PSAM Myers Sump Pump Float Switch Types and Tuning

Introduction

Cold rain pounded the siding and the basement alarm started screaming. By the time the panel door was open, the sump pit looked like a black coffee cup at the brim. The old pump sat silent—the float hung up on the discharge elbow and the motor had overheated. In less than an hour, a small oversight became a soaked storage room, a wrecked water heater ignition board, and a Saturday no one wanted.

Two miles outside New Glarus, Wisconsin, Aria and Mateusz Kaczmarek leaned hard on a wet/dry vac while trying to keep their three kids—Pola (9), Iwo (7), and baby Mila (2)—out of the water. The Kaczmareks rely on a private well for daily water and a basement sump to keep spring melt from overwhelming their foundation drainage. Their failed float switch on a budget Wayne unit left them without flood protection at the worst time. After the scramble, Mateusz called PSAM. We sized a Myers sump pump correctly—not just horsepower, but the right float type and tuning so the pump would cycle infrequently, clear solids, and avoid dead zones in the pit. The difference was night and day.

If you’ve ever had a stuck float, short-cycling sump, or a pump that runs but doesn’t lower the water fast enough, this list is for you. We’ll cover the float switch types Myers supports, how to tune cycle length, voltage and amperage realities, cord routing tricks, piggyback switch wiring, debris screens, check valve placement, and, yes, when a smart electronic switch outperforms a mechanical float. Along the way, you’ll see exactly how the Kaczmareks locked in trouble-free performance—and why a properly tuned Myers sump pump costs less to own over ten storm seasons.

Awards and achievements matter when water threatens your living space. Myers Pumps—backed by Pentair—bring Made in USA build quality, UL/CSA certifications, and an industry-leading 3-year warranty. That’s real coverage, not fine print. Efficiency and reliability aren’t just for wells; stack them in a sump and your basement stays dry.

I’m Rick Callahan at PSAM. I’ve pulled jammed floats out of pits at midnight and tuned thousands of systems over the years. These are the field-tested, no-nonsense ways to choose the right Myers float switch and set it up so it just works when you need it most.

Longer run times and fewer starts save motors. A properly set Myers tethered float gives you a generous on/off band so the pump moves more water per cycle and runs cooler.

Tethered floats are simple, tough, and easy to read in a pit. With a Myers sump pump, the float cord length sets the water “on” and “off” elevations. More cord equals a taller lift window. Why care? Each start-up draws 5–7 times the motor’s running amperage. Reducing starts drastically cuts heat stress and bearing wear. On 1/2 HP or 3/4 HP sump models, a tuned tether can mean 30–50% fewer starts during a storm. Tie the cord too short and you get chattering—constant small cycles that punish the motor and rattle the check valve. Tie it right and you give that pump a 20–60 second run window to clear the lateral drains and settle the basin.

A year after their flood, Mateusz Kaczmarek can point to a marker on the pit wall: the exact “on” point we set with a tethered float on his Myers. The pump runs clean, quiet cycles—no half-second spurts, no stuck switch, just controlled operation that emptied the pit even during a spring melt.

Tethered floats offer a wide adjustable range and solid reliability in basins with enough diameter—typically 18 inches or more. Debris tolerance is good; cords can be routed away from obstructions. But if your pit is narrow (less than 16 inches across) or has an internal ladder or protrusions, the float may snag. In very tight pits or with tall discharge assemblies, consider a vertical float or an electronic sensor.

Start by fixing the tether clamp 2–3 inches below the pit rim. With the pit empty, lower the float to confirm free swing without hitting the discharge or power cords. Fill the pit until the float rises and the Myers pump kicks on. Note that elevation. Aim for an off point that’s at least 4–5 inches below the on point. Adjust the tether incrementally and retest. Finalize by zip-tying excess cord to the discharge to remove slack.

Key takeaway: If your basin is wide, a well-tuned tethered float on a Myers sump pump delivers stable cycles and longer motor life.

When space is tight, a vertical float switch shines. Myers vertical floats