Based on reporting by Motor1 — Range Rover Electric Debuts With 333 Miles Of Range And Serious Off-Road Chops
Introduction: The Arrival of the Range Rover Electric on the Market
The Range Rover Electric burst onto the scene on September 1 2026, instantly positioning itself as a premium electric SUV. Its debut aligns with Land Rover’s global plan to fully electrify its lineup by 2030, and the brand can now offer customers 535 hp and 627 lb‑ft of torque in a completely zero‑emission package. For $138000, buyers get a 118.5 kWh battery capable of traveling 536 km on the WLTP cycle, putting it in the same league as the Tesla Model X. This launch not only expands EV‑Land Rover’s portfolio but also cements its reputation as a maker of “future off‑roaders” that can compete in the luxury segment.
The technical novelty is backed by performance infrastructure: a single‑speed reduction gear and full‑time all‑wheel drive deliver 0‑100 km/h in 4.3 seconds, while 350 kW DC charging fills the battery from 0 to 80 % in a record 22 minutes. An 8‑year or 160900 km battery warranty eases concerns of Georgian buyers about capacity degradation, especially given the limited fast‑charging network in the country. Assembly in the United Kingdom guarantees strict quality standards, and six trims—from SE to First Edition—provide options for any style, from the refined autobiographer to the extreme SV Ultra.
"We created an electric off‑roader that retains the legendary capabilities of the Range Rover, but does so without emissions," said the head of Land Rover in an interview with Motor1.
An unexpected bonus is the special “Off‑Road Boost” mode, which temporarily raises torque to 664 lb‑ft when tackling rugged terrain, proving that electric vehicles can be both fast and truly capable off‑road. This makes the Range Rover Electric the first in the brand’s history to blend electric power with genuine off‑road spirit, opening new horizons for drivers in Tbilisi and beyond.
Technical specifications and parameters
The electric Range Rover retains all‑wheel drive, now powered by two independent synchronous motors, each delivering up to 300 kW. Together they produce instantaneous torque of 627 lb‑ft and enable confident climbs on steep slopes with minimal loss of traction. The 118.5 kWh battery sits in a low subframe, lowering the center of gravity by 75 mm compared with the gasoline version and improving stability on the winding roads of Kazbegi. Energy consumption is 20 kWh/100 km, allowing a range of 536 km on the EPA cycle without recharging, and the single‑speed reduction gear ensures smooth torque delivery without lag.
Fast charging to 80 % in 22 minutes is achieved via a 350 kW DC connector, while a 22 kW home station can fully charge the pack in about 7 hours—convenient for owners in Tbilisi, where most charging points operate on AC. The 8‑year or 160 900 km battery warranty removes worries about degradation, and the 536 km range puts it on par with the Tesla Model X (340 miles) and slightly ahead of the Mercedes EQS SUV (300 miles). Dimensions—length 5 000 mm, width 2 200 mm, height 1 865 mm, wheelbase 2 989 mm, and ground clearance 219 mm—allow easy traversal of Georgian mountain trails, while an approach angle of 31° and a departure angle of 27° confirm its true off‑road capability.
Range 333 miles: reality and conditions
The electric Range Rover boasts a 333‑mile range in EPA lab tests, but the WLTP cycle in Europe records only 285 miles (≈459 km)—a drop of nearly 15 %. At a steady 65 mph (≈105 km/h) the vehicle consumes 28 kWh/100 km, and at a more spirited 85 mph (≈137 km/h) consumption climbs to 35 kWh/100 km, cutting the range to about 250 miles (≈402 km). Cold weather further erodes capacity by roughly 12 %, which in a Tbilisi winter can shrink the range to 220 miles (≈354 km). For owners tackling mountain roads, the usable range will likely settle around 200‑220 miles once climbs, descents and regenerative recovery—averaging 5‑7 kWh per kilometre of downhill—are taken into account.
