Yes. Current XPENG electric cars can suit long-distance travel when the route has suitable high-power DC chargers. The 2026 New G6 RWD Long Range has an 80.8 kWh LFP battery, 525 km WLTP range, 17.9 kWh/100 km official consumption and charging up to 451 kW. XPENG lists a 10–80% charging time of 12 minutes under suitable conditions. The Standard Range offers 470–480 km WLTP depending on wheel size. Independent 2024 testing of the earlier G6 recorded 19 minutes 35 seconds from 10% to 80%, showing that fast charging is achievable outside manufacturer testing.
A long-distance EV should be judged by the distance covered between useful charging stops, not by the largest range number in a brochure. The 2026 Australian New G6 RWD Long Range combines 525 km WLTP range with an 80.8 kWh gross battery, while the AWD Performance version uses the same battery and is rated at 510 km WLTP. Official energy use is 17.9 kWh/100 km for the RWD Long Range and 18.4 kWh/100 km for the AWD version.
The difference is small on paper, but motorway travel makes efficiency more noticeable. The AWD model carries two motors, produces 358 kW and 660 Nm, reaches 100 km/h in 4.13 seconds and weighs about 2,220 kg; the Long Range RWD weighs roughly 2,115 kg and produces 218 kW. A buyer covering 600–900 km in one day is usually better served by the longer-range RWD unless high performance is a priority.
| New G6 version | Battery | WLTP range | Official consumption | Peak DC rate |
|---|---|---|---|---|
| RWD Standard Range, 18-inch | 68.5 kWh | 480 km | 16.6 kWh/100 km | 382 kW |
| RWD Standard Range, 20-inch | 68.5 kWh | 470 km | 16.9 kWh/100 km | 382 kW |
| RWD Long Range | 80.8 kWh | 525 km | 17.9 kWh/100 km | 451 kW |
| AWD Performance | 80.8 kWh | 510 km | 18.4 kWh/100 km | 451 kW |
The table also shows why wheel choice matters. On the Standard Range model, moving from 18-inch to 20-inch wheels reduces the WLTP figure from 480 to 470 km, a drop of about 2.1%, while official consumption rises from 16.6 to 16.9 kWh/100 km. Ten kilometres may seem minor, but repeated motorway journeys make tyre size, pressure, temperature and cruising speed relevant to how often a driver stops.
Charging performance changes the calculation much more than a 10 km difference in certified range. XPENG specifies an 800V electrical platform and 5C LFP battery technology for the New G6; the Long Range and AWD versions can accept up to 451 kW, while the 68.5 kWh Standard Range is rated at up to 382 kW. All three versions are listed at 12 minutes from 10% to 80% when charging conditions and equipment permit.
A 12-minute figure should not be read as a promise that every roadside charger will produce the same result. Battery temperature, starting state of charge, charger output, ambient temperature and battery condition can change the session substantially; XPENG itself lists those variables in its Australian technical notes.
Charger capability therefore matters before the car reaches its own limit. A 150 kW unit cannot supply 451 kW, and even a nominal 350 kW site caps the power below the vehicle's published maximum. XPENG states that the New G6 Long Range can add 427 km of charge in 15 minutes in its internal testing, but that figure was obtained under controlled conditions and should be treated as a reference rather than a guaranteed motorway result.
Independent testing provides a useful comparison. In NAF's 2024 Norwegian El Prix, an earlier G6 AWD Performance with an 87.5 kWh usable battery was tested from 10% to 80% in 19 minutes 35 seconds, rounded to 20 minutes, against a manufacturer claim of 20 minutes. NAF measured a 264 kW peak, 5.7% below the stated 280 kW maximum.
That same organisation repeated the charging test in winter 2025. The earlier G6 completed 10–80% in 19 minutes 58 seconds and reached 281 kW, about 0.4% above its published 280 kW figure. NAF conducts the test after warming the cars for at least two hours and activates battery preconditioning where available, making the procedure more representative of an EV arriving at a fast charger after sustained travel.
The current 2026 model uses a different battery and charging system, so the older 19–20 minute result cannot be transferred directly to the 12-minute New G6. It does show that XPENG's previous generation could reproduce its advertised charging time in an independent test rather than only under manufacturer-controlled conditions. NAF's summer 2024 study covered 24 EVs; 13 finished their stated charging window within 30 minutes, while 18 were within one minute of their manufacturers' claims.
