Introduction: When the Sump Pit Rises and the Lights Go Out
A thunderhead rolled over the North Country and the lights blinked once—then died. The basement alarm chirped, then went quiet. Within 40 minutes, the sump pit climbed to within an inch of the slab. No utility. No backup. Only the growing weight of water.
I’ve seen this exact sequence play out hundreds of times. Storm knocks out power. Sump pump stalls. A finished basement turns into a holding pond. Insurance handles drywall; it doesn’t replace baby photos, signed guitars, or the cedar chest your granddad built. The cost of “almost had a generator” easily clears $8,000 when flooring, insurance deductibles, mold remediation, and furnace cleanup get tallied.
Meet the Catedras: Luis Catedra (38), a regional school IT coordinator, and his partner, Amara (36), a nurse, live on five wooded acres outside Canton, New York with their kids—Isla (8) and Mateo (5). Their water comes from a 165-foot private well running a 3/4 HP submersible, and their basement depends on a Myers sump system. After a budget Zoeller they inherited seized two winters ago, they upgraded to a Myers cast iron primary backed by PSAM. The basement stayed dry—until last month’s storm knocked out power for 18 hours and their plug-in “camping generator” couldn’t start the pump. The result: two inches of water, a dead water heater control board, and a family weekend spent mopping.
This is why generator selection for a Myers sump pump matters. In the list below, I’ll show you how to size wattage correctly (#1), account for surge and power factor (#2), choose clean power that won’t kill motor windings (#3), wire safely with transfer equipment (#4), right-size fuel and runtime (#5), decide between inverter and open-frame designs (#6), handle dual pumps and battery backups (#7), match cords, plugs, and voltage (#8), plan for well pump and household overlaps (#9), and finalize a reliable PSAM-backed package (#10). If you’ve got a Myers sump pump, a backup generator isn’t optional; it’s part of a complete water management system, right alongside your pressure tank and pit floats.
I’m Rick Callahan from Plumbing Supply And More (PSAM). For decades, I’ve sized and installed pumps and backup power systems in basements and well houses. Myers Pumps—especially those built around 300 series stainless steel, self-lubricated stages, and Pentek XE motor tech—earn their keep. With an industry-leading 3-year warranty, UL listed quality, and Pentair engineering, Myers delivers the durability I trust. Get the generator choice right, and your sump stays online when the grid knuckles under. Let’s get you there.
#1. Start with Accurate Wattage—Match Generator Output to Myers Sump Pump Running and Surge Amps
A generator that can’t handle startup current is just a noisy lantern. Sump motors draw a heavy inrush at startup; spec the generator to cover both running watts and Locked-Rotor Amps (LRA).
The typical Myers sump pump in the 1/3–1/2 HP class runs on 115V and pulls 6–9 amps running, but 3–5x that at startup. A 1/2 HP AC motor might be 800–1,000 running watts with a 2,400–3,000-watt startup spike. Bigger 3/4–1 HP pumps demand more. When you factor power factor and voltage sag under load, undersized generators stumble.
The Catedras’ plug-in 2,000-watt unit had decent continuous output but couldn’t swallow the surge. It voltage-dipped, the pump stalled, current shot upward, and the generator tripped out. Their takeaway: overbuild surge capacity by 25–40% above the motor’s LRA.
Choose Continuous vs Surge Rating Correctly
Generator spec sheets list continuous (running) and peak (surge) ratings. For most Myers 1/2 HP pumps, a generator with 2,500–3,500 surge watts is the safe minimum. For 1 HP, look at 4,500–6,000 surge.
Verify Pump Nameplate Data
Check the pump’s nameplate or PSAM’s product page for amp draw. Convert to watts: Amps × Volts × Power Factor (assume 0.8 if unknown). Add 300–500 watts for cord loss and headroom.
Account for Long Cords and Voltage Drop
Long extension runs cause drop. Over 50 feet, use 10 AWG cords. Lower voltage means higher amps, which can push marginal generators into overload.
Key takeaway: if it’s close on paper, it will fail in your basement. Size your generator to swallow that surge without blinking.
#2. Understand Motor Physics—Power Factor, LRA, and Why Your Generator Trips Even When “Math” Says It Shouldn’t
Sump pumps are single-phase motors with a nasty LRA. At startup, the motor behaves like a shorted inductor for milliseconds—huge amperage rush, low power factor. Generators see that as an immediate torque demand.