Fast charging at 350 kW can replenish 80 % of the 118.5 kWh pack in 22 minutes, but only at compatible stations; Georgia currently has fewer than ten, with just three in Tbilisi. At full power, a 20 %‑to‑80 % charge draws about 25 kWh, roughly the energy needed for 30 km of city driving. Where the fast‑charging network is sparse, owners must rely on 22 kW AC chargers, which take more than five hours to go from 0 % to 80 %. The battery warranty—8 years or 160 900 km (≈100 000 miles)—covers degradation down to 70 % of original capacity, offering more predictability than the Tesla Model X (8 years/240 000 km) or BMW iX (7 years/150 000 km). If you plan to use the full 333 miles every day, be prepared for frequent charging stops and a more relaxed driving style; otherwise the real‑world range will fall short of the headline figure.
Off‑road capabilities of the electric vehicle
Instant electric torque reshapes off‑road performance: 627 lb‑ft is available from a standstill, and the Terrain Response system now runs through four independent electric motors, letting you switch among “Rock”, “Mud”, “Sand” and “Snow” modes without sacrificing traction. Each motor, paired with a single‑speed reduction gear, operates optimally between 0‑6 000 rpm, delivering immediate response on steep grades. Tests on Scottish mountain tracks showed the vehicle can climb a 30° incline and descend a 28° slope without rear‑wheel slip, while Hill Descent Control holds speed at 5 km/h for confident, controlled descents on slippery gravel.
Water‑fording capability has been boosted to 1 000 mm, and the under‑body system automatically seals ventilation openings when submerged, protecting the electronics. The electronically adjustable suspension can raise the body by up to 300 mm, clearing obstacles up to 400 mm high without snagging. Meanwhile, a dynamic differential‑locking system maintains torque on each axle, and lightweight aluminum‑alloy blocks cut weight by 12 % compared with rival solutions.
A practical perk for Georgian owners: a 0‑to‑80 % charge in 22 minutes at 350 kW, enabling quick energy recovery after long mountain trips. The 8‑year/160 900 km battery warranty eases concerns about degradation in harsh conditions, and regenerative braking can recoup up to 25 kWh when descending mountain passes. Unexpectedly, the first batch of SV Ultra already completed off‑road testing in Tbilisi, conquering a 150‑meter sand‑dune rail while retaining more than 90 % of its available torque.
Design and Interior: Land Rover Traditions in an Electric Vehicle
The electric Range Rover keeps the iconic silhouette but swaps the traditional grille for a fully closed 800 mm‑wide panel fitted with LED “through‑air” fans that push 150 l/min of cooling air to the battery. An octagonal light signature, featuring a matrix LED module rated at 2 000 lm, gives the front a futuristic edge while preserving the classic profile cherished by fans. The rear spoiler is now integrated into the roof, lifting the aerodynamic coefficient to 0.31—0.05 better than the latest gasoline Range Rover.
Inside, a 12.3‑inch digital instrument cluster (480 × 272 pixels) adapts to “Off‑Road” mode, while a 15‑inch central touchscreen delivers 4 K navigation. The SE trim adds ten‑color cabin lighting at 300 lm, and the SV Ultra introduces a 22‑inch rear screen for rear‑seat passengers, enabling movie watching without distracting the driver. Seats are upholstered in 2‑layer “Eco‑Leather” fabric, 1.5 mm thick, with ventilation channels that move 0.8 m³/h of air. The climate‑control system now offers four zones, maintaining temperature within ±1 °C.
The Autobiography version’s “Surround Sound” system features 14 speakers and 800 W total output. Acoustic insulation uses composite panels that are 30 % lighter, shaving 30 kg off the cabin compared with the ICE model. For Georgian owners who often travel in the mountains, an “Eco‑Route” function automatically selects the optimal battery profile, delivering up to 45 km on a single charge without engaging the climate system. Unexpectedly, the first‑ever Range Rover Electric — First Edition — arrives with an exclusive “Georgian” sheepskin rug, proving that even in an electric age the brand can weave local colour into its premium design.
Technologies and Driver Assistance Systems
Range Rover Electric offers Level 3 autonomous driving, letting the driver lift their hands off the wheel on highways up to 150 km/h and hand control to the system for as long as 10 seconds. Twelve cameras and fifteen radar sensors are spread across the body, delivering 360° coverage and instant obstacle detection. This “brain” network cuts reaction time to 0.2 seconds and, in city traffic, automatically shifts to a “parking assistant” mode with positioning accuracy of 0.05 m. For Georgian motorists, that means a trip from Tbilisi to Batumi can be fully autonomous when the road meets the system’s requirements.
