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EV Buyer’s Guide 2026: Which Electric Cars Charge Best From Home Solar and a Battery

Checked and updated by our licensed electricians: October 2026

Thinking about an electric car and wondering which one makes the most of your solar? This guide is about the part the car reviews skip: how each EV sold in Australia charges at home. Battery size, real-world range, how fast the car can take power from a wall charger (and whether that needs three phase), V2L and the coming V2H and V2G, which charger talks to which solar system, and how much roof it takes to drive on sunshine. Written by Northern Rivers electricians who install solar, home batteries and EV chargers, not a dealership. No prices on the cars (ask the dealer); honest figures, with the sources listed at the end.

Figures checked October 2026 from the makers’ published specifications, EV Database and dated Australian motoring press (the research note and every source are listed at the bottom). Variants change and Australian specifications sometimes differ from overseas ones, so confirm the on-board charger rating and V2L with the dealer before you sign.

On this page: The six things that matter for home charging · Quick answers: which EVs pair best with solar and a battery · The comparison table: 35 EVs sold in Australia · How to read the numbers · How much solar it takes to charge per kilometre · Single phase or three phase at home · V2L, V2H and V2G, and what they mean with a home battery · Which charger for which solar system · Charging pros and cons by maker · Rebates, stamp duty and the FBT exemption in 2026 · Buying a second-hand EV · Questions we get asked

1. The six things that matter for home charging

  1. Battery size (kWh). How much energy the car holds. Most 2026 EVs sit between 50 and 85 kWh; a few family SUVs and utes are 90 to 100 kWh. Bigger means more range and a longer charge from empty, but you almost never charge from empty at home: you top up what you drove that day.
  2. Real-world range (km). The WLTP figure is the lab test; expect 15 to 25 per cent less on the highway and in summer with the air conditioning on. Divide the usable kWh by your car’s kWh per 100 km to get a realistic number.
  3. AC on-board charger (kW). This is the car’s own charger, and it caps how fast a home wall charger can fill the battery. 7 kW on single phase is the Australian norm (about 35 to 45 km of range an hour). Some cars accept 11 kW, a few 22 kW, but only from a three-phase charger on a three-phase home. A 7 kW car gains nothing from a three-phase charger.
  4. DC fast charging (kW). Matters on road trips, not at home. Higher is better for a quick stop on the highway; it has no effect on home charging.
  5. V2L, V2H and V2G. V2L is a power socket from the car (camping, tools, a fridge in a blackout). V2H and V2G mean the car’s battery can feed the house or the grid through a bidirectional charger. In Australia the hardware is approved but the car makers have only switched it on inside trials. Details in section 7.
  6. Charger compatibility. The charger that talks to your inverter and battery gives you solar-only charging and one app. Sigenergy, GoodWe and Sungrow each have their own; the myenergi zappi works with everything else. Details in section 8 and on our home EV charger installation page.

2. Quick answers: which EVs pair best with solar and a battery

Every EV in the table charges happily from a 7 kW wall charger on a normal single-phase home, so no car is a bad match. These are the fits that make the most of a solar and battery system:

  • A single-phase home that wants the best value: the 7 kW cars lose nothing, so the BYD Dolphin, Atto 2 and Atto 3 Evo, MG4 and MG S5 EV, Jaecoo J5 EV and BYD Shark 6 charge exactly as fast as anything else at home, and all of them have V2L.
  • A three-phase home (ducted air, a pool, a shed) that wants fast top-ups: cars with an 11 kW on-board charger (Tesla Model 3 and Model Y, Hyundai Ioniq 5 and 6, Kia EV3, EV5, EV6 and EV9, Geely EX5, Polestar, Volvo EX30, Volkswagen ID.4) take about 60 km of range an hour from an 11 kW three-phase charger; the Zeekr 7X and Toyota bZ4X take 22 kW.
  • Power from the car for camping, tools or a fridge in a blackout: the BYD Shark 6 (6.6 kW), GWM Ora and Xpeng G6 (about 6 kW), then Hyundai and Kia (3.6 kW) and the 3.3 kW cars from BYD, Zeekr, Leapmotor and MG S5.
  • Wanting V2H or V2G later: choose a CCS2 car from a maker already in the Australian trials (BYD, Hyundai, Kia, Zeekr) and a Sigenergy home system, because the Sigenergy DC bidirectional module is the one route already approved on the Essential Energy network that covers the Northern Rivers. Buy the home battery now; the car can join it later.
  • Long daily commutes (over 80 km a day): efficiency matters more than battery size. The Tesla Model 3 (about 13 kWh per 100 km), Hyundai Ioniq 6 and Kia EV3 Long Range need the least solar per kilometre; a big SUV or ute at 20 to 22 kWh per 100 km needs about half again as much roof.
  • Any of them, with a home battery: if the car is away all day, the panels charge the house battery at midday and the battery can top up the car in the evening, or you set the charger to grid-only overnight and keep the battery for the house. The EV solar calculator shows which way suits your driving.