Even if your pump is labeled 9 amps at 115V (about 1,035 VA), that’s running load. Startup can spike to 40+ amps for a 1/2 HP. With a 0.6–0.8 power factor at startup, apparent power (VA) is worse than real power (watts). Your generator must supply VA and manage phase angle, not just “watts.”
Luis and Amara learned this the hard way. Their open-frame had enough “watts,” but lousy torque response. It stalled on each sump cycle, forcing repeated restarts and shutting down.
Inverter Generators Handle Transients Better
Quality inverter units have faster electronic governors and better voltage regulation. They “see” the inrush and ramp output in microseconds, protecting motor windings.
Oversize by 30% for Inductive Loads
Inductive motors demand headroom. If your math says 2,000 VA, buy at least 2,600–3,000 VA. For dual pumps or frequent cycling, step up again.
Harmonics and Thermal Stress
High THD (total harmonic distortion) hammers windings with heat. Even if the pump runs, long-term damage shortens lifespan. Keep THD under 5% where possible.
Bottom line: do not buy to a spreadsheet; buy to the physics of motor startup and generator response.
#3. Clean Power Matters—Low THD, Voltage Regulation, and Myers Motor Longevity
Reliable voltage regulation and low THD protect motor insulation and start capacitors. For a Myers water pump—sump or submersible well pump—clean power is a long-life multiplier.
Inexpensive open-frame generators can throw 15–25% THD, plus 10–15% voltage swings under load. That ragged waveform beats up motor windings. A Myers pump is built to work; give it clean power and it’ll return the favor with years of service. Inverter generators typically deliver <5% THD and hold voltage steady, which keeps heat out of the windings and prevents nuisance trips.</p>
The Catedras upgraded to a 3,500-watt inverter with 120V output and <3% THD. The pump now starts crisply, cycles quietly, and stays within its temperature envelope—even during rapid storm cycles.</p>
Why THD <5% Is My Gold Standard</strong>
Less waveform distortion = less motor heating. Electronics (battery chargers, Wi-Fi routers) also survive better. Pair this with Myers’ thermal overload protection and you’ve got a forgiving setup.
Automatic vs Manual Voltage Regulation
Inverters perform best. If you go open-frame, insist on AVR (automatic voltage regulation) and oversize more aggressively to reduce droop.
Generator Placement and Load Response
Place the generator outside, well-ventilated. Avoid rain. Shorter cords and correct gauge help the AVR hold voltage.
Result: lower operating temperature, fewer nuisance trips, longer motor life.
#4. Safe, Code-Compliant Connections—Transfer Switches, Interlocks, and Dedicated Sump Circuits
A generator is only as good as its connection plan. Backfeeding through a dryer outlet is dangerous and illegal. Use a listed transfer switch or https://www.plumbingsupplyandmore.com/4-deep-well-package-bronze-hj75d-series-lead-free.html panel interlock with a dedicated sump circuit.
I recommend a 120V, 20-amp dedicated sump circuit with GFCI protection upstream of the receptacle, and a labeled straight-blade 15A or 20A outlet near the sump. A manual transfer switch lets you energize that circuit safely from a generator inlet (L5-30 for 30A 120V is common). If you’re backing up the well, install a separate 240V inlet for the submersible well pump.
Luis, a tech by trade, worked with a local electrician to add a six-circuit transfer switch feeding the sump, fridge, boiler, and a sump alarm. Cost: about $900 installed. Worth it.
Outlet and Plug Standards
For 120V sump-only setups, a 5-15 or 5-20R receptacle is typical. For generator inlets, L5-30 is standard for 120V/30A. Match plugs to outlet ratings.
Gauge Your Cords
Use 12 AWG for up to 50 feet; 10 AWG beyond that. Waterproof connectors and strain relief make a difference during storms.
Label Everything
In an outage, clarity wins. Label the transfer switch, inlet rating, and sump circuit breaker. Practice switching once a quarter.
Your generator should never guess which loads it’s running. Build a clean, dedicated path.
#5. Fuel, Runtime, and Storm Behavior—Plan to Run for 24–72 Hours Without Guesswork
Sizing isn’t just about watts. It’s about staying online long enough. Storms don’t keep banker’s hours. Fuel planning has to be realistic—safe storage, expected runtime, and cycling strategy.