Range needs the same distinction between certification and road use. WLTP provides a consistent laboratory procedure for comparing cars, but XPENG notes that actual distance changes with speed, passengers, outside temperature, climate-control use, terrain and vehicle condition. A 525 km WLTP figure should therefore not be used to schedule a charger at kilometre 520 with only 1% battery remaining.
Motorway speed is especially relevant because aerodynamic resistance rises quickly as speed increases. The New G6 has a published drag coefficient of 0.248 Cd, but its efficiency still changes when cruising faster, carrying roof equipment or travelling into strong wind. On a long route, a driver who normally sees consumption close to the official 17.9 kWh/100 km can expect a different result when weather, elevation or sustained high speed depart from the WLTP cycle.
Cold-weather evidence from another XPENG model shows the size of the possible difference. During NAF's winter 2024 test, the XPENG G9 travelled 451.8 km against a 520 km WLTP rating, a 13.1% reduction, with temperatures along parts of the route falling to around -10°C. The same G9 then completed 10–80% charging in 19 minutes, one minute quicker than its stated 20-minute time.
Those results are useful for planning rather than predicting an exact G6 winter distance. A traveller covering 800 km in cold weather should allow a larger battery reserve than someone making the same trip in mild conditions, particularly when the next charger is far away. Arriving around 10–20% and leaving during the faster portion of the charging curve is generally more practical than repeatedly waiting for 100%.
Passenger and luggage space also affect whether an EV works for touring. The 2026 New G6 provides 571 litres of boot capacity with the rear seats in use and 1,374 litres with them folded; published payload is 475 kg for the RWD Long Range and 470 kg for the AWD Performance. Five occupants plus luggage therefore require more attention to payload than the 571-litre boot number alone suggests.
The suspension layout is also more relevant after 500 km than during a short urban test. XPENG lists double-wishbone front suspension, while the Standard Range specification also identifies a five-link independent rear arrangement. The vehicle has five seats, a 5.8 m turning radius, a 15.6-inch central display and a 10.25-inch driver display, features that support daily use once the motorway portion is over.
Driver assistance can reduce repetitive work on long motorway sections, although it does not replace supervision. Australian specifications list adaptive cruise control, lane centring, automatic emergency braking, blind-spot detection, rear cross-traffic alert and driver-state monitoring, with some versions also receiving assisted lane-change functions. XPENG tells drivers to remain responsible for the vehicle and notes limitations in poor visibility, snow, slippery roads and complex traffic.
Safety results add another piece of information for people spending many hours at motorway speed. Euro NCAP assessed the G6 in 2024 and awarded it a five-star rating; the organisation reported that the passenger compartment remained stable during its frontal offset test and described protection of major body areas as good or adequate for the driver and good for the passenger.
For charging at the destination, the New G6 supports 11 kW AC charging. XPENG lists approximately 9.2 hours from 5% to 100% for the 80.8 kWh versions and 7.3 hours for the 68.5 kWh Standard Range, so an overnight hotel or home charge can restore most of the battery without using a motorway fast charger.
A practical 700–900 km trip therefore depends on where charging falls along the route. Starting near 100%, using a high-power CCS2 station when the battery is low, and leaving before charging slows substantially can keep stops closer to normal rest periods; using 50–150 kW chargers removes much of the benefit of a vehicle rated for 382–451 kW.
For drivers choosing between versions, the RWD Long Range provides the most travel-oriented specification: 525 km WLTP, 80.8 kWh battery, 451 kW peak DC charging and 475 kg payload. The Standard Range saves battery capacity while retaining a 12-minute published 10–80% time, and the AWD Performance trades 15 km of WLTP range for 358 kW output and a 4.13-second 0–100 km/h time.
Before a long trip, checking charger power is more useful than simply counting charging locations. A route with several 300–350 kW CCS2 stations can make better use of the New G6 than one dominated by 50–100 kW units, while winter travel deserves more reserve than summer travel. Independent 2024 and 2025 tests of the previous G6 generation also show why both charging time and actual range deserve attention rather than relying on peak-kW advertising alone.