Water on the basement floor doesn’t wait for business hours. When primary power drops, ground water keeps rising, and that’s when a backup system either proves itself—or proves you bought the wrong gear. I’ve walked into too many flooded basements where a $200 shortcut became a $12,000 insurance claim. Backup strategy is not a luxury; it’s your last line of defense.
Two nights before school started, the Madigan family learned that the hard way. Luis Madigan (39), a high school science teacher, and his spouse, Camila (37), a part-time CPA, live on five wooded acres outside Meadville, Pennsylvania. Their sump runs year-round with spring snowmelt and a perched water table. Their main pump worked fine—until a storm knocked out power at 2:12 a.m. With a sleeping 7-year-old (Mateo) and a 4-year-old (Luna), they watched the crock fill and the carpet wick water under the nursery wall. Their previous budget backup couldn’t keep pace. By noon the next day they were pricing flooring and asking me what actually works.
If you’re in a similar spot—rural or suburban, finished basement or mechanical room in a daylight walkout—this list lays out the real choices. We’ll cover battery backups sized for long outages, water-powered ejectors that run without electricity, alarms and controller logic that keep you in control, and the installation standards I expect on a professional job. Myers Pumps gives you proven hardware, smart controls, and the kind of reliability that keeps basements dry when power companies can’t. You’ll also see where battery and water-driven systems make the most sense, how to size them to your lift and inflow rate, and which components are worth upgrading before the next storm.
Before we get into options, I’ll state this clearly: Myers backs their engineering with a strong warranty culture, UL/CSA listings, and Made-in-USA confidence. PSAM ships fast, stocks the fittings you’ll need the same day, and I’ve field-tested these layouts—from shallow pits to deep crocks—with clear performance gains in the worst weather.
Let’s get into it.
#1. The Right Backup Philosophy – Match Runtime and Pump-Out Rate to Your Worst-Case Storm
Choosing a backup isn’t about brands first; it’s about matching capacity to your real-world inflow and the vertical lift to your discharge point. Most basements need 35–60 GPM during heavy rain with a 10–12-foot total dynamic head. Backup performance must meet or exceed that, continuously, without mains power.
A battery-based system offers predictable output measured at specific heads, while water-powered ejectors convert municipal pressure into pumping energy. Myers gives you both pathways with robust controls and dependable components that don’t blink when the lights go out. In practice, I expect a well-designed backup to move 1,500–3,000 gallons per hour at 10 feet of lift. That’s your safety margin.
The Madigans’ basement sits on clay soil; inflow spikes hard when the water table rises. After their outage, we measured their storm surge at 40–55 GPM. The fix was a Myers primary paired with a battery backup system sized to exceed 60 GPM at 10 feet—and a secondary water-powered backup for redundancy.
How to Calculate Your Worst-Case Inflow
- Time how fast your pit fills in heavy rain. Mark a 10-gallon rise and time it. Convert to GPM. Measure your vertical lift and equivalent horizontal run. That’s your TDH (total dynamic head). Add 15–25% capacity for safety. Basements flood when margins vanish.
Pro Tip: Dual Redundancy
Battery first, water-powered second. If a prolonged outage drains batteries, municipal pressure keeps you dry. If a city main loses pressure, your battery is still live. Two independent systems beat one big one.
Key Takeaway
Start with inflow and head. Then pick the backup that can outrun your worst storm. Myers covers both angles with dependable gear.
#2. Myers Battery Backup Systems – High-Output DC Pumps, Smart Controllers, and Real Runtime
When you need hours of autonomy, a properly sized battery backup delivers steady performance regardless of water main pressure. A premium system pairs a high-output DC pump with a smart controller and deep-cycle battery bank. Myers’ battery units are engineered to move serious water at realistic heads, with UL listed electronics and audible alerts.
Expect 2,000–3,000 GPH at 10 feet from the right DC pump. Runtime depends on battery capacity and how often the switch cycles. A single 100–120 Ah battery might buy you 5–7 hours under moderate inflow; dual batteries double that. Smart chargers maintain battery health, reducing sulfation and ensuring full readiness well beyond a single season.
Luis and Camila needed 60+ GPM during peak inflow, so we paired their primary Myers sump pump with a high-output DC backup and double battery bank. The result: 14–16 hours of protection at their measured duty cycle.
Controller Intelligence Matters
- Intelligent chargers optimize voltage and temperature compensation. Dry-contact alarm outputs tie into home security panels. Thermal protection on the motor and controller prevents meltdown under continuous run.