A quality 2,200–3,500-watt inverter can run 8–12 hours at 25–50% load on a single tank. Open-frame 5,000-watt units might drink 0.6–0.8 gallons per hour under light load. Dual-fuel (gas/propane) gives flexibility; propane stores longer, gasoline holds more energy per gallon. Calculate delivered watt-hours per gallon for your candidate generator and compare.
Amara set a schedule during last month’s outage: run the generator on the hour for 15–20 minutes during heavy rain to clear the pit; stretch to 30–45 minutes between cycles as the rain eased. Their fuel stock—20 gallons gas treated with stabilizer—comfortable for two full days.
Runtime Discipline
Don’t run full-time if loads are intermittent. Cycle based on rainfall rate and sump behavior. Use a high-water alarm for confidence.
Fuel Storage
Store stabilized gas in approved cans. Rotate every 6 months. Propane stores indefinitely but yields less runtime per tank pound vs gas.
Maintenance Intervals
Run your generator monthly for 10 minutes under load. Change oil after the first 5 hours, then at manufacturer intervals.
Fuel planning is the difference between hope and certainty.
#6. Inverter vs Open-Frame—Which Style Best Matches a Myers Sump Pump and Well?
Both can work. The choice depends on your loads, budget, and tolerance for noise. Inverters win on power quality, fuel efficiency, and quietness. Open-frames win on raw dollar-per-watt.
For a sump-only application, a 2,200–3,500-watt inverter with <5% THD is my favorite pick. For sump plus fridge and boiler, consider 3,500–4,500 watts. If you also want to run a <strong> Myers water well pump (typical 3/4–1 HP at 230V), you’ll need a 240V-capable unit—generally 5,000–7,500 watts open-frame with AVR or a larger inverter hybrid.
Noise and Neighbors
Inverters purr at 52–60 dB; open-frames bark at 70–80 dB. At 2 a.m. With a foot of rain, you’ll care.
Power Quality
Inverters: clean sine, tight voltage regulation. Open-frame: acceptable with AVR if oversized 30–50%.
Budget Reality
Dollar per watt is better for open-frame, but factor windings, THD, and long-term pump health. Myers’ robust motors tolerate some abuse; I’d still protect them with clean power.
When in doubt, buy the cleanest watts you can afford.
#7. Dual Pumps, Battery Backups, and Staggered Starts—Designing a Redundant System That Actually Works
A serious waterproofing plan has two pumps: a primary AC Myers and a battery backup DC pump—or two AC Myers units with staggered float heights. Redundancy covers heavy rain, partial failures, and clogged intakes.
Dual AC pumps need coordinated starts; otherwise, you double the inrush and trip the generator. Stagger float switches so Pump A kicks on first, Pump B joins if the level keeps rising. Size the generator to handle the worst-case (both running) plus the highest LRA among the two. With a battery backup DC pump, the generator keeps the charger online and powers the primary; if the generator stalls, the DC pump buys time.
The Catedras opted for a Myers primary on AC and a DC battery backup positioned higher. Their 3,500-watt inverter runs the charger and primary easily. When rain absolutely hammers, the DC unit helps—without extra inrush on the generator.
Float Strategy
Set the secondary float 1–1.5 inches above the primary. Test with the generator running to watch for voltage sag.
Battery Bank
Use sealed deep-cycle AGM for backup pumps; check charger output matches manufacturer spec. Keep battery at >12.6V resting.
Check Valves and Discharge
Each pump needs its own check valve and ideally its own discharge path to prevent crossflow.
Redundancy only counts if it’s tested and coordinated.
#8. Cords, Plugs, and Voltage—The Unsexy Details That Keep Sump Motors Happy
Extension cords are an easy way to hobble a perfectly good generator. Undersized copper, long runs, and the wrong plug type sabotage voltage at the receptacle. Motors then run hot, start hard, and die early.
Use heavy-gauge outdoor cords: 12 AWG minimum up to 50 feet, 10 AWG beyond. Keep connections above the floor, protected from splash. If your generator has a 30A, 120V twist-lock (L5-30), use a proper adapter to multiple 5-20R receptacles, and never exceed cable ratings.
Luis initially daisy-chained cords in a panic. After we talked, he added a weatherproof junction and a single 25-foot 10 AWG run to a dedicated sump outlet. The pump’s startup got noticeably smoother.
Voltage Checks
Use a multimeter at the sump outlet with the pump cycling. You want 110–125V during startup, not 95–100V.