3. The comparison table: 35 EVs sold in Australia in 2026

Sorted by brand. The variant named is the one the figures belong to; other grades of the same car can differ (bigger battery, 11 kW instead of 7 kW). “Not published” means neither the maker nor a dated Australian source gave a figure we could check. Scroll sideways on a phone.

Car (variant the figures are for) Battery kWh Range, WLTP km AC charging at home DC fast charge kW V2L V2H / V2G in Australia
Tesla Model 3
Rear-Wheel Drive (new AU entry variant from 1 Oct 2026, LFP)
60 kWh 572
real-world about 460
11 kW on three phase; about 7 kW on single phase 175 No None announced
Tesla Model Y
Premium Rear-Wheel Drive (AU entry variant, LFP)
60 usable (64 gross) not published
real-world about 380
11 kW on three phase; about 7 kW on single phase 175 No None announced
BYD Atto 2
BEV (51.1 kWh LFP, both grades)
51.1 kWh 345
real-world about 275
7 kW, single phase (three phase adds nothing) 82 Yes Not confirmed
BYD Atto 3 Evo
Dynamic FWD (2026 update; Premium RWD has 74.88 kWh, 510 km, 11 kW AC)
60.5 kWh 420
real-world about 340
7 kW, single phase (three phase adds nothing) 89 Yes, 3.3 kW Hardware capable; trials only
BYD Dolphin
Premium (60.5 kWh); Essential has 44.9 kWh / 340 km
60.5 kWh 427
real-world about 350
7 kW, single phase (three phase adds nothing) 80 Yes, 3.3 kW None announced
BYD Seal
Premium RWD (Dynamic dropped June 2026)
82.5 kWh 570
real-world about 480
11 kW on three phase; about 7 kW on single phase 150 Yes, 3.3 kW Not confirmed
BYD Sealion 7
Premium RWD
82.5 kWh 482
real-world about 420
11 kW on three phase; about 7 kW on single phase 150 Yes, 3.3 kW Not confirmed
BYD Shark 6
Premium (PHEV ute, 1.5 L turbo + 29.58 kWh LFP)
29.6 kWh 85 7 kW, single phase (three phase adds nothing) 55 Yes, 6.6 kW None announced
Geely EX5
Complete (Extended Range 68.4 kWh LFP, 2026 update); earlier 60.2 kWh car still in EV Database
68.4 kWh 475
real-world about 355
11 kW on three phase; about 7 kW on single phase 120 Yes None announced
Jaecoo J5 EV
Summit/Track single grade, 58.9 kWh LFP FWD
58.9 kWh 402 6.6 kW, single phase (three phase adds nothing) 130 Yes None announced
Zeekr 7X
RWD (75 kWh LFP); Long Range RWD 100 kWh NMC 615 km; Performance AWD 543 km
73 usable (75 gross) 480
real-world about 385
22 kW, three phase only 420 Yes, 3.3 kW Not confirmed
Zeekr X
RWD (2026 update, 61 kWh LFP); AWD 66 kWh NMC, 415 km, 22 kW AC
61 kWh 405 11 kW on three phase; about 7 kW on single phase 230 Not confirmed Not confirmed
Kia EV3
Air Long Range FWD (81.4 kWh); Air Standard Range 58.3 kWh, 436 km
78 usable (81.4 gross) 604
real-world about 455
11 kW on three phase; about 7 kW on single phase 135 Yes, 3.6 kW Hardware capable; trials only
Kia EV5
Air Long Range 2WD (88.1 kWh LFP); Air Standard Range 64.2 kWh, 400 km
88.1 kWh 555 11 kW on three phase; about 7 kW on single phase 140 Yes, 3.6 kW Hardware capable; trials only
Kia EV6
Air RWD (84 kWh, 2026 facelift)
80 usable (84 gross) 582
real-world about 455
11 kW on three phase; about 7 kW on single phase 263 Yes, 3.6 kW Hardware capable; trials only
Kia EV9
Earth AWD (99.8 kWh); Air RWD 76.1 kWh, 443 km
96 usable (99.8 gross) 521
real-world about 435
11 kW on three phase; about 7 kW on single phase 210 Yes, 3.6 kW Hardware capable; trials only
Hyundai Inster
Extended Range (49 kWh); Standard Range 42 kWh, 327 km
46 usable (49 gross) 360
real-world about 300
10.5 kW on three phase; about 7 kW on single phase 120 Yes, 3.6 kW None announced
