Vehicle-to-Load (V2L) has quietly become one of the most talked-about features among Australian campers shopping for a new car. The ability to run a fridge, charge devices, power lighting, or run a CPAP machine from your car — without a separate battery setup — sounds almost too good to be true. And like most things in the car world, the reality is more nuanced than the marketing suggests.
This guide breaks down what V2L actually delivers for camping, which PHEVs and EVs offer it in Australia right now, and how to think through the EV vs PHEV decision if your use case involves serious off-grid time.
What Is V2L and Why Do Campers Care?
V2L is a feature that lets your car's traction battery power external devices — essentially turning your vehicle into a rolling power station. In most implementations, V2L is accessed via a standard 240V AC outlet (either built into the car or via an adaptor plugged into the charging port). The power output varies significantly by vehicle, which matters a lot if you're planning to run anything more demanding than phone chargers.
For camping, the typical power demands look like this:
A 12V compressor fridge (60L) draws roughly 40–60W continuously. A portable induction cooktop draws 1,000–2,000W when active. A CPAP machine draws 30–60W overnight. A power tool (drill, angle grinder) typically draws 500–1,200W peak. A small electric blanket draws 50–150W.
The key number is the V2L power output rating. A 1.5kW system can run your fridge and charge devices comfortably, but struggles with induction cooking or power tools. A 3.6kW system handles virtually every camping appliance simultaneously without breaking a sweat.
V2L in PHEVs: What's Actually Available in Australia 2026
The PHEV V2L picture in Australia is surprisingly thin. As of 2026, Mitsubishi is effectively the only PHEV brand offering V2L as a genuine feature on mainstream models.
Mitsubishi Outlander PHEV (2022–present): The standout PHEV V2L option. Offers 1,500W (1.5kW) via a dedicated 240V outlet in the boot. This is a proper, built-in socket — not an adaptor situation. The Outlander PHEV also provides a 100W outlet in the cabin. AWD is standard, boot space is generous, and it will tow up to 1,500kg. The V2L works when the car is stationary and in a specific mode; it does not deliver power continuously while driving at highway speed.
Mitsubishi Eclipse Cross PHEV: Smaller footprint, same 1.5kW V2L capability, standard AWD. Less boot space than the Outlander, which matters if flat sleeping length is important to you. Priced lower, which makes it attractive if your power needs are modest.
Toyota RAV4 PHEV: No V2L. Despite being Australia's best-selling PHEV, the RAV4 Prime does not offer any form of V2L. Worth noting for buyers who assume all PHEVs have it.
Ford Escape PHEV: No V2L in the Australian specification.
Kia Sorento PHEV / Hyundai Tucson PHEV: No V2L in standard Australian trim.
The honest PHEV V2L reality in Australia 2026: if you want PHEV + V2L + AWD, you're buying a Mitsubishi. Full stop.
V2L in EVs: Much More Power, More Options
The EV side of the V2L market is where the real capability lives. Several EVs on sale in Australia offer V2L at 3.6kW — more than double the output of any PHEV option.
Hyundai IONIQ 5 (all variants): 3.6kW V2L via the charging port adaptor plus an additional 240V outlet under the rear seat. AWD available in the long-range variant. Exceptional flat boot floor, with the rear seat folded the load length is over 1,800mm on most configurations. This is the benchmark V2L camping EV in Australia.
Kia EV6 (GT-Line and GT): 3.6kW V2L, same platform as IONIQ 5. AWD in the long-range dual-motor variant. Slightly more sloped roofline reduces practical boot height but flat floor is excellent. Strong DC fast charging (up to 233kW) means a quick recharge at a highway charger before heading off-road is genuinely viable.
Genesis GV60: 3.6kW V2L, AWD as standard on most variants. More premium price point but the same E-GMP platform as IONIQ 5 and EV6 underneath.
BYD Atto 3: V2L available (2.2kW in most configurations). FWD only — no AWD option. Competitive price point makes it attractive for light camping use where AWD isn't essential.