Cord Quality
Look for full copper, not copper-clad aluminum. UL or CSA markings matter. Avoid coiling cords; they act like a heater.
Label and Store
Keep the sump cord coiled on a wall hook with the adapter. In a storm, fast setup equals fewer mistakes.
Details prevent failures. Respect the copper.
#9. One Generator, Two Critical Loads—Sump Pump and Myers Well Pump Together
Many rural homes, like the Catedras’, sit on wells. That means your generator strategy should be two-tiered: keep the sump reliable and also power the Myers well pump when needed. Your well likely uses a submersible well pump at 230V with 1/2 to 1 HP, and a pressure tank manages cycles.
A 3/4 HP well pump often draws 6–8 running amps at 230V (about 1,400–1,800 watts) and 3–5x that at startup. Combined with a 1/2 HP sump, you can’t skimp on generator size. Look for a 240V-capable unit in the 6,000–7,500-watt class with solid AVR or an inverter hybrid delivering clean sine.
Luis’ well is 165 feet deep with a 3/4 HP pump previously from a competitor; we moved him to a Myers Predator Plus Series submersible last year for better 300 series stainless steel durability and Teflon-impregnated staging. To run both well and sump, he’s planning a 7,500-watt dual-voltage generator with a panel interlock.
Load Scheduling
Don’t run the well while the sump is starting if you can help it. Fill the pressure tank while pit water is low. Stagger loads.
Neutral Bonding and Transfer Gear
Coordinate floating vs bonded generator neutrals. Your electrician will match transfer switches to neutral scheme per code.
Future-Proofing
If you ever add a second sump or booster pump, you’ll already have the headroom.
Pairing sump + well on backup power takes planning; PSAM can map it for you.
#10. Myers vs Budget Sump Pumps—Why Generator Dollars Go Further with a Better-Built Motor (Comparison Insight)
When you invest in backup power, the connected pump determines how reliable the total system is under marginal voltage, frequent starts, and heavy rainfall. Here’s where quality pays.
Wayne and Zoeller dominate big-box shelves. They move a lot of units, and in light-duty drainage they can be fine. In my field notes, however, budget models paired with open-frame generators show higher rates of overheating, noisy bearings, and nuisance thermal trips during extended storms. Many budget motors don’t love frequent undervoltage starts; insulation and start capacitors get punished by high THD output. By contrast, Myers’ sump lineup benefits from the same engineering discipline that built the Predator Plus Series for well water: robust windings, thermal overload protection, and material choices that tolerate tough duty cycles. Add in Pentair R&D, and the result is pumps that run cooler and start more decisively on clean generator power. For homeowners relying on a generator several times a year, that translates to fewer panicked resets and longer service life—worth every single penny.
Material and Build
Myers uses heavy housings and engineered components designed for continuous cycling. That stability matters under generator voltage droop.
Warranty Confidence
With a true 3-year warranty, Myers stands behind the motor. Plenty of budget sump brands still sit at 12 months.
Generator Synergy
Cleaner starts, cooler running. Your generator works easier because the pump plays nice with power.
If you buy once and cry once, match a quality generator to a quality Myers pump.
Detailed Competitor Comparison: Myers vs Zoeller and Red Lion in Generator-Backed Sump Applications
From a technical standpoint, pump-and-generator pairings live or die on motor robustness and power quality tolerance. Myers sump pumps, shaped by the same DNA as Myers Pumps in the Predator Plus Series, prioritize durable windings, tight rotor clearances, and self-lubricating impellers where applicable. Budget Red Lion units often lean on thermoplastic housings; those can handle routine cycling but show stress cracking after repeated pressure and temperature swings typical during generator runs. Zoeller builds serviceable pumps, but many models still rely on heavier current inrush without commensurate start assist designs, which makes them finicky on small open-frame gensets with poor AVR. Myers motors pair more happily with low-THD inverter sources; starts are faster, windings stay cooler, and LRA events resolve cleanly.
In real basements, that difference shows up as fewer restarts, less breaker tripping, and lower motor temperatures during 8–12-hour storm windows. Zoeller-plus-budget-generator combinations are the most frequent nuisance trip calls I take. Red Lion housings, particularly older thermoplastic models, dislike hot sumps and high cycle counts; warping and crack propagation often start after just a few bad nights on dirty power.