Battery Bank Sizing
- Use dual deep-cycle AGM or flooded cells: 100–200 Ah each. Ventilate if using flooded lead-acid. Use listed cases and cable guards. Size wiring for DC current—short runs, heavy gauge, clean crimps.
Maintenance Plan
- Test monthly with a controlled water pour. Replace batteries every 4–5 years or when capacity drops below 80%. Keep terminals clean; corrosion steals runtime.
Key Takeaway
Battery backups win when you need predictable hours of pumping at known flows. Myers’ smart control and robust DC pump design are the backbone of a dry basement.
#3. Water-Powered Backup – Municipal Pressure, No Electricity, Automatic Operation
When the grid stays down for a day or two, battery banks can fade. Water-powered backup systems use municipal water pressure to create a venturi effect and eject sump water—even if the utility power is out and your batteries are flat. Where code and water service allow, I highly recommend a water-driven unit as the second layer.
Efficiency hinges on inlet pressure. Most homes see 50–70 PSI, which is ample for ejecting 800–1,400 GPH at 10 feet with the right unit and line size. City water usage is the tradeoff: roughly 1 gallon of potable water ejects 1–2 gallons from the pit, varying by model and head. Installed properly with a listed backflow preventer, this is safe, reliable, and ready 24/7 without charging cycles.
The Madigans’ municipal line holds a stable 65 PSI. We mounted a water-powered unit high on the joists, valved and tested. During our outage drill, it cleared the pit smoothly, buying unlimited runtime as long as the city main held pressure.
Proper Plumbing and Backflow Protection
- Use a reduced pressure zone (RPZ) or double-check backflow preventer per local code. Run dedicated 3/4" or 1" supply to prevent starving the ejector. Include a service valve and unions for maintenance.
When Water-Powered Shines
- Long outages with consistent city pressure. Minimal maintenance requirements. Complement to battery systems in flood-prone regions.
Key Takeaway
When “infinite” runtime beats “finite” batteries, water-powered backup is your ace—quiet, automatic, and dependable with municipal pressure.
#4. Dual-Backup Strategy – Battery + Water-Driven for Layered Protection That Doesn’t Quit
One backup is good. Two independent backups are how you sleep through storms. A dual-backup Myers layout gives you a DC pump to handle high inflow surges and a water-powered unit to ride out prolonged outages. Controllers can prioritize the DC pump first for maximum pumping rate, then the myers submersible water-driven ejector takes over if battery voltage drops.
Staging logic matters. The sump must be wide enough for two float switches plus the primary switch, with staggered elevations. Discharge needs a properly sized check valve on each line to prevent backflow, and, ideally, separate discharge tie-ins or wye with backflow isolation to minimize head loss.
For Luis and Camila, this two-layer setup finally ended their storm anxiety. Their DC system handles big inflow fast; their water-powered unit is the marathoner.
Switch Staging and Alarms
- Primary float lowest, DC backup mid-height, water-driven highest. Redundant high-water alarm with battery power. Controller with separate LEDs and audible codes.
Discharge Engineering
- Smooth bends, full-port valves, minimize elbows. Dedicated 1-1/2" discharge for DC; separate 1-1/4" or 1-1/2" for water-powered. Test each system independently twice per season.
Key Takeaway
Batteries handle the sprint; water-power runs the marathon. Together, they beat 99% of failure scenarios.
#5. High-Output DC Pump Selection – Flow vs Head, Wiring, and Duty Cycle Reality
Not all DC backups are equal. Look for real GPM rating at your measured head, continuous-duty ratings, and proper thermal protection. Inferior units advertise at 0 feet of head; that’s meaningless in basements with 9–12 feet of vertical and 20–30 feet of horizontal run.
A top-end DC pump will deliver 30–55 GPM at 10 feet, drawing 10–20 amps depending on design. That current demands heavy-gauge wiring, clean splices, and short runs. Soft-start controllers extend switch life and reduce startup current spikes.
We dialed in the Madigans’ DC pump to deliver consistent 2,800 GPH at 10 feet through a smooth 1-1/2" discharge. Noise stayed low, and the controller’s lightning protection and thermal cutback handled extended cycles without drama.
Electrical Best Practices
- Use tinned copper cable, correct ring terminals, and heat-shrink. Protect with an inline fuse per manufacturer spec. Keep cable runs tidy with cable guards and labeled polarity.