Zeekr 001/X: V2L available on Australian models. Worth checking the specific output wattage for the variant you're considering, as this varies by configuration.
Tesla Model Y: No V2L. Despite being Australia's best-selling EV, the Model Y has no factory V2L capability. Third-party solutions exist but they're workarounds, not manufacturer-supported features.
BYD Seal / Dolphin: V2L available. The Seal offers 2.2kW via the charging port; useful but not at the 3.6kW tier of the Korean EVs.
The "Passive Charging While Driving" Question
This is a genuinely important difference between PHEVs and EVs for camping use, and it's often misunderstood.
In a PHEV like the Outlander, the petrol engine can act as a generator to charge the battery while you drive. This means that by the time you arrive at a campsite — even after a long drive — you can have a meaningfully topped-up battery available for V2L use. You're not dependent on finding a charger en route. If your battery depletes during a campsite stay, you can run the engine for 20–30 minutes to top it back up. This is a real, tangible redundancy advantage for remote camping where charging infrastructure is zero.
In an EV, V2L draws directly from the traction battery. A full charge on an IONIQ 5 Long Range (84kWh usable) gives you enormous capacity — running a 60W fridge for four days continuously would only consume around 5–6kWh — but once the battery is depleted, you need a charger. There is no "run the engine for a bit" option.
The practical implication: for camping within 150–200km of reliable DC fast charging, this distinction barely matters. You drive to the campsite, park, use V2L freely, drive out to a charger if needed, come back. The EV's higher V2L output (3.6kW vs 1.5kW) is a significant advantage in this scenario.
For genuinely remote camping — multiple days with no access to any charging infrastructure — the PHEV's ability to regenerate via the petrol engine is a meaningful safety net. The 1.5kW output limitation is less of a concern when your alternative is zero power at all.
AWD: How Both Camp Handle It
AWD availability cuts differently across the two categories.
On the PHEV side, both Mitsubishi Outlander PHEV and Eclipse Cross PHEV come with AWD as standard — there's no FWD variant to accidentally buy. This is partly because the PHEV layout (front ICE + front motor, rear electric motor) makes AWD architecturally natural for Mitsubishi's system.
On the EV side, AWD typically requires choosing the dual-motor (long-range AWD) variant, which commands a price premium of $8,000–$15,000 over the single-motor FWD version. For the IONIQ 5, the Long Range AWD is approximately $12,000 more than the base RWD variant. This is worth budgeting for explicitly if AWD is non-negotiable for your camping use case.
It's also worth being honest about what "AWD" means in these vehicles. The Outlander PHEV's Super All Wheel Control (S-AWC) is a well-regarded system with genuine off-road capability within the limits of a road-oriented SUV. The dual-motor EV systems (IONIQ 5, EV6) deliver excellent traction in mud, snow, and loose surfaces via precise torque vectoring, but they're not designed for serious rock crawling — and neither is the Outlander. If you need actual off-road performance, a Mitsubishi Pajero Sport or Toyota Land Cruiser is a different conversation entirely.
Boot Space and Flat Sleeping — What the Numbers Actually Mean
The "1,800mm flat boot length" requirement comes up frequently among camping buyers because it's roughly the minimum comfortable length for sleeping two adults flat in an SUV. Here's how the key V2L candidates stack up:
Hyundai IONIQ 5 Long Range AWD: Boot length with rear seats folded approximately 1,900mm+. Flat floor (no transmission tunnel). Excellent for sleeping. Boot volume 527L seats up, expands significantly with seats folded.
Kia EV6 GT-Line AWD: Slightly shorter load length due to sloped roofline but still exceeds 1,800mm on most measurements. Floor is flat. Boot volume 490L seats up.
Mitsubishi Outlander PHEV: Third-row version offers 7 seats, which reduces flat sleeping simplicity unless you configure carefully. With second row folded flat in the 5-seat version, load length is approximately 1,850mm. The floor is largely flat but with a small step at the boot entry depending on variant.