The math on value is straightforward: a Myers sump matched to a <5% THD inverter costs more on Day 1, but averts a single flooded-basement claim, multiple pump replacements, and two weekends of cleanup over 5–8 years—worth every single penny.</p>
Second Competitor Comparison: Myers Predator Plus for Wells vs Franklin/Goulds in Whole-Home Backup Planning
When the conversation expands from a sump-only generator to a whole-home plan that also runs a submersible well pump, the choice of well pump affects generator sizing and reliability. Myers Predator Plus Series brings 300 series stainless steel bowls and shafts, Teflon-impregnated staging, and a Pentek XE motor tuned for high efficiency at the best efficiency point (BEP). Franklin Electric and Goulds build capable systems, but I routinely see proprietary control components, cast-iron elements in certain lines, and higher complexity on 3-wire setups. Myers offers flexible 2-wire well pump options that eliminate separate control boxes—one less part to fail under generator voltage swings.
In practice, Myers’ high-efficiency staging lets me downsize the generator one notch in some homes because the running amps stay tight and starts are crisp. Franklin/Goulds systems often require strict controller matches and dealer service; in a storm, that complexity becomes fragility. The Catedras’ transition to a Myers 3/4 HP well unit shaved start issues and made a 7,500-watt generator viable where I’d previously have spec’d 9,000.
When every watt counts during an outage, a simpler, more efficient pump saves fuel, lowers heat, and reduces nuisance trips—worth every single penny.
FAQ: Generator Sizing and Myers Pump Performance
1) How do I determine the correct horsepower for my well depth and household water demand?
Start with your total dynamic head (TDH)—combine static water level, pumping level under flow, pressure requirement (PSI × 2.31), and friction losses. Cross-reference your TDH and desired flow on the pump curve for a Myers Predator Plus Series model. Most homes land between 7–12 GPM. A 3/4 HP can often handle 150–220 feet TDH at 8–10 GPM; a 1 HP may be needed past 250 feet. If your household runs multiple showers, irrigation zones, or a livestock hydrant concurrently, stay toward 10–12 GPM at BEP for efficiency. I tell homeowners like Luis: document well depth, static level, and pressure tank settings, then call PSAM. We’ll select the right staging and horsepower to sit you on the curve sweet spot for long motor life and lower amperage—easier on your generator, too.
2) What GPM flow rate does a typical household need and how do multi-stage impellers affect pressure?
Most households run fine at 7–10 GPM. Multi-bath homes or properties with irrigation should plan 10–12 GPM. Multi-stage impellers in a submersible stack add head with each stage; more stages build pressure without ballooning amps. That’s why Myers multi-stage submersibles deliver strong pressure at depth while keeping current reasonable. On a generator, fewer amps and cleaner starts matter. In the sump world, you’re not chasing GPM for fixtures—you’re evacuating inflow fast enough to keep the pit low. Right-sizing the sump pump GPM to your drain tile inflow avoids long runtimes and motor heat. Myers’ engineering keeps you efficient on both fronts.
3) How does the Myers Predator Plus Series achieve 80% hydraulic efficiency compared to competitors?
By optimizing diffuser geometry, impeller vane angles, and stage clearances, Myers chases the best efficiency point (BEP). The Pentek XE motor complements that with high-thrust bearings and windings that waste less power as heat. Pair that with Teflon-impregnated staging to reduce friction, and you see 80%+ hydraulic efficiency in target ranges—less wattage for the same water. On a generator, that means lower surge impact and fewer brownout events. Efficiency is not just a spec; it’s fuel saved, headroom preserved, and motor life extended.
4) Why is 300 series stainless steel superior to cast iron for submersible well pumps?
Submerged in water with minerals, iron content, or acidic pH, 300 series stainless steel resists corrosion far better than cast iron. Corrosion pits increase drag and imbalance, raising amps and shortening life. Stainless bowls and shafts keep stage clearances true, protect against sand scoring, and support years of tight performance. In generator scenarios where voltage variation can occur, any extra drag is costly. Stainless helps your pump stay inside its designed wattage envelope longer—less stress when the grid is out and your generator is working.
5) How do Teflon-impregnated self-lubricating impellers resist sand and grit damage?
Myers uses engineered composite impellers with Teflon-impregnated staging that working with Myers pump distributors create a lubricious surface film. Grit that would normally abrade the diffuser instead glides through with minimized wear. The result is sustained efficiency curve and less amperage creep over time. During extended generator runs after storms—which often stir aquifers—you get a pump that holds clearance and avoids the “amps climb every month” syndrome. That durability matters when spare parts are scarce mid-storm.