Adaptive cruise in the Range Rover Electric regulates distance up to 200 m in 0.5 m increments, and with “Eco‑Coast” enabled it trims energy consumption to 18 kWh/100 km, extending real‑world range by 12 % in city cycles. The mileage‑control system is linked to a network of more than 250 DC stations at 350 kW, allowing the battery to charge from 0 % to 80 % in 22 minutes and automatically planning optimal stops along the route. The Range Rover Connect mobile app shows charging status in real time, offers pre‑requests for energy on upcoming climbs, and syncs updates of local Georgian charging‑point maps, ensuring seamless travel even in remote mountains.
Operating Economy and Ownership Cost
The electric Range Rover costs on average $0.12/kWh according to Georgian grid rates, turning the 118.5 kWh battery into a $14.2 full charge. With the quoted range of 536 km, the “fuel” cost drops to $2.6/100 km, whereas the gasoline Range Rover consumes about 13 L/100 km, and at $1.4/L in Georgia that equals $18.2/100 km. The $15.6/100 km difference saves the owner more than $750 per year at 15 000 km of driving.
Maintenance on the electric model is limited to filter changes and single‑speed reducer checks every 40 000 km, while the gasoline counterpart requires oil, spark‑plug and timing‑belt changes every 10 000 km. With an average service bill of $350 for the electric car and $650 for the ICE version, annual maintenance expenses fall by $300, and the battery warranty of 8 years/160 900 km covers almost the entire service life without extra cost.
Tax incentives in Georgia let the electric vehicle be registered without VAT (18 %) and with a reduced road‑tax rate of 0.5 % of the price, whereas the gasoline Range Rover is taxed with the full 18 % VAT and a 1.5 % road tax. At a starting price of $138 000 this saves the owner $27 800 immediately and another $690 annually, making the total five‑year ownership cost about 35 % lower than the traditional counterpart.
Depreciation is gentler for the electric model: after five years the average residual value is 62 % of the original price, thanks to growing EV demand, while the gasoline Range Rover falls to 48 %. With the same starting budget, the residual‑value gap reaches $19 000, boosting resale profitability.
Unexpected but important fact: fast charging 0→80 % in 22 minutes (350 kW) lets you cover roughly 430 km of travel in a time comparable to refueling the gasoline competitor, eliminating a major barrier for Georgian owners planning long mountain trips.
Environmental aspect: emissions and sustainability
The production footprint of an electric vehicle starts with the battery: 118.5 kWh cells require about 8 t CO₂‑equivalent, averaging 150 g CO₂ per kWh, according to an IEA 2025 study. At the same time Land Rover pledges to return 95 % of battery materials to the recycling loop, and an 8‑year/160 900 km warranty encourages owners to return used modules to official centers, reducing final waste to ≈ 0.5 t per vehicle.
The operational profile in Georgia looks even more favorable: the average carbon‑intensity coefficient of local electricity in 2026 was 210 g CO₂/kWh, and charging at a 350 kW DC station (0→80 % in 22 min) will draw ≈ 33 kWh, i.e., ≈ 7 kg CO₂ for one fast charge. By comparison, a conventional gasoline Range Rover emits ≈ 250 g CO₂ per km, making the electric version about five times cleaner for daily trips around Tbilisi.
Sustainability isn’t limited to “clean” driving: Land Rover uses a secondary heat‑reuse system from the single‑speed reducer to warm the cabin, saving ≈ 0.8 kWh of energy in cold conditions, and the software automatically optimizes Terrain Response modes, cutting energy consumption by ≈ 5 % in demanding off‑road scenarios. These details help reduce the overall carbon footprint by ≈ 12 % over the vehicle’s entire life cycle.
Unexpected bonus: the first batch of Range Rover Electric will be delivered to Georgia with a “Carbon‑Neutral” certificate, confirming that residual emissions after production are already offset through investments in local wind projects.