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GRIDSPEC
Verified Engineering Spec • NEC 2026 / UL 9540

Can the Anker SOLIX F3800 Plus Run an Antminer S21 ASIC Hydro/Air Miner (240V PDU)?

Live runtime simulator, solar recharge calculator and NEC / IEC breaker & cable schematic for the Anker SOLIX F3800 Plus (3,840 Wh) paired with the Antminer S21 ASIC Hydro/Air Miner (240V PDU).

Configure your system

800 W
25 ft (7.6 m)
100%
Source outlets
NEMA 14-50R / L14-30R / TT-30R
Load connection
NEMA L6-30P / C19 PDU
Verified Hardware Match

Check current bundle pricing for the Anker SOLIX F3800 Plus plus a transfer switch kit for this setup.

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Verified Compatible

Anker SOLIX F3800 Plus handles 3,500 W continuous and 3,800 W surge with headroom.

2,500 W of continuous capacity left for other circuits.

Continuous load
58%
Runtime (no sun)
56 min
100% duty · 85% inverter eff.
Solar recharge
6.0 hrs
1.3 sun-days at 800 W
Min. copper wire
12 AWG
0.6% drop @ 25 ft
Overcurrent device
20A Breaker
14.6A load × 1.25 = 18.2A
Live schematic & breaker sizing diagram 120/240V Split-Phase • NEC 125% Rule
SOLAR PV INPUT 800 W PV MC4 / XT60 · MPPT POWER SOURCE / INVERTER Anker SOLIX F3800 Plus 3,840 Wh • 6,000 W 9,000 W surge • 120/240V 58% load 20A OCPD 12 AWG Cu 14.6A @ 240V CONNECTED LOAD Antminer S21 ASIC Hydro/Air Miner (240V… 3,500 W running 3,800 W surge 240V load

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

Engineering Breakdown: Running a Antminer S21 ASIC Hydro/Air Miner (240V PDU) on the Anker SOLIX F3800 Plus

US/NA: Verified Compatible UK/EU/AU: Verified Compatible 58% inverter utilization

When pairing the Anker SOLIX F3800 Plus (3,840 Wh LiFePO4 capacity, 6,000 W continuous, 9,000 W surge) with a Antminer S21 ASIC Hydro/Air Miner (240V PDU) (3,500 W running, 3,800 W starting surge), the system operates at 58% of continuous inverter capacity on a 240 V North American circuit and 58% on a 230 V UK/EU/AU circuit. At a 100% duty cycle and 85% inverter efficiency, a full battery delivers roughly 56 min of off-grid runtime. Wiring the connection over a 25 ft run calls for a 20 A breaker and 12 AWG copper, terminated at a NEMA L6-30P / C19 PDU connection.

1. Compatibility Verdict & Inverter Load Utilization

In North American mode the Antminer S21 ASIC Hydro/Air Miner (240V PDU) loads the Anker SOLIX F3800 Plus's inverter to 58% of its 6,000 W continuous rating and 42% of its 9,000 W surge rating. Both figures are under the 80% sustained-load guideline, so this is a comfortable, verified match with 2,500 W of spare capacity for lights, a router or a refrigerator on the same unit.

CheckLoad requiresAnker SOLIX F3800 Plus providesUS/NAUK/EU/AU
Continuous output 3,500 W 6,000 W Pass Pass
Start-up surge 3,800 W 9,000 W Pass Pass
Voltage 240 V / 230 V 120/240 V / 230 V Pass Pass
Connection NEMA L6-30P / C19 PDU NEMA 14-50R / L14-30R / TT-30R UK/EU/AU: IEC 60309 16A Commando / Schuko 16A

Critical loads value uptime over raw power. At 3,500 W, this equipment is small relative to the Anker SOLIX F3800 Plus's 6,000 W inverter, so the deciding factors are runtime, pure-sine output quality and switchover time. Most modern power stations offer UPS or EPS pass-through with a 10–30 ms transfer, which is fast enough for CPAP machines, routers and servers with active-PFC power supplies. For medical devices, always confirm with the device manufacturer and keep a secondary backup plan; for CPAP specifically, a DC adapter can extend runtime by 20–30% by skipping inverter losses.

As a portable power station, the Anker SOLIX F3800 Plus 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 14-50R / L14-30R / TT-30R outlet.

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 3,840 Wh rating to about 3,264 Wh of deliverable AC energy (85% system efficiency). Duty cycle is the share of each hour the load actually draws its running power — thermostats, pressure switches and intermittent use all lower it.