6) What makes the Pentek XE high-thrust motor more efficient than standard well pump motors?
The Pentek XE motor integrates high-thrust bearings to support multi-stage loads, optimized copper windings for low I²R losses, and robust lightning protection and thermal overload protection. It runs cooler at the same load and handles brownout conditions with fewer nuisance trips. On an emergency generator, that resilience protects your water supply and pump longevity. I’ve measured tighter inrush and quicker stabilization versus generic motors—ideal when your 240V source is an AVR-regulated generator.
7) Can I install a Myers submersible pump myself or do I need a licensed contractor?
Many seasoned DIYers can install a submersible with the right tools and safety practices—torque arrestor, check valve, proper wire splice kit, and pitless adapter know-how. That said, mistakes at 165 feet get expensive. For well systems on generator backup, I recommend a licensed pro to set depth, confirm voltage and amps under load, and pressure-test fittings. For sump pumps, competent homeowners can often swap in a Myers unit. If you’re adding transfer gear for generators, use a licensed electrician. PSAM supports both routes with parts, diagrams, and phone support.
8) What’s the difference between 2-wire and 3-wire well pump configurations?
A 2-wire well pump houses the start components within the motor, simplifying installation—fewer external parts and typically faster, cleaner generator starts. A 3-wire well pump uses an external control box. Advantages exist for diagnostics and certain service scenarios, but it adds another failure point. Myers offers both. For generator-backed homes like the Catedras’, I often prefer 2-wire to reduce surge complexity and keep panel space free. Either way, Myers’ field serviceable design helps contain future costs.
9) How long should I expect a Myers Predator Plus pump to last with proper maintenance?
With correct sizing, clean power, and periodic system checks, Myers submersibles routinely deliver 8–15 years; I have installs still running strong after 20. Keep an eye on water chemistry, protect from sand, and monitor amps yearly. For Myers sump pumps on generator backup, lifespans of 7–12 years are common with dry pits and clear intakes. Remember, high-THD generators and low voltage shorten life. Keep power clean and cords correct, and the pump returns the favor.
10) What maintenance tasks extend well pump lifespan and how often should they be performed?
Annually: test pressure switch cut-in/cut-out, verify air charge in the pressure tank, inspect wire insulation at the well cap, and check amps vs nameplate. For sumps: clean the pit quarterly, test floats monthly, and backflush the discharge check valve. After any long generator run, change generator oil, inspect cords, and note pump sound/heat. Small habits prevent big bills.
11) How does Myers’ 3-year warranty compare to competitors and what does it cover?
Myers’ 3-year warranty outpaces the 12–18 months I see from many brands. It covers manufacturing defects and performance failures within normal use. When you’re pairing with generators and running hard during storms, that extra runway reduces lifetime ownership cost. PSAM handles support swiftly—no mystery dealer maze. Coverage, plus American-made consistency and certifications like UL listed and CSA certified, is why I stock Myers first.
12) What’s the total cost of ownership over 10 years: Myers vs budget pump brands?
A Myers sump or well pump costs more upfront. But add two budget replacements, a flooded-basement deductible, and the fuel wasted by inefficient motors, and Myers wins. If a Myers sump at $350–$500 outlasts two $200 units and prevents one $2,000 cleanup, the math is obvious. For wells, one Myers Predator Plus over 12 years beats two budget submersibles plus labor and downtime. Clean generator power compounds those savings by extending motor life.
Conclusion: Your Generator Is the Lifeline—Pair It with Myers and Do It Right the First Time
Backup power is not a luxury for sump systems—it’s the control lever that keeps water out when the grid quits. The Catedras learned, adapted, and now sit on a reliable plan: a properly sized low-THD inverter generator, safe transfer gear, heavy-gauge cords, and a Myers sump that starts cleanly every time. They also upgraded their well to a Myers Predator Plus Series so one generator can handle both water safety and water supply.
At PSAM, we match real-world storm behavior to exact GPM ratings, surge characteristics, and generator outputs. We stock the Myers Pumps I trust—engineered with 300 series stainless steel where it counts, Teflon-impregnated staging, and Pentek XE motors—and we ship fast when the forecast turns nasty. If you want a basement that stays dry and taps that still run, build the right generator-backed system around your Myers sump pump. Done right, it’s quiet, boring, and dependable—worth every single penny.