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GRIDSPEC
Verified Engineering Spec • IEC 60364 / BS 7671

Can the Jackery Explorer 3000 Pro Run an MG4 EV / MG ZS (7kW Single-Phase Mode)?

Live runtime simulator, solar recharge calculator and NEC / IEC breaker & cable schematic for the Jackery Explorer 3000 Pro (3,024 Wh) paired with the MG4 EV / MG ZS (7kW Single-Phase Mode).

Configure your system

800 W
7.6 m (25 ft)
100%
Source outlets
Schuko CEE 7/3 / BS 1363 13A outlets
Load connection
Type 2 EVSE · IEC 60309 32A Commando
EV range rate
≈ 23 mi (37 km) of range per hour of charging
Recommended Upgrade

Sungrow SH10RS Hybrid Inverter + Battery (10,000 W, higher inverter output) runs this load at 74% utilization.

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Continuous Overload

7,360 W continuous draw exceeds the 3,000 W inverter rating.

Short by 4,360 W — the inverter will shut down under sustained load.

Continuous load
245%
Runtime (no sun)
—
Inverter cannot sustain load
Solar recharge
4.7 hrs
1.0 sun-days at 800 W
Min. copper wire
4.0 mm²
1.0% drop @ 7.6 m
Overcurrent device
32A MCB
32.0A load × 1.00 = 32.0A
Live schematic & breaker sizing diagram 230V AC • IEC 60364
SOLAR PV INPUT 800 W PV MC4 / XT60 · MPPT POWER SOURCE / INVERTER Jackery Explorer 3000 Pro 3,024 Wh • 3,000 W 6,000 W surge • 120V 245% load 32A MCB 4.0 mm² Cu 32.0A @ 230V CONNECTED LOAD MG4 EV / MG ZS (7kW Single-Phase Mode) 7,360 W running 7,360 W surge 230V load

Engineering report · reviewed against NEC 2026 & BS 7671:2018+A2

Engineering Breakdown: Running a MG4 EV / MG ZS (7kW Single-Phase Mode) on the Jackery Explorer 3000 Pro

UK/EU/AU: Continuous Overload 245% inverter utilization Sold in UK / EU / AU only

When pairing the Jackery Explorer 3000 Pro (3,024 Wh LiFePO4 capacity, 3,000 W continuous, 6,000 W surge) with a MG4 EV / MG ZS (7kW Single-Phase Mode) (7,360 W running, 7,360 W starting surge), the system operates at 245% of continuous inverter capacity on a 230 V UK/EU/AU circuit. Our UK/EU/AU verdict is Continuous Overload, so the runtime figures below are theoretical battery-energy values only. Wiring the connection over a 7.5 m run calls for a 32 A MCB and 4.0 mm² copper, terminated at a Type 2 EVSE · IEC 60309 32A Commando connection.

1. Compatibility Verdict & Inverter Load Utilization

In UK/EU/AU 230 V mode the MG4 EV / MG ZS (7kW Single-Phase Mode) loads the Jackery Explorer 3000 Pro's inverter to 245% of its 3,000 W continuous rating and 123% of its 6,000 W surge rating. Because continuous demand exceeds the inverter by 4,360 W, the unit will shut down within seconds of starting the load. The Sungrow SH10RS Hybrid Inverter + Battery is the smallest compatible upgrade.

CheckLoad requiresJackery Explorer 3000 Pro providesUK/EU/AU
Continuous output 7,360 W 3,000 W Fail
Start-up surge 7,360 W 6,000 W Fail
Voltage 230 V 230 V Pass
Connection Type 2 EVSE · IEC 60309 32A Commando Schuko CEE 7/3 / BS 1363 13A outlets

This is a 230 V market charging profile: the 7,360 W figure is the single-phase Type 2 (IEC 62196) rate of 32 A × 230 V. EV supply equipment is a constant-current load with no start-up surge, so the inverter only has to sustain the set current. To stay under the 80% sustained-load guideline, cap the charge current at 10 A in the vehicle or charger app, which holds the Jackery Explorer 3000 Pro near 2,300 W. In the UK, a charge point must meet BS 7671 Section 722 and the Electric Vehicles (Smart Charge Points) Regulations; in Australia and New Zealand, AS/NZS 3000 Section 7 and local network limits apply. A full battery puts about 2.3 kWh into the pack after losses — roughly 13 km (8 miles) of range.

As a portable power station, the Jackery Explorer 3000 Pro integrates the LiFePO4 battery, inverter, MPPT solar controller and AC outlets in one chassis, so it can be wheeled to the load or connected to a transfer switch through its NEMA TT-30R / 5-20R outlet.

Compatible alternative: the Sungrow SH10RS Hybrid Inverter + Battery with the MG4 EV / MG ZS (7kW Single-Phase Mode) report shows the full sizing for a unit that passes all three checks.

