1
Voltage Gate
PASSDevice output type must match generator output.
120V required -> 120V available
No — the Explorer 300 Plus is underpowered for an Electric Stove
No - this pairing is underpowered. Safe target ~1981W running / 1981W surge; the generator provides 300W / 600W.
- • Continuous power shortfall: needs 1800W (safe target ~1981W), generator provides 300W.
- • Startup surge shortfall: needs 1800W (safe target ~1981W), generator provides 600W.
Power Margin Analysis
300W / 600W Capacity Running 1681W short
1981W required
Surge 1381W short
1981W required
Decision Gate Waterfall
Same decision gates as the engine: voltage, running, surge. Runtime is shown as operational context.
2
Running Gate
FAILContinuous draw with safety buffer applied.
1,981W required -> 300W available (1,681W short)
Required 1,981W required
Available 300W
3
Surge Gate
FAILStartup peak with safety buffer applied.
1,981W required -> 600W available (1,381W short)
Required 1,981W required
Available 600W
4
Runtime Insight
INFORuntime context only. It does not change the electrical compatibility verdict.
Runtime estimate appears after running and surge gates pass.
Power bars show required versus available output for each gate.
See generators that pass nativelyDecision Snapshot
Quick compatibility, required headroom, and model-specific context at a glance.
⚡
300W
Running Power
🔋
288Wh
Capacity
⏱️
—
Est. Runtime
☀️
100W
Solar Input
Quick Compatibility Check
- 1 Running headroom: target 1981W; generator provides 300W.
- 2 Surge headroom: target 1981W; generator provides 600W.
- 3 Result: pick a higher-output unit for safe operation.
What To Do Instead
- 1 Underpowered: The Electric Stove (Single Burner) needs 1981W running / 1981W surge (with 10% buffer). The Explorer 300 Plus provides 300W / 600W.
- 2 Safe target: Look for a power station with at least 1981W continuous and 1981W surge at 120V.
- 3 Compatible alternative: The Yeti 1500X (2000W / 3500W surge) clears this device's requirements.
Model-Specific Results
0 of 3 models are SAFE or TIGHT. Most demanding model: Duxtop Portable Induction Cooktop (1800W) (1,800W surge).
| Model | Running | Surge | Verdict | Runtime | Source |
|---|---|---|---|---|---|
| Duxtop Portable Induction Cooktop (1800W) | 1,800W | 1,800W | Fail | — | OEM Manual |
Show expert analysisTechnical: **Running load:** 1800 W. **Surge:** 1800 W (resistive heating element, no inrush spike). **Voltage:** 120 V AC required. Power station must sustain 1800 W continuous output on AC inverter. Field note: Verify power station inverter rating is at least 2000 W continuous to allow headroom. Resistive load provides stable draw without cyclic spikes. Can I run this induction cooktop on a 1500 W power station? Only if your power source can supply at least 1800W continuous and 1800W surge at 120V. | |||||
| Cuisinart CB-30 Cast-Iron Single Burner | 1,300W | 1,300W | Fail | — | OEM Manual |
Show expert analysisTechnical: **Running load:** 1300 W at 120V. **Surge:** 1300 W (resistive heating element, no motor startup). Requires power station with continuous 1300 W rating and 120V AC outlet. Field note: Verify power station continuous output meets or exceeds 1300 W. Insufficient headroom will trigger overload shutdown during cooking. Can I use this burner with a 1000W power station? Only if your power source can supply at least 1300W continuous and 1300W surge at 120V. | |||||
| Ovente BGC101S Single Electric Burner | 1,000W | 1,000W | Fail | — | OEM Manual |
Show expert analysisTechnical: **Running load:** 1000 W. **Surge:** 1000 W. **Voltage:** 120 V AC. Resistive heating element draws steady current with no inrush spike. Power station must supply clean 120 V output and sustain 1000 W continuous. Field note: Verify power station AC outlet delivers rated continuous output. Undersized inverters will overheat or shut down under sustained resistive load. Can I use this burner with a 500 Wh portable power station? Only if your power source can supply at least 1000W continuous and 1000W surge at 120V. Runtime would be approximately 30 minutes before depletion, provided inverter does not thermally limit first. | |||||
How This Pairing Performs Across Our Database
This unit is outside the compatible set; 21 of 33 generators pass SAFE/TIGHT for this device.