Mitsubishi Eclipse Cross PHEV: More compact footprint. With seats folded, load length is approximately 1,500–1,600mm — likely not enough for sleeping two adults flat without specific aftermarket additions.
If flat sleeping is important, the IONIQ 5 wins outright. The Outlander PHEV is viable with the right configuration. The Eclipse Cross PHEV likely falls short.
Running Costs and Servicing
PHEVs are mechanically more complex than either pure EVs or regular hybrids — they contain a full petrol drivetrain plus a full electric drivetrain. This means more components that can fail and servicing intervals that cover both systems. Expect PHEV servicing costs to sit between standard ICE and pure EV — roughly $400–$600 per service depending on the service schedule and dealer.
Pure EVs have fewer moving parts than any ICE or PHEV vehicle. No timing belt, no oil changes, no spark plugs, no exhaust system maintenance. Annual servicing for an IONIQ 5 or EV6 at a Hyundai/Kia dealer is typically $250–$400. Over a 5-year ownership period, the EV servicing cost advantage compounds meaningfully.
Battery replacement is the question that always comes up. The honest answer: at current failure rates, traction battery replacement before 10–12 years or 200,000km is rare for major-brand EVs. Hyundai warrants the IONIQ 5 battery for 8 years / 160,000km. In practice, most batteries degrade slowly rather than failing outright — dropping to 80% capacity over many years rather than suddenly requiring replacement. When and if replacement does become necessary, battery costs have been falling rapidly — the cost per kWh of replacement battery has dropped more than 80% over the last decade and continues to decline.
The 3-Year Horizon: What Changes by 2028–2029
Buying decisions made today for a car you'll actually purchase in 3 years are tricky because the market in 2028–2029 will look noticeably different from today.
On the EV side: charging infrastructure will continue to expand significantly. The federal government's investment in highway fast charging, combined with state programs, means that remote camping corridors currently under-served by charging will have meaningfully more options by 2028. The "range anxiety for remote camping" concern that's legitimate today will be somewhat reduced — though not eliminated — by then.
On the PHEV side: the Mitsubishi PHEV range is likely to evolve. The next-generation Outlander PHEV is expected to offer a larger battery (potentially 20kWh+, up from the current 20kWh), extended EV-only range, and possibly higher V2L output. Honda, who is investing heavily in hybrid and electrified powertrains, has signalled new electrified SUV models for global markets that may reach Australia by 2027–28.
The wildcard is the used market. By 2028, used IONIQ 5s and EV6s from 2022–24 will be widely available at significantly reduced prices. Buying a used V2L-capable EV with a known battery health check at that point may represent the best value intersection of capability and cost.
The Honest Recommendation
There's no universally correct answer, but the decision tree looks like this:
Choose an EV (IONIQ 5 AWD or EV6 AWD) if: your camping is within range of DC fast charging infrastructure, you want maximum V2L output (3.6kW), flat boot sleeping space matters, long-term servicing cost matters, and you're comfortable planning charges into your routes.
Choose a PHEV (Mitsubishi Outlander PHEV) if: your camping genuinely takes you to remote locations with zero charging access for multiple consecutive days, the engine-as-generator redundancy gives you meaningful peace of mind, and you're comfortable with a 1.5kW V2L ceiling rather than 3.6kW.
What's not a great reason to choose PHEV over EV: a general sense that EV charging infrastructure is inadequate. If you're camping within 50km of a major highway, the charging landscape in Australia in 2026 is already sufficient for most EV camping use cases with a bit of route planning.
TrueCarPrice tracks what Australians are actually paying for both PHEVs and EVs — including the Outlander PHEV, IONIQ 5, and EV6 — across all states. Before you commit, check real transaction prices rather than dealer asking prices. In a market that's moved significantly over the last 18 months, the gap between sticker price and what buyers are actually paying can be $3,000–$8,000 on these vehicles.
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