Hydraulic Best Practices
- Avoid corrugated discharge tubing. Use rigid PVC or smooth-wall hose. Full-port valves and sweep 90s reduce head loss. Keep the discharge above grade and clear of snow/ice.
Key Takeaway
Pick a DC pump for the head you have, wire it like a professional, and it’ll pay you back in dry floors and long runtime.
#6. Controllers and Smart Alarms – The Brain of Your Backup That Prevents “Silent Fail”
A backup is only as good as its controller. Look for UL listed chargers with multi-stage profiles, high-water alarms, battery health diagnostics, and event logging. Some offer dry-contact outputs for security panels or smart home hubs. Audible alarms are non-negotiable. A bright LED panel that tells you “charging,” “float active,” or “battery low” is worth its weight in reclaimed carpet.
The Madigans’ controller includes float indicator lights and a monthly self-test mode. It caught a loose spade connector on day three—exactly why we test. There’s no substitute for diagnostics that reveal an issue before a storm does.
Must-Have Features
- 3-stage charger: bulk, absorption, float. Over/under-voltage protection, reverse-polarity protection. High-water alarm with battery backup.
Nice-to-Have Features
- Event history and approximate gallons pumped. Temperature-compensated charging. External alarm outputs and Wi-Fi bridge capability.
Key Takeaway
Brains matter. A smart controller turns a backup from “hope it works” into “know it works.”
#7. Plumbing and Code – Backflow, Line Sizing, and Discharge That Won’t Choke Flow
Hydraulics and code compliance make or break performance. On water-driven systems, a listed backflow preventer (RPZ in many jurisdictions) is mandatory to protect potable water. Size the supply at 3/4" minimum, 1" preferred, to let the jet do its job. For discharge, follow the pump spec: 1-1/2" lines with minimal restrictions. Every elbow adds to TDH.
On the Madigan install, we set a dedicated 1" cold supply with a service valve and drain-down for winterizing. Discharge lines exit above grade with a freeze-resistant termination and air gap. The battery pump discharge includes a quiet check valve to cut hammer and backflow.
Checklist
- Separate shutoff valves on each backup branch. Unions near devices for serviceability. Insulate lines near exterior walls to prevent freeze.
Testing and Labeling
- Label each valve clearly: primary, DC backup, water backup. Document head measurements in the panel for future service. Test each path under load and log GPM results.
Key Takeaway
Code compliance isn’t optional—and smart plumbing unlocks the performance you paid for.
#8. Myers vs Budget Backups – Why Materials, Warranty, and Design Win the Long Game
Here’s where the wheat separates from the chaff. Budget backup systems use thermoplastic housings and basic controllers that struggle under continuous duty. Components heat up, switches arc, and cheap check valves leak back into the crock. By contrast, Myers builds around durable housings, quality impellers, and controllers built for real storms. Expect a robust 3-year warranty on many Myers systems versus 12 months from budget brands.
- Technical: Myers pairs high-output DC pumps with intelligent control charging and thermal overload protection, delivering steady output near the system’s best efficiency point. Longevity: Switches and impellers are engineered for surge operation. You don’t want melted float housings or flimsy mounts shifting mid-storm. Serviceability: Clear manuals, parts availability, and PSAM support mean quick fixes, not guesswork.
In homes like the Madigans’, quality matters. A “savings” of $150 on day one can turn into a soaked pad and drywall on day 400.
Comparison Spotlight: Budget Brands vs Myers (Detailed)
- Performance and Efficiency: Many big-box backups advertise flows at 0 head; Myers publishes realistic curves at 5, 10, and 15 feet. You get honest numbers and pumps that hold output without overheating. Reliability and Maintenance: Cheaper systems often lack true lightning protection, leading to controller failures post-storm. Myers designs for surge events with protective circuitry and thermal safeguards. Value Conclusion: Count the avoided flood claims and replacement cycles over five years. The Myers approach is worth every single penny.
Key Takeaway
Cheap backups gamble with your basement. Myers systems are built to win the long game, storm after storm.
#9. Integrating Myers with Your Primary – Matching Switch Logic, Check Valves, and Discharge Geometry
A great backup still fails if it fights your primary. Float heights, discharge tie-ins, and check valve placement determine whether systems cooperate or clash. Myers backups integrate cleanly with standard 1-1/2" discharges, and their switches can be staged precisely above your primary pump’s range.
