.

Real-world range typically falls 15 to 30 percent below WLTP estimates, heavily influenced by temperature, speed, and driving style. In mild weather on the highway at a steady 130 km/h, the 73 kWh Grandland Electric will likely yield a functional range closer to 340 kilometers before requiring a charging stop. City driving, where regenerative braking is most effective, should see that figure stretch comfortably past 400 kilometers.

Opel utilizes lithium nickel manganese cobalt (NMC) chemistry for the Grandland’s battery packs, with cells sourced from varying suppliers depending on the capacity. NMC batteries offer excellent energy density, which is strictly necessary to package 97 kWh of capacity within the physical footprint of the STLA Medium platform. The trade-off for this density is a higher sensitivity to extreme temperatures and a slightly faster degradation profile over a decade of use compared to heavier lithium iron phosphate alternatives. Thermal management relies on an active liquid cooling circuit, which maintains optimal operating temperatures during peak DC fast charging sessions. The 73 kWh pack accepts up to 150 kW of peak charging power, while the larger packs can pull 160 kW. This electrical capability facilitates a 20 to 80 percent replenishment in roughly 30 minutes at a compatible fast charger.

The transition to the STLA Medium architecture represents a significant shift for the brand, as this platform was developed explicitly for battery-electric propulsion rather than adapted from internal combustion constraints. The result is a packaged vehicle that maximizes interior volume and flattens the cabin floor. The standard single front-mounted electric motor produces 157 kW (213 horsepower) and 345 Nm of torque. Acceleration is entirely adequate rather than aggressive, requiring 9.0 seconds to reach 100 km/h, with a top speed electronically limited to 170 km/h. Opel opted for a 400-volt electrical architecture rather than the faster-charging 800-volt systems currently utilized by some Korean and German competitors. In hindsight, this decision likely kept platform development costs manageable, though it caps the absolute charging speeds owners will experience on road trips. A fixed single-speed gearbox transfers power to the front wheels, ensuring uninterrupted power delivery up to the vehicle’s electronic speed limit.

The powertrain offers three distinct driving modes, Eco, Normal, and Sport, which alter throttle mapping and steering weight. Engaging the sport configuration sharpens the accelerator response noticeably, though the steering remains light and insulates the driver from road texture. The regenerative braking system offers multiple levels of deceleration, selectable via steering wheel paddles. True one-pedal driving, where the vehicle comes to a complete halt without the driver touching the brake pedal, is noticeably absent. Drivers must apply the mechanical friction brakes for the final few meters of a stop.

Despite the vehicle’s substantial 2.1-tonne curb weight, engineers skipped the complexity of air suspension or electronic adaptive dampers. The Grandland Electric utilizes a conventional steel spring setup paired with Frequency Selective Damping technology. This purely mechanical system employs dual hydraulic circuits within the shock absorbers to independently tune bump absorption and rebound based on the frequency of road inputs.

It functions much like progressive bifocal lenses, passively adjusting to the immediate requirement without relying on electronic intervention.

Low-frequency movements, such as body roll during cornering or pitching under heavy braking, are met with increased damping resistance to stabilize the chassis. High-frequency inputs from cobblestones or broken pavement bypass the main valve, allowing the suspension to compress more freely and absorb the impact. The mechanical valves alter the fluid dynamics within the strut to physically limit body roll through corners.

Inside the cabin, a 16-inch widescreen display dominates the dashboard on higher trims, while base models utilize a smaller 7-inch instrument cluster paired with a central screen. Opel has deliberately retained physical buttons for essential functions, including climate control, audio volume adjustment, and driving mode selection. This is a crucial safety advantage over the purely touchscreen-based interfaces favored by several competitors. The tactile feedback of a physical temperature switch allows drivers to adjust the cabin environment without diverting their visual attention from the road. The touchscreen interface attempts to handle every minor preference imaginable, though the menu logic occasionally requires a map and compass to navigate. Touchscreen menus are still required for deeper vehicle settings, however, the fundamental climate and audio controls remain localized to these physical switches. The cabin materials prioritize sustainability, with Opel stating that 100 percent of the interior fabrics and coverings contain recycled content.

The front seating benefits from certification by the German Campaign for Healthier Backs, providing extensive lumbar support and adjustable thigh extensions. These structural seat designs actively reduce driver fatigue during extended highway stints. Cargo capacity is highly practical for this class, offering 485 liters with the rear seats raised and expanding to 1,645 liters when the split-folding rear bench is lowered. The exterior design incorporates an illuminated front logo seamlessly integrated into the 3D Vizor grille. The upper trim levels feature Intelli-Lux HD headlights equipped with over 50,000 individual micro-LED elements, which actively mask oncoming traffic from the high beams with precise shadowing. The interior also features a semi-transparent storage compartment in the center console, which houses the wireless phone charging pad and holds 36 liters of volume.

Evaluating the long-term durability of the Grandland Electric requires acknowledging that it rests on an entirely new architecture. Stellantis has a mixed historical track record with early electric components, particularly regarding onboard chargers and climate compressors in their previous generation of vehicles. The permanent magnet synchronous motor used in this application is an evolution of a widely deployed design, suggesting fundamental mechanical robustness. The mechanical simplicity of the Frequency Selective Damping system removes the risk of expensive air suspension compressor failures or leaking air struts down the line. Software stability remains the primary unknown variable for this new generation of electrical architectures.