Hyundai Ioniq 5
RWD (84 kWh standard across 2026 mainstream range)
80 usable (84 gross) 570
real-world about 450
10.5 kW on three phase; about 7 kW on single phase 260 Yes, 3.6 kW Hardware capable; trials only
Hyundai Ioniq 6
84 kWh RWD (2026 facelift; AU 2026 line-up and pricing UNVERIFIED)
80 usable (84 gross) 680
real-world about 545
11 kW on three phase; about 7 kW on single phase 260 Yes, 3.6 kW Hardware capable; trials only
Hyundai Kona Electric
Extended Range (64.8 kWh); Standard Range about 48.6 kWh
64.8 kWh not published
real-world about 385
11 kW on three phase; about 7 kW on single phase 100 Yes, 3.6 kW None announced
MG MG4
Essence 64 RWD (64 kWh LFP, 2026 update)
61.7 usable (64 gross) 452
real-world about 360
6.6 kW, single phase (three phase adds nothing) 140 Yes, 2.2 kW None announced
MG S5 EV
Essence 62 (62 kWh LFP, 2026 update); Essence 49 has 49 kWh, 335 km
62.1 usable (64 gross) 450
real-world about 365
7.2 kW, single phase (three phase adds nothing) not published Yes, 3.3 kW None announced
GWM Ora 5
Lux (58.3 kWh LFP SUV, replaces the Ora hatch); Ora hatch 57.7 kWh 400 km WLTP
58.3 kWh 430 11 kW on three phase; about 7 kW on single phase 120 Yes, 6 kW None announced
Leapmotor C10
Design Long-Range RWD (81.9 kWh, 800 V, 2026 update); earlier 69.9 kWh car 420 km
81.9 kWh 510
real-world about 410
11 kW on three phase; about 7 kW on single phase 180 Yes, 3.3 kW None announced
Xpeng G6
RWD Long Range (80.8 kWh LFP, 800 V, 2026 facelift); Standard Range 480 km, AWD 510 km
80 usable (80.8 gross) 525
real-world about 450
11 kW on three phase; about 7 kW on single phase 451 Yes, 6 kW None announced
Deepal S07
RWD (79.97 kWh)
78 usable (80.0 gross) 475
real-world about 410
11 kW on three phase; about 7 kW on single phase not published Yes, 3.3 kW None announced
Polestar 2
Long Range Single Motor (82 kWh); 2026 Standard Range has 70 kWh NMC, 554 km
79 usable (82 gross) not published
real-world about 475
11 kW on three phase; about 7 kW on single phase 205 No None announced
Polestar 4
Long Range Single Motor (100 kWh)
94 usable (100 gross) 620
real-world about 490
11 kW on three phase; about 7 kW on single phase 200 Not confirmed None announced
Volvo EX30
Single Motor Extended Range (69 kWh NMC)
65 usable (69 gross) 462
real-world about 365
11 kW on three phase; about 7 kW on single phase 153 Yes, 3 kW None announced
Toyota bZ4X
FWD (74.7 kWh, 2026 update); AWD 517 km, $67,990
71 usable (74.7 gross) 591
real-world about 400
22 kW, three phase only 150 Yes, 1.5 kW None announced
Volkswagen ID.4
Pro RWD (77 kWh); ID.5 Pro $62,990, GTX AWD variants 79-84 kWh
77 usable (82 gross) 544
real-world about 445
11 kW on three phase; about 7 kW on single phase 175 No None announced
BMW iX1
eDrive20 (64.7 kWh usable)
64.7 usable (66.5 gross) not published
real-world about 390
11 kW on three phase; about 7 kW on single phase 128 No None announced
Nissan Leaf (3rd generation)
75 kWh (Extended Range); 52 kWh Standard Range 436 km. AU launch NOT confirmed
75.1 usable (79 gross) 604
real-world about 455
11 kW on three phase; about 7 kW on single phase 150 Yes, 3.6 kW Not confirmed
Mitsubishi Outlander PHEV
ES (2026 update, 22.7 kWh PHEV)
22.7 kWh 86 3.7 kW, single phase (three phase adds nothing) not published Yes, 1.5 kW Hardware capable; trials only
LDV eT60
Dual-cab electric ute, RWD, 88.55 kWh
88.5 kWh 330 11 kW on three phase; about 7 kW on single phase 80 No None announced