For the Madigans, the primary is a high-quality AC sump unit, with the Myers DC float set 2.5 inches higher and the water-driven float 1 inch above that. Each leg has a clean, full-flow check valve and isolation valve. With simulated power loss, there’s no backflow or air lock.
Integration Steps
- Verify primary pump’s normal operating range and set backup floats above it. Separate discharge lines where possible; if combining, use a proper wye and checks. Isolate for testing: you should be able to run any system solo.
Diagnostics
- Use a clamp meter to see primary amperage under load—spot early motor trouble. Listen for valve chatter—indicates undersized checks or trapped air. Inspect for vortexing; add an intake screen if needed.
Key Takeaway
Good integration is quiet, fast, and invisible—until you need it. Myers backups play well with quality primaries.
#10. When Your Property Also Relies on a Well – Coordinating Sump Backup with Myers Well Pump Reliability
If you’re on a private well, your sump backup strategy should also respect the heart of your water supply. In many rural homes, the well system and sump both work hardest during storms and seasonal thaws. That’s where Myers Pumps stands apart—your sump protection pairs naturally with a Myers submersible well pump built for the long haul.
Myers’ Predator Plus Series well pumps feature 300 series stainless steel bowls and shells, Teflon-impregnated staging, and the Pentek XE motor with thermal overload protection and lightning protection. With 80%+ hydraulic efficiency near BEP, these pumps run cooler and cost less to operate—critical when your generator is carrying the house. The 3-year warranty and Made-in-USA build inspire confidence when outages strike.
Luis and Camila receive municipal water, but I routinely coordinate sump backups with well system upgrades for clients outside town. When both systems are Myers, parts compatibility, documentation, and service standards make ownership easy.
Why This Matters
- A flooded basement can damage well tanks, controls, and wiring. Myers durability reduces “double-trouble” emergencies. PSAM stocks both sump and well components, with fast shipping.
Pro Tip
If your well is 150–300 feet deep and you’re due for replacement, a 1 HP Myers Predator Plus at 10–12 GPM with the Pentek XE motor is a smart default—refined, efficient, and field-serviceable.
Key Takeaway
Back up the basement and trust the well. Myers covers your water end-to-end.
Detailed Competitor Comparison: Myers vs Goulds and Wayne (Materials, Warranty, and Ownership Cost)
- Technical Performance Analysis: Myers builds sump and well solutions around 300 series stainless steel and engineered composites where appropriate, resisting corrosion in mineral-heavy environments. Many Goulds Pumps sump units lean on cast iron components that can corrode when exposed to acidic water and chlorides. For control systems and motors, Myers’ pairing with Pentek XE tech in well applications provides high thrust and efficient operation, while budget lines like Wayne Pumps often emphasize initial cost over sustained duty performance or robust electronics. Real-World Application Differences: In basements with high inflow, controllers with thermal protection and honest head-rated curves keep pits from creeping up. Wayne’s typical 1-year coverage often meets its limit in 2–3 seasons of heavy cycling, especially where floats or checks stick. Goulds’ cast components can show surface corrosion in rough water chemistry, requiring early replacement. Myers, with longer warranties and better materials, offers fewer callbacks and more predictable service intervals. Value Proposition Conclusion: Consider the lifecycle: fewer replacements, fewer flood risks, and lower energy draw with efficient designs. Between superior materials, longer coverage, and PSAM-backed support, Myers systems are worth every single penny.
Detailed Competitor Comparison: Myers vs Franklin Electric (Serviceability and System Simplicity)
- Technical Performance Analysis: Myers’ well platforms use a threaded assembly design that’s field serviceable, and many residential installs can leverage a 2-wire configuration to simplify controls. Franklin Electric often steers homeowners into proprietary control boxes and dealer networks. While Franklin builds strong motors, the system-level complexity and reliance on specialized parts can add costs without clearly improving household water performance. Real-World Application Differences: On emergency jobs, getting water back quickly is everything. Myers’ flexible 2-wire options cut $200–$400 from upfront control gear and speed the install. For maintenance, being able to service a threaded pump stack onsite saves trips and keeps water flowing. Franklin’s proprietary pathways can extend lead times and cost more in remote regions. Value Proposition Conclusion: With simpler installs, serviceable assemblies, and broad parts availability through PSAM, Myers reduces downtime and long-term cost of ownership. In the residential space, practicality wins—and Myers’ approach is worth every single penny.