2. Real-World Runtime by Duty Cycle

Nameplate capacity is not usable capacity. DC-to-AC conversion, battery management overhead and cell protection reduce the 3,024 Wh rating to about 2,570 Wh of deliverable AC energy (85% system efficiency). EV charging runs at a fixed current, so the 100% row is the realistic figure; lower rows apply only if you schedule charging in intervals.

Runtime (h) = (3,024 Wh × 0.85) ÷ (7,360 W × duty cycle)
Duty cycleAverage drawRuntime (no solar)Energy per 24 h
25% 1,840 W 1.4 hrs 44.2 kWh
50% 3,680 W 42 min 88.3 kWh
65% 4,784 W 32 min 114.8 kWh
100% 7,360 W 21 min 176.6 kWh

Even at a 50% duty cycle the battery lasts 42 min, so plan on solar, grid or generator recharging for anything longer than an evening outage. Because the inverter cannot actually run this load in UK/EU/AU mode, treat these numbers as an energy-budget reference for a compatible inverter of the same capacity.

3. BS 7671 / IEC 60364 Breaker & Cable Sizing

IEC-based codes size protection by design current rather than a blanket 125% multiplier: Ib ≤ In ≤ Iz. At 230 V the load draws 32.0 A, so a 32 A Type B/C MCB with RCD protection applies. In the UK, BS 7671 Section 722 additionally requires a dedicated circuit and Type A or Type B RCD for EV charge points.

One-way distanceMCBMin. cableVoltage drop
7.5 m (25 ft) 32 A 4.0 mm² 0.96%
15 m (49 ft) 32 A 4.0 mm² 1.92%
22.5 m (74 ft) 32 A 4.0 mm² 2.89%
30 m (98 ft) 32 A 6.0 mm² 2.57%

Moving the Jackery Explorer 3000 Pro from 7.5 m to 30 m away forces the conductor up from 4.0 mm² to 6.0 mm² — park the unit as close to the load as ventilation and weather protection allow.

4. Solar Array Recharge Time Breakdown

The Jackery Explorer 3000 Pro accepts up to 1,400 W of photovoltaic input. Real arrays rarely deliver nameplate output, so we apply an 80% harvest factor for MPPT conversion, cell temperature and soiling, and convert hours to days using 4.5 peak-sun-hours — a conservative annual average for the US, southern Europe and Australia (UK winters can fall below 1.5).

PV arrayReal harvest0–100% rechargeSun-days @ 4.5 PSHNet with load @ 50%
400 W 320 W 9.4 hrs 2.1 −3,360 W
800 W 640 W 4.7 hrs 1.0 −3,040 W
1,400 W 1,120 W 2.7 hrs 0.6 −2,560 W

A typical 800 W portable array refills the battery in about 4.7 hrs of strong sun, while maxing out the 1,400 W input cuts that to 2.7 hrs. To fully offset the MG4 EV / MG ZS (7kW Single-Phase Mode) at a 50% duty cycle (3,680 W average) during daylight you need roughly 4,600 W of panels, which exceeds this unit's 1,400 W input limit — solar can slow the drain but not eliminate it.

5. Frequently Asked Questions

Can the Jackery Explorer 3000 Pro run a MG4 EV / MG ZS (7kW Single-Phase Mode)?

Not reliably in the UK, Europe and Australia — our verdict is "Continuous Overload". The 7,360 W running load exceeds the 3,000 W inverter. The Sungrow SH10RS Hybrid Inverter + Battery is a compatible alternative.

How many miles of range can the Jackery Explorer 3000 Pro add to a MG4 EV / MG ZS?

A full 3,024 Wh charge delivers about 2.3 kWh to the vehicle battery after inverter (85%) and on-board charger (90%) losses — roughly 8 miles at 3.5 mi/kWh. Charging at this profile is not possible on this unit without reducing current or changing voltage.

What breaker and wire size do I need to connect a MG4 EV / MG ZS (7kW Single-Phase Mode) to the Jackery Explorer 3000 Pro?

At 230 V the load draws 32.0 A. Under BS 7671 / IEC 60364 the protective device must be at least the design current (Ib ≤ In ≤ Iz), so use a 32 A MCB with RCD protection on 4.0 mm² copper cable for runs up to 7.5 m (1.0% voltage drop). Connection: Type 2 EVSE · IEC 60309 32A Commando.

How long does it take to recharge the Jackery Explorer 3000 Pro with solar panels?

With an 800 W array and an 80% real-world harvest factor, a full recharge takes about 4.7 hrs of peak sun (1.0 days at 4.5 peak-sun-hours). At its maximum 1,400 W solar input it drops to 2.7 hrs.

Methodology & safety note

Specifications come from manufacturer datasheets in our open dataset; ampacity and resistance values follow NEC Table 310.16 and Chapter 9 Table 8, and BS 7671 Appendix 4. Calculations assume copper conductors, 30 °C ambient and no bundling derating. Inverter-to-panel connections require a listed transfer switch or interlock to prevent back-feeding the grid. These results are an engineering estimate, not a substitute for a licensed electrician and local permit. See our methodology and safety disclaimer.

Status dots show the UK/EU/AU verdict: compatible, conditional, not compatible.