Battery: usable kWh where published, gross in brackets. Range: WLTP as quoted for Australia or Europe, with EV Database’s real-world estimate underneath. AC: the car’s own on-board charger, which caps home charging. DC: the car’s peak at a public fast charger. V2L: vehicle-to-load socket. V2H/V2G: “hardware capable; trials only” means the maker is in an Australian trial but has not enabled it for customers. PHEVs (Shark 6, Outlander) show their electric-only range. Checked october 2026.

4. How to read the numbers

Kilowatt-hours (kWh) are the tank; kilowatts (kW) are the tap. A 60 kWh battery holds 60 kWh. A 7 kW charger pours about 7 kWh into it every hour, so 30 km of driving (about 5 kWh) takes well under an hour to put back, and a full charge from empty takes eight to nine hours. That is why a 7 kW charger is enough for nearly everyone: the car is home for ten hours or more most nights.

Efficiency decides your solar bill, not range. A car that uses 13 kWh per 100 km needs about a third less solar per kilometre than one at 20 kWh. Small cars and sedans sit at 13 to 17; mid-size SUVs 17 to 19; large SUVs and utes 19 to 22.

LFP versus NMC batteries. BYD, Tesla’s entry models, MG, Geely, Kia’s Australian EV5 and most of the newer Chinese brands use lithium iron phosphate (LFP) cells, which the makers say are happy charged to 100 per cent daily. Nickel-based (NMC) packs in many Hyundai, Kia, Polestar, Volvo and long-range models are usually charged to 80 per cent for day-to-day use, so count about 80 per cent of the gross figure as your everyday tank.

5. How much solar it takes to charge per kilometre

Australian passenger cars average about 30 to 35 km a day (11,000 to 13,000 km a year). At 15 to 20 kWh per 100 km that is 5 to 7 kWh a day. In the Northern Rivers a kilowatt of panels makes about 3.8 kWh on an average day over the year (the Clean Energy Regulator rates our zone at 1.382 MWh per kW a year), so the typical car needs about 1.5 to 2 kW of extra panels, or 4 to 6 panels. Driving 100 km a day needs 15 to 20 kWh, about 4 to 5 kW extra.

The catch is timing. Solar is made between about 9am and 4pm; most cars are away then. Three ways round it, in order of how well they work:

  1. Charge when the car is home in the day (one car at home, weekends, working from home) with a solar-smart charger set to surplus only. Cars will not charge below about 6 amps, so on single phase you need about 1.4 kW of surplus before charging starts (4.2 kW on three phase); the smart charger waits for it.
  2. A home battery. The panels fill the battery at midday and the battery can top the car up in the evening, or you keep the battery for the house and let the car charge from the grid overnight on a cheaper rate. Either way the day’s solar is used, not exported for a few cents. We set the charger so it cannot drain the house battery unless you want it to.
  3. A time-of-use tariff with a cheap overnight or midday window, charging on a timer. Fine on its own; better with the first two.

Put your own numbers in: the free do I make enough solar to charge my EV? calculator takes your weekly kilometres, when the car is home, your solar size and bill, and shows how much of the car the roof covers and what closes the gap. More on the mechanics in charging an EV from solar and a battery and how big a solar system do I need.

6. Single phase or three phase at home

Most Northern Rivers homes are single phase. A 7 kW (32 amp) single-phase charger is the right fit for them and for every car in the table. Homes with three-phase power (ducted air conditioning, a pool, a workshop, a larger rural property) can have an 11 kW or 22 kW charger, but only cars with a matching on-board charger benefit. Upgrading a home from single to three phase just for the car is rarely worth it: it means a new service, a new switchboard and the network’s approval, usually several thousand dollars, to save an hour or two of overnight charging you were asleep for.