FAQ: Backup Sumps, Sizing, and Myers Well Systems
How do I determine the correct horsepower or capacity for my backup and my home’s water demand?
Start with your sump’s inflow and the lift to your discharge. Measure how fast the pit rises during heavy rain—say 10 gallons in 15 seconds equals 40 GPM. Then measure your vertical rise plus friction from elbows and horizontal runs to estimate TDH. For backups, match or exceed that flow at your measured head. For well systems, a typical 3–4 bathroom home running a 10–12 GPM well pump is standard. Depth dictates motor: a 1/2 HP can service 60–120 feet, 3/4–1 HP for 120–250 feet, and 1.5–2 HP for very deep or high-demand situations. Myers’ Predator Plus Series offers multiple stages to hit head requirements up to ~490 feet of shut-off head with the Pentek XE motor. Rick’s recommendation: chart your inflow, know your head, and select a pump with 15–25% reserve capacity. PSAM can validate the math and provide the right system fast.
What GPM does a household need, and how do multi-stage impellers affect pressure?
Most homes are comfortable at 8–12 GPM for domestic supply, with occasional surges to 15 GPM when irrigation or laundry overlaps. In wells, a multi-stage pump adds pressure by stacking impellers; each stage contributes a set pressure rise, letting a Myers deep well pump deliver high head at modest horsepower. This design also runs near the best efficiency point (BEP), conserving energy and limiting heat. In sump applications, you don’t have multi-stage DC backups; instead, you choose a model with honest head-rated performance. If you have 10 feet of lift, pick a backup rated at your inflow at 10 feet—not 0 feet. From my field work: a properly staged Myers well unit paired with a right-sized pressure tank gives smooth pressure with fewer short cycles, and a head-matched sump backup keeps basements dry without overtaxing motors.
How does the Myers Predator Plus Series achieve 80%+ hydraulic efficiency compared to competitors?
Efficiency comes from internal hydraulics and tight tolerances. Myers uses Teflon-impregnated staging and engineered composite impellers to minimize internal friction and resist grit wear. With the Pentek XE high-thrust motor, mechanical losses are held down, and the pump can operate close to BEP, where hydraulic efficiency peaks—often over 80% in standard residential flows. This means less amperage draw for the same GPM, cooler operation, and longer motor life. In the field, I’ve seen 15–20% lower power consumption compared to budget imports at equivalent output. Over years, that’s real money back in your pocket—and fewer heat-related failures.
Why is 300 series stainless steel superior to cast iron for submersible well pumps?
Submerged environments are unforgiving. 300 series stainless steel resists corrosion from dissolved minerals, CO2, and mildly acidic conditions that chew on cast iron. Components like the shell, discharge bowl, shaft, and suction screen stay intact longer, tolerances stay true, and you avoid seized fasteners during service. In contrast, cast iron can scale and pit, increasing friction and reducing efficiency over time. Myers’ stainless construction also stays lead-free and NSF/UL/CSA compliant, aligning with modern water quality expectations. My recommendation: if your water chemistry is unknown or variable, stainless is non-negotiable for longevity—especially in deeper installations where pulling a pump is labor-intensive and costly.
How do Teflon-impregnated self-lubricating impellers resist sand and grit damage?
Grit is the silent killer. Teflon-impregnated staging and self-lubricating impellers reduce abrasion and friction when suspended solids pass through, protecting the wear surfaces and maintaining clearances longer. Standard bearings and plain plastics can scuff, swell, or deform, which drags efficiency down and can seize stages under load. In my sand-prone wells, Myers’ staging has outlasted conventional designs by years, keeping flow and pressure stable. The payoff: fewer pulls, fewer emergency calls, and a pump that still hits its curve after five to eight seasons of hard service.
What makes the Pentek XE high-thrust motor more efficient than standard well pump motors?
High-thrust motors handle the axial loads a multi-stage submersible well pump generates. The Pentek XE motor uses improved winding design, high-quality bearings, and robust insulation to run cooler with lower amperage draw at a given load. Built-in thermal overload protection and lightning protection stabilize performance under harsh electrical events. Efficiency shows up as smoother starts, less heat, and longer bearing life. At PSAM, when we spec a 1 HP Myers Predator Plus with Pentek XE, we see lower energy bills and fewer nuisance trips under high-demand events like irrigation overlapping showers—precisely what busy households need.
Can I install a Myers submersible pump or backup system myself, or do I need a licensed contractor?
