XPeng Mona L05 Travels 742 Miles Without Charging or Refueling

XPeng’s Mona L05 extended-range electric crossover traveled 1,194.2 kilometers, or 742 miles, from Guangzhou to Wenzhou without stopping for electricity or gasoline. The 23-hour, 14-minute drive covered 94.77% of the vehicle’s claimed combined range, offering a striking answer to drivers who worry that a long trip in an electric vehicle must be organized around charging stations.

The BitAuto-organized test followed the G228 coastal highway, and XPeng announced the result on October 23. The distance was not covered on battery power alone. The L05 carries both a rechargeable battery and a gasoline engine, allowing it to continue generating electricity after its initial battery charge has been depleted.

Electric drive with gasoline backup

The L05 uses a 183-kilowatt, or 245-horsepower, electric motor to propel the vehicle. Its 37.2-kilowatt-hour lithium iron phosphate battery supplies the motor during electric operation, while a 1.5-liter naturally aspirated gasoline engine functions as a generator when additional electrical energy is needed.

That layout differs from a conventional hybrid, in which an engine can mechanically drive the wheels as part of the propulsion system. In the L05, the electric motor remains responsible for driving the vehicle, preserving the response and control characteristics of an electric powertrain. The engine extends the trip by converting gasoline into electricity rather than taking over as the direct source of wheel torque.

This is the engineering proposition behind an extended-range electric vehicle: daily travel can be handled electrically, while stored liquid fuel provides backup for longer journeys or areas with sparse charging coverage. It reduces dependence on charging stops, but it does not eliminate gasoline consumption or deliver the emissions and mechanical simplicity of a battery-only vehicle.

The L05 reportedly covered its first 252.7 kilometers, or 157 miles, on battery power before the range extender activated. Electricity consumption during that portion was reported at 11.7 kilowatt-hours per 100 kilometers. Across the complete journey, reported consumption averaged 2.5 kilowatt-hours of electricity and 3.7 liters of gasoline per 100 kilometers, with the latter equivalent to approximately 63.6 miles per U.S. gallon.

Why 94.77% needs context

XPeng lists an electric-only range of up to 310 kilometers, or 193 miles, and a combined range of as much as 1,310 kilometers, or 814 miles, under China’s Light-Duty Vehicle Test Cycle. The road test therefore reached 94.77% of that advertised combined figure close enough that prospective owners will reasonably ask whether they could reproduce it.

The available test details do not support a universal yes. The car operated in Ultra Power Saving Mode, which disabled most nonessential functions. Climate control remained on at 24 degrees Celsius, or 75 degrees Fahrenheit, but reducing other electrical loads helped preserve energy. Reported running speeds were approximately 50 to 80 kilometers per hour, or 31 to 50 mph, for much of the journey, although XPeng did not disclose the average speed.

Speed is especially important because aerodynamic drag rises rapidly as a vehicle goes faster. A sustained expressway trip can demand substantially more power than a route driven at moderate speeds, particularly for a crossover with a relatively large frontal area. Temperature, traffic, elevation, passenger load and accessory use can further change the result.

The comparison also crosses two different test environments. The Chinese light-duty test cycle is a standardized laboratory procedure with slow-, medium- and fast-driving phases, a relatively low average speed and frequent acceleration and deceleration. It is useful for comparing vehicles tested under the same procedure, but its range figure is not a promise for every road, climate or driving pattern.

The L05’s 742-mile result demonstrates that a gasoline generator can make charging infrastructure largely irrelevant during one carefully managed long-distance run. Matching it in routine ownership would require more complete information about average speed, traffic, elevation, starting energy, fuel quantity and operating conditions. For now, the confirmed result is narrower but still notable: an electric-drive crossover completed the Guangzhou-to-Wenzhou journey without an energy stop, while relying on both its battery and its onboard gasoline supply.

By Robert McKinney — Editor-in-Chief for AMI’s automotive and mobility coverage, with a mechanical engineering background and a decade reporting on powertrain systems, EV innovation, and global vehicle manufacturing.