A battery system is a separate question: a single-phase battery can back up a single-phase home fully, and a three-phase home has its own options. See single-phase vs three-phase solar and batteries. On the site visit we check the supply, the switchboard and the run to the car park, so the quote covers the whole job.

7. V2L, V2H and V2G, and what they mean with a home battery

V2L (vehicle to load) is a normal power socket fed by the car: inside the cabin on most Hyundai and Kia models, through an adapter on the charge port on BYD, MG, Geely and others. It runs 2.2 to 6.6 kW of appliances through an extension lead: a camp fridge, power tools, a coffee machine, or the household fridge during a blackout. It is here now, needs no installation, and it does not connect to your house wiring.

V2H (vehicle to home) and V2G (vehicle to grid) use a DC bidirectional charger to pull energy out of the car into the home’s wiring or back to the grid. In Australia in 2026 the rules allow it (AS/NZS 4777), several DC chargers are approved or listed, and on the Essential Energy network that covers the Northern Rivers the Sigenergy SigenStor DC bidirectional module was approved in 2025 through the normal solar and battery connection process. The missing piece is the cars: no mainstream maker has enabled V2G for Australian customers outside the AGL, Origin and Amber trials, and the Electric Vehicle Council warns that most battery warranties do not yet clearly cover it. Treat V2H and V2G as coming, with the Sigenergy route the most likely first step for a local home.

With a home battery. A 60 to 85 kWh car holds three to five times what a typical home battery holds, which is why V2H is exciting. But the car is often away when the house needs power, a car battery is far more expensive to wear out, and the maker decides when you may use it. A home battery is there every evening, is covered by the federal rebate (which steps down on 1 January 2027), and runs the house in a blackout tonight. The sensible order for most homes is solar and a home battery now, an EV charger that talks to it, and V2H when the car makers switch it on.

Related: will my EV charger work in a blackout? and how long a home battery runs the house in a blackout.

8. Which charger for which solar system

Any charger uses solar if you plug in while the sun is up. A solar-smart charger goes further: it watches the house’s surplus and feeds the car only what the panels have spare. The simplest way to get that is a charger from the same maker as your inverter and battery; for everything else there is the zappi. Our standard supplied-and-installed prices (inc GST, a typical install near the switchboard with up to about 10 m of cable, a dedicated protected circuit, app set-up and our 25-year workmanship warranty on the installation) are below; long cable runs, trenching, three-phase work beyond the charger circuit or a switchboard upgrade are quoted after the site visit.

Your solar system Charger we fit Why Supplied and installed
Sigenergy system (any installer) Sigen EV AC Charger, 7 kW single phase or 11/22 kW three phase Shows in the mySigen app, solar-only and battery-protect modes, OCPP 1.6J in the datasheet. Sigenergy also makes the DC bidirectional module for V2H/V2G later. $2,975 inc GST
GoodWe system GoodWe HCA, 7 kW single phase or 11/22 kW three phase Shows in the SEMS+ app with the inverter and battery, solar-only charging. OCPP is not claimed in the Australian datasheet, so ask GoodWe if a retailer plan needs it; otherwise the zappi. $2,775 inc GST
Sungrow system Sungrow AC22E-01 (set to 7 kW on single phase; 11/22 kW three phase) Shows in iSolarCloud with the Sungrow hybrid, solar-only charging, OCPP 1.6J in the datasheet. $2,975 inc GST
Any other solar, no solar yet, or a GoodWe home that needs OCPP myenergi zappi, 7 kW single phase or 22 kW three phase Follows solar surplus through its own sensor clamp, works with every brand of inverter and every car, OCPP 1.6J through the myenergi cloud (core messages only). $2,875 inc GST

OCPP (Open Charge Point Protocol) lets an outside app, such as an energy retailer’s EV plan or a fleet system, control the charger. Most homes never need it; customers on a retailer plan that asks for an “OCPP charger” do. The Sigenergy and Sungrow chargers have it in their datasheets, the zappi has it through myenergi’s cloud with limits, and GoodWe does not claim it, so check with GoodWe or choose the zappi if your plan requires it.