Battery backups and water-powered ejectors are DIY-friendly for experienced homeowners comfortable with plumbing, wiring, and code. You’ll need proper tools, a wire splice kit for clean connections, and adherence to backflow requirements for water-driven units. For well systems, pulling and setting a deep well pump typically demands a torque arrestor, pitless adapter know-how, drop pipe handling, and safe electrical work. Many states require licensed contractors for well work. My stance: if it’s sump-side and you’re skilled, proceed with caution and follow code. For wells, hire a pro unless you have the gear and experience. Either way, PSAM provides diagrams, pump curves, and phone support so your install goes right the first time.
What’s the difference between 2-wire and 3-wire well pump configurations?
A 2-wire well pump has internal starting components; you wire hot-hot-ground to the motor. Simpler installation, fewer parts, and typically lower upfront costs. A 3-wire well pump uses an external control box with a start capacitor/relay, allowing easier replacement of start components topside. In many residential jobs, a 2-wire build is clean and reliable—especially with Myers’ field serviceable designs. Myers provides both options. If you value simplified installs and lower costs, 2-wire can save $200–$400 on control boxes. If you want fast serviceability of start parts above ground, 3-wire has merit. I’ll help you pick based on depth, load, and maintenance preference.
How long should I expect a Myers Predator Plus well pump to last with proper maintenance?
With correct sizing, clean power, and reasonable water chemistry, expect 8–15 years, with many reaching 20+ when the system is monitored. Keep an eye on pressure switch cycling, maintain your pressure tank pre-charge, and replace worn check valves before they hammer the system. Surge protection matters too—lightning can ruin a good motor. I’ve replaced plenty of budget pumps at year four that a Myers would have sailed past without drama. Annual checks and a quick amp draw test during peak flow are cheap insurance.
What maintenance tasks extend well pump and sump backup lifespan—and how often?
- Quarterly: Test sump primary and backups with a 5–10 gallon pour. Verify check valve function and alarm operation. Semiannually: Inspect discharge for leaks and obstructions; verify water-powered backflow performance. Annually: For wells, check pressure tank pre-charge, inspect pressure switch contacts, and record pump amperage draw at steady flow to identify bearing wear. Every 4–5 years: Replace sump backup batteries; test charger function and cable integrity. After major storms: Re-test floats; confirm run times and any controller error logs. My recommendation: calendar these tasks. Small habits prevent big floods.
How does Myers’ 3-year warranty compare, and what does it cover?
Myers backs many residential pumps with an industry-leading 3-year warranty against manufacturing defects—double or triple what budget lines offer. In my experience, the company stands behind reasonable claims, and PSAM facilitates fast resolution. Compare that to brands with 12 months of coverage; when their float fails in year two, you’re on your own. A longer window reflects confidence in design—stainless construction, engineered impellers, and robust motors. It’s not just paperwork; it’s a clear signal of quality.
What’s the total cost of ownership over 10 years: Myers vs budget brands?
Add it up: purchase price, install time, energy use, maintenance, and replacement risk. A Myers system with proper sizing and 80%+ hydraulic efficiency near BEP typically delivers lower kWh consumption and fewer service calls. Budget units often need replacement at 3–5 years, sometimes sooner under heavy cycling, and their controllers rarely survive electrical storms. One flood—deductibles, remediation, replacement—dwarfs any upfront savings. Over a decade, Myers almost always nets the lower total cost, with far less risk. In my ledger, the math and the dry basement both favor Myers.
Conclusion: Why Myers and PSAM Are the Backup You Want Before the Next Storm
Backups aren’t about hype; they’re about physics, materials, and planning. Size for your inflow https://www.plumbingsupplyandmore.com/convertible-shallow-well-jet-pumps-1-2-hp.html and head. Choose a battery backup for predictable runtime and a water-powered unit for unlimited endurance. Stage floats properly, size lines correctly, and use listed backflow protection. Then test—on your schedule, not the storm’s.
Myers delivers the right hardware: intelligent DC systems, reliable water-driven backups, and a brand lineage that also anchors your home’s water with Myers submersible well pumps built on 300 series stainless steel, Teflon-impregnated staging, and Pentek XE motor reliability. The 3-year warranty and PSAM’s fast shipping turn a plan into protection.
The Madigans’ basement stayed dry through the next two outages. That’s the whole point. If you’re ready to lock in your own layered defense, call PSAM. I’ll help you size it right the first time—so your next storm story is about a quiet night and a dry floor.