Why do backup generators fail in the first 10 minutes? It's not the generator—it's starting watts. скачать в хорошем качестве

Why do backup generators fail in the first 10 minutes? It's not the generator—it's starting watts.

FREE GENERATOR SIZING CHECK LIST https://subscribepage.io/generatorsiz... Most people size generators based on running watts (continuous power). But motors need 2-3× that power for 2-5 seconds during startup. When your RV air conditioner, well pump, and refrigerator all start simultaneously, that surge stacks—and a 2000W generator can't handle it. This video explains the difference between running watts and starting watts, shows real-world surge examples, and walks through how to size a generator for peak demand instead of average use. WHAT THIS VIDEO COVERS: Why running watts ≠ starting watts (and why it matters) RV air conditioner startup surge: 1500W running → 3500W starting Well pump example: 1000W running → 2800W starting Why simultaneous startups cause overload shutdowns Inverter vs open-frame generators (price comparison) Soft start devices: do they replace proper sizing? Real-world sizing examples: 2000W, 3500W, and 7500W generators How to calculate your actual peak demand TIMESTAMPS: 0:00 — Why generators fail in the first 10 minutes 0:15 — Running watts vs starting watts explained 0:30 — The 2–3× surge multiplier 0:45 — Stacked surges (when motors start simultaneously) 1:00 — RV air conditioner example (3500W startup) 1:20 — Well pump example (2800W startup) 1:40 — Overload shutdown is a safety feature, not a defect 1:55 — Inverter vs open-frame generators (pricing) 2:20 — Soft start devices explained 2:40 — The core sizing principle (size for peak, not average) 3:00 — Paper calculations vs real-world motor behavior 3:18 — Real-world sizing scenarios (RV / home backup / boondocking) 3:50 — 3 key rules for generator sizing 4:20 — Affiliate disclosure + next video preview COMMON GENERATOR SIZING MISTAKES: ❌ Only calculating running watts ❌ Forgetting about simultaneous motor startups ❌ Trusting manufacturer "rated watts" without checking peak capacity ❌ Assuming a 2000W generator can run any 1500W appliance ❌ Not accounting for compressor/pump surge demand ✅ Add up starting watts of all motors that might run together ✅ Choose a generator with peak capacity ≥ your total starting watts ✅ Account for future appliances (don't max out capacity) GENERATOR EXAMPLES DISCUSSED: Small RV / Boondocking: 2000W inverter (~$900) — Westinghouse iGen2200 Full-Time RV / 1 AC Unit: 3500W inverter (~$1,400) — Honda EU3500is Home Backup / Well Pump: 7500W open-frame (~$1,800) — Champion 7500W Dual-Fuel Prices as of February 2026 — check current listings as prices fluctuate. REFERENCED SPECIFICATIONS: Dometic Brisk Air 15K BTU RV AC: 1500W running / 3500W starting Franklin Electric 1HP submersible well pump: 1000W running / 2800W starting Micro-Air EasyStart soft start device: ~50% surge reduction Sources: Manufacturer spec sheets, third-party testing (Project Farm, Consumer Reports), published product reviews. RELATED VIDEOS: → Next video: Generator model comparison — when 2000W, 3500W, 5000W, or 7500W actually makes sense (with price-per-watt analysis) → Previous video: [Link to previous generator/power topic if available] AFFILIATE DISCLOSURE: Some links in this description are affiliate links, which means I may earn a commission at no extra cost to you if you make a purchase through these links. This helps support the channel and allows me to create more detailed comparison content. I only recommend products based on specifications and third-party testing data. SUBSCRIBE for the next video breaking down specific generator models and real-world price-per-watt comparisons.