Full details, what the install involves and what we check at the site visit: home EV charger installation in the Northern Rivers. Battery pages: Sigenergy, GoodWe, Sungrow.

9. Charging pros and cons by maker

Charging and home-energy points only; we are electricians, not car reviewers.

Tesla (Model 3, Model Y)

For: Every model has an 11 kW three-phase on-board charger (about 7 kW on single phase), fast DC (175 to 250 kW) and the best efficiency in the table (Model 3 RWD about 13 kWh per 100 km).

Against: No V2L on any Tesla and no V2H or V2G path in Australia. The Tesla Wall Connector only follows solar with a Powerwall and does not speak OCPP, so for solar-smart charging on a Sigenergy, GoodWe or Sungrow system we fit the matching charger or a zappi instead.

BYD (Dolphin, Atto 2, Atto 3 Evo, Seal, Sealion 7, Shark 6)

For: V2L on every model (3.3 kW on the cars, 6.6 kW on the Shark 6 ute, enough for tools and camping), LFP batteries that are happy charging to 100 per cent every day, and BYD is in the Origin and AGL V2G trials.

Against: The cheaper models (Dolphin, Atto 2, Atto 3 Evo Dynamic, Shark 6) have a 7 kW single-phase on-board charger, so three phase buys nothing; 11 kW only on the Seal, Sealion 7 and Atto 3 Evo Premium. DC rates are modest (55 to 150 kW).

Hyundai and Kia (Ioniq 5, Ioniq 6, EV6, EV9, Kona, Inster, EV3, EV5)

For: V2L 3.6 kW with a cabin socket on most grades (an outside adapter on the higher grades), 10.5 to 11 kW AC on three phase, and the 800-volt cars (Ioniq 5, Ioniq 6, EV6, EV9) do 10 to 80 per cent at a fast charger in about 18 to 24 minutes. Both brands are in the AGL V2G trial.

Against: Hyundai Australia has said none of its current cars supports V2G here. The EV3 and EV5 are 400-volt cars, so DC tops out around 135 to 150 kW; the Australian EV5 only has the outside V2L adapter on the Earth and GT-Line grades.

MG (MG4, MG S5 EV)

For: Value, V2L on both (2.2 kW MG4, 3.3 kW S5), good DC for the price.

Against: A 6.6 to 7.2 kW single-phase on-board charger in Australian spec, so a three-phase charger adds nothing.

Geely, Jaecoo, Deepal, Leapmotor, Xpeng (the newer Chinese brands)

For: Mostly 11 kW AC on three phase, V2L standard (3.3 kW typical, up to about 6 kW on the Xpeng G6), and the 800-volt Xpeng G6 and Leapmotor C10 fast-charge very quickly.

Against: The Jaecoo J5 EV appears to be 6.6 kW single phase, spec sheets are thin, and several figures in the table are from the motoring press rather than the makers, so confirm with the dealer.

Zeekr (7X, X)

For: The one mainstream brand with a 22 kW three-phase on-board charger (every 7X, and the X AWD), very fast DC, V2L 3.3 kW, AGL trial partner.

Against: 22 kW only helps a three-phase home with a 22 kW charger; the X RWD is 11 kW.

GWM Ora

For: 11 kW AC, V2L up to 6 kW, the lowest price in the table.

Against: DC 80 to 120 kW; the Ora 5 range figure is on the WLTC cycle, not WLTP, so expect less.

Polestar and Volvo (Polestar 2, Polestar 4, EX30)

For: 11 kW AC as standard and strong DC rates. The EX30 gets V2L (3.0 to 3.6 kW) by software update.

Against: Polestar 2 has no V2L; Polestar 4 V2L is announced but not confirmed for Australian cars; the 22 kW on-board option sold overseas is not confirmed here.

Toyota bZ4X (2026)

For: A 22 kW three-phase on-board charger claimed for Australia, 150 kW DC, big efficiency gain over the old car.

Against: V2L is only a 1.5 kW cabin socket.

Volkswagen (ID.4, ID.5)

For: 11 kW AC, 175 kW DC, long range.

Against: No V2L in Australian-spec cars.

Mitsubishi Outlander PHEV

For: The longest V2G and V2H track record in Australia thanks to its CHAdeMO port, and 1.5 kW V2L.

Against: Slow 3.7 kW AC (a 7 kW charger adds nothing) and only 86 km of electric range.