Runtime (h) = (3,840 Wh × 0.85) ÷ (3,500 W × duty cycle)
Duty cycleAverage drawRuntime (no solar)Energy per 24 h
25% 875 W 3.7 hrs 21.0 kWh
50% 1,750 W 1.9 hrs 42.0 kWh
65% 2,275 W 1.4 hrs 54.6 kWh
100% 3,500 W 56 min 84.0 kWh

Even at a 50% duty cycle the battery lasts 1.9 hrs, so plan on solar, grid or generator recharging for anything longer than an evening outage.

3. NEC 125% Breaker & Copper Wire Gauge Sizing

NEC 210.19(A) and 210.20(A) require conductors and overcurrent devices for continuous loads — anything running three hours or more, which includes EV charging and HVAC — to be rated at 125% of the load current. For this pairing: 3,500 W ÷ 240 V = 14.6 A, × 1.25 = 18.2 A, which rounds up to the next standard NEC 240.6 size of 20 A. The conductor must be protected by that breaker (75 °C ampacity at least 20 A) and keep round-trip voltage drop at or below 3%, so longer runs are upsized.

Breaker ≥ (3,500 W ÷ 240 V) × 1.25 = 18.2 A → 20 A
Voltage drop % = (2 × L × I × R) ÷ V × 100

North America (NEC, THHN copper, 75 °C)

One-way distanceBreakerMin. copperVoltage dropNote
25 ft (7.6 m) 20 A 12 AWG 0.59% Sized by ampacity
50 ft (15.2 m) 20 A 12 AWG 1.17% Sized by ampacity
75 ft (22.9 m) 20 A 12 AWG 1.76% Sized by ampacity
100 ft (30.5 m) 20 A 12 AWG 2.35% Sized by ampacity

UK / EU / Australia (IEC 60364 / BS 7671, PVC copper, method C)

IEC-based codes size protection by design current rather than a blanket 125% multiplier: Ib ≤ In ≤ Iz. At 230 V the load draws 15.2 A, so a 16 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) 16 A 1.5 mm² 1.20%
15 m (49 ft) 16 A 1.5 mm² 2.40%
22.5 m (74 ft) 16 A 2.5 mm² 2.21%
30 m (98 ft) 16 A 2.5 mm² 2.94%

Because the current is modest, 12 AWG copper stays within the voltage-drop target all the way to 100 ft.

4. Solar Array Recharge Time Breakdown

The Anker SOLIX F3800 Plus accepts up to 3,200 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 12.0 hrs 2.7 −1,430 W
800 W 640 W 6.0 hrs 1.3 −1,110 W
1,600 W 1,280 W 3.0 hrs 0.7 −470 W
3,000 W 2,400 W 1.6 hrs 0.4 +650 W
3,200 W 2,560 W 1.5 hrs 0.3 +810 W

A typical 800 W portable array refills the battery in about 6.0 hrs of strong sun, while maxing out the 3,200 W input cuts that to 1.5 hrs. To fully offset the Antminer S21 ASIC Hydro/Air Miner (240V PDU) at a 50% duty cycle (1,750 W average) during daylight you need roughly 2,200 W of panels, which this unit can accept.

5. Frequently Asked Questions

Can the Anker SOLIX F3800 Plus run a Antminer S21 ASIC Hydro/Air Miner (240V PDU)?

Yes. The Anker SOLIX F3800 Plus delivers 6,000 W continuous and 9,000 W surge, covering the Antminer S21 ASIC Hydro/Air Miner (240V PDU)'s 3,500 W running and 3,800 W start-up draw at 58% inverter utilization.

How long will the Anker SOLIX F3800 Plus run a Antminer S21 ASIC Hydro/Air Miner (240V PDU)?

With 3,840 Wh of capacity and 85% inverter efficiency, expect about 56 min of continuous operation and 1.9 hrs at a 50% duty cycle. Adding solar input during the day extends this further.

What breaker and wire size do I need to connect a Antminer S21 ASIC Hydro/Air Miner (240V PDU) to the Anker SOLIX F3800 Plus?

In the US, 3,500 W at 240 V is 14.6 A; applying the NEC 125% continuous-load rule gives 18.2 A, so use a 20 A breaker and 12 AWG copper for runs up to 25 ft (0.6% voltage drop). In 230 V markets the load draws 15.2 A, protected by a 16 A MCB on 1.5 mm² cable for runs up to 7.5 m. Receptacle: NEMA L6-30P / C19 PDU (US) or IEC 60309 16A Commando / Schuko 16A (UK/EU/AU).

How long does it take to recharge the Anker SOLIX F3800 Plus with solar panels?

With an 800 W array and an 80% real-world harvest factor, a full recharge takes about 6.0 hrs of peak sun (1.3 days at 4.5 peak-sun-hours). At its maximum 3,200 W solar input it drops to 1.5 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 North American verdict: compatible, conditional, not compatible.

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