How Electric Stove (Single Burner) Performs Across 33 Tested Generators
21 of 33 generators are SAFE+TIGHT for Electric Stove (Single Burner).
21
Safe+Tight
Safe 16 (48%)
Tight 5 (15%)
Fail 12 (36%)
Power Comparison: Jackery Explorer 300 Plus vs Top Alternatives for Electric Stove (Single Burner)
Jackery Explorer 300 Plus Fail
Current unit
Running 300W
Surge 600W
Fit class uses buffered needs (running and surge) for this device.
Specs & Surge Analysis
Kitchen Appliances
Electric Stove (Single Burner)
Portable Cooking
Select Your Model:
1800W
Running
1800W
Surge
120V
Required
True Surge™ Analysis
Safety Buffer: +10% Running Power Usage 660% Utilization
1981W required 300W Capacity
1681W short
Surge/Startup Peak 330% Utilization
1981W required 600W Capacity
1381W short
Voltage Match 120V ↔ 120V ✓
Startup Surge Visual
Startup Surge
Electric Stove (Single Burner) vs Explorer 300 Plus
Startup surge exceeds the power station limit. A soft starter may resolve the surge gap.
⚠️
Before You Buy: Connection Check
Amperage check
This load may exceed a standard 15A outlet. Verify your station has a higher-amperage outlet (20A/30A) before purchase.
Compatible Alternatives to Explorer 300 Plus
These generators meet Electric Stove (Single Burner)'s voltage, running, and surge requirements.
Best Value 
Yeti 1500X
2000W • 1516Wh
Runtime at your load
~0.6h
Capacity Fit Fixed 1516Wh
Lowest capacity that still clears surge + running load.
Max Runtime 
Delta Pro
3600W • 3600Wh
Runtime at your load
~1.4h
Longest Runtime Expandable to 25000Wh
Expandable to 25000Wh.
Compare Similar Units
Generator Insights
Best for phones, laptops, and small essentials. Not suited for high-surge appliances.
LFP chemistry with a long 3,000-cycle rating for the class. USB-C solar input is limited to 100W.
Technical Analysis
Spec-Based • No GuaranteesTechnical Breakdown
Running load: 1800 W. Surge: 1800 W (resistive heating element). Voltage: 120 V AC required. Power station must supply continuous 1800 W minimum.
Expected Behavior
Resistive heating draws constant 1800 W when active. Daily usage of 1 hour consumes approximately 1800 Wh.
Field Note
Most induction cooktops offer adjustable power levels (200–1800W). For RV or camping use, cooking on a lower setting (600–800W) stretches battery runtime significantly while still bringing water to a boil. Many van lifers switching from propane to electric rely on this approach to stay within their station's capacity.
Frequently Asked Questions
Can the Jackery Explorer 300 Plus power an Electric Stove?
No. The Jackery Explorer 300 Plus falls short on both running (300W offered vs 1981W needed) and surge (600W offered vs 1981W needed). Safe targets include a 10% buffer for the Electric Stove (Single Burner)'s resistive load profile.
How long will the Explorer 300 Plus run an Electric Stove?
No reliable runtime estimate — this pairing is not compatible. The Jackery Explorer 300 Plus cannot safely power the Electric Stove (Single Burner). See compatible alternatives above for power stations that meet this device's requirements.
Efficiency Hack: Large appliances like the Electric Stove (Single Burner) cycle on and off. To maximize the 0 hours of runtime, try to minimize how often you open the device or introduce heat loads.
Compare all 33 generators for the Electric Stove (Single Burner)
Ranked by budget, runtime, and overall compatibility.
Related Guides: How to Size a Power Station
Technical Sourcing & Verification
ID: jackery-explorer-300-plus-electric-stove-single 🏛️ Device Data Source
Engineering Est. Safety Factor Applied
Derived from variant list (max of variants). Running worst case = Duxtop Portable Induction Cooktop 1800W (1800W). Surge = running (resistive heating element — no motor inrush).
⚡ Generator Specs Source
OEM Verified
Jackery Explorer 300 Plus User Manual (JE-300B)
Methodology informed by US Department of Energy (DOE) & EIA references where applicable.
Our methodology →