Utes (BYD Shark 6, LDV eT60)

For: Shark 6: 6.6 kW V2L for tools, 7 kW AC, 55 kW DC. eT60: 11 kW AC and the biggest battery in the ute class.

Against: The eT60 has no V2L and only 80 kW DC; the Kia Tasman EV has no Australian specifications yet.

10. Rebates, stamp duty and the FBT exemption in 2026

  • NSW rebate and stamp duty: the $3,000 rebate and the stamp duty exemption ended for purchases from 1 January 2024. NSW has said it intends to remove stamp duty from all EVs and start a per-kilometre road user charge from 1 July 2027 or when EVs reach 30 per cent of new sales; treat that as planned, not legislated.
  • Home charger grants: none for houses in NSW. The apartment-building grant is closed to new applications. The NSW Home Energy Saver 0% loan covers solar and batteries, not the charger.
  • Federal FBT exemption (novated leases): eligible battery-electric cars under the fuel-efficient luxury car tax threshold are free of fringe benefits tax when an employer provides them, which is why a novated lease can make an EV cheaper than it looks. Under the May 2026 Budget the full exemption runs to 31 March 2027, then applies only to cars costing $75,000 or less from 1 April 2027. Plug-in hybrids lost the exemption from 1 April 2025. Check the ATO page and talk to your accountant.
  • Home battery rebate: the federal Cheaper Home Batteries rebate applies to the home battery, not the car or charger, and steps down on 1 January 2027 by install date. See who qualifies and how to claim and the battery rebate calculator.

11. Buying a second-hand EV: home charging checks

A used EV can be a good-value way in, but a few charging details decide how well it lives with your solar and battery. Check these before you buy:

  1. Battery health in writing. Ask for a battery state-of-health (SoH) report: a dealer diagnostic printout, or an independent test (RedBook Inspect offers a mobile Aviloo battery test). For a Nissan Leaf, the dash bars are coarse; an OBD2 reader with the Leaf Spy app gives a truer figure. Large used-EV test samples in Australia show most batteries in good health, with older models carrying more risk.
  2. The AC charge port. Australian chargers use Type 2. Very old EVs and many Japanese private-import Leafs have a Type 1 (J1772) socket and need a Type 2 to Type 1 cable or adaptor, and some private-import Leafs charge at only 3.3 kW on AC (Australian-delivered ones at 6.6 kW). Tell us the exact model and year and we will confirm the right charger and cable.
  3. The DC fast-charge plug. Most EVs use CCS2, which every public fast charger supports. Nissan Leaf uses CHAdeMO, which fewer new fast chargers carry. Older BMW i3 and older Tesla Model S/X may have plugs that need a port upgrade to use Australian fast chargers. This doesn’t change home charging, but it matters on long trips.
  4. The portable charging cable. Check the original cable that plugs into a power point comes with the car. It is the backup for when you’re away from home.
  5. Battery warranty. Many EV batteries carry a long maker warranty: confirm whether the remaining battery and drivetrain warranty transfers to you, and for how long. Private imports often have limited service, warranty and recall support.
  6. Finance and history. Run a PPSR check for money owing and write-offs, as with any used car.

For home charging, the car’s on-board AC charger sets the top speed, so a slower car simply takes longer on the same wall charger. We size the charger and your solar to the car you actually buy. See which charger for which solar system, or ask us on the EV charger installation page.

Adding an induction cooktop or a heat pump at the same time as the charger? The getting off gas guide has a checker for whether your switchboard and main supply can carry the lot.

Building a new home for the car? The new build solar and battery guide covers the garage circuit, the phase decision and BASIX.

Want to know what this means for your home?

Start with the free tools (no details needed to see a result): solar and battery price calculator, is my solar battery-ready? checker or the 60-second battery quiz.

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12. Questions we get asked

What EV should I buy if I have solar at home?

For home charging, the car matters less than people think: every EV sold in Australia charges from a 7 kW single-phase wall charger overnight. What changes the result is how far you drive, when the car is home and whether a battery can carry the day’s solar into the evening. If you have three-phase power and want faster top-ups, pick a car with an 11 kW on-board charger (Tesla, Hyundai, Kia, Geely, Zeekr, Polestar, Volvo, Toyota, Volkswagen). If you want power from the car for camping or blackouts, pick one with V2L (BYD, Kia, Hyundai, GWM, Xpeng, MG, Zeekr).

How much solar do I need to charge an electric car?

A typical Australian car does about 30 to 35 km a day. At 15 to 20 kWh per 100 km that is 5 to 7 kWh a day, which is roughly 1.5 to 2 kW of extra panels in the Northern Rivers (about 3.8 kWh per kW on an average day). Driving 100 km a day needs 15 to 20 kWh, so 4 to 5 kW of panels on top of what the house uses. Our free EV solar calculator works it out for your driving and roof.

Do I need three-phase power for an EV charger?

No. A 7 kW single-phase charger adds about 35 to 45 km of range an hour and fills even the biggest battery here (the Kia EV9 at about 100 kWh) in around 15 hours. Three phase is worth having only if the home already has it and the car has an 11 kW or 22 kW on-board charger. Many popular cars (BYD Dolphin, Atto 2, Atto 3 Evo Dynamic, Shark 6, MG4, MG S5 EV, Jaecoo J5 EV) have a 7 kW single-phase on-board charger, so a three-phase charger adds nothing for them.

Can my EV power my house in a blackout?

Two different things. V2L (vehicle to load) is a socket on or in the car that runs appliances through an extension lead: 2.2 to 6.6 kW depending on the car. It is here now on most Chinese and Korean EVs and works anywhere, but it does not power your house wiring. V2H (vehicle to home) and V2G (vehicle to grid) need a DC bidirectional charger that is approved for the grid and a car the maker allows to be discharged. In Australia in 2026 the hardware exists (the Sigenergy SigenStor DC module is approved on the Essential Energy network, which covers the Northern Rivers) but car makers have only enabled it inside trials. A home battery is what keeps the house running in a blackout today.

Does charging the car drain my home battery?

Only if the system is set up to allow it. With a Sigenergy, GoodWe or Sungrow charger linked to the same system, or a zappi on its own sensor, the charger can be set to use solar surplus only and to leave the house battery for the house. We set that up on install day and show you where the setting lives in the app.

Which EV charger works with my solar system?

The charger that talks to your inverter gives you solar-only charging and one app: the Sigen EV AC Charger for Sigenergy systems, the GoodWe HCA for GoodWe, and the Sungrow AC22E-01 for Sungrow. For any other brand of solar, or no solar yet, the myenergi zappi follows solar surplus through its own sensor and works with every car. Our standard supplied-and-installed prices are on this page; the final price is confirmed at the site visit.

Is there an EV rebate in NSW in 2026?

Not for private buyers. The NSW $3,000 rebate and stamp duty exemption ended for purchases from 1 January 2024, and there is no NSW grant for a home charger. The federal fringe benefits tax exemption still applies to eligible battery-electric cars under the fuel-efficient luxury car tax threshold when an employer provides the car (novated leases), in full until 31 March 2027 under the May 2026 Budget, then with a $75,000 price cap. Check the Australian Taxation Office and Revenue NSW pages before you rely on either.

Should I wait for V2G before buying an EV or a home battery?

We would not. A home battery works today, is covered by the federal Cheaper Home Batteries rebate (which steps down on 1 January 2027), and will still work alongside a bidirectional charger later. If V2G matters to you, buy a CCS2 car whose maker is in the Australian trials (BYD, Hyundai, Kia, Zeekr) and choose a Sigenergy system, because its DC module is the one approved route on our network so far.

Sources and how to update this guide

Car figures: the makers’ published Australian specifications where available, EV Database (ev-database.org), the Electric Vehicle Council, and dated articles on Drive, CarExpert, carsales, WhichCar, EVcentral, Zecar and The Driven; sales ranking from the Electric Vehicle Council and The Driven (year to September 2026). Rules and incentives: Clean Energy Council approved-equipment list and AS/NZS 4777 notes, Essential Energy’s 2025 Sigenergy V2G approval, Revenue NSW, NSW Government EV pages, the Australian Taxation Office and the May 2026 Federal Budget papers. Charging practice: SolarQuotes’ solar EV charger guide and EV charger comparison (2026), the Sigenergy, GoodWe, Sungrow and myenergi datasheets. Consumption: ARENA via the NSW Government, ABS Survey of Motor Vehicle Use 2020, EV Database. Every source is listed with its date in our research note, and the table is generated from one data file so it can be refreshed as models change. Checked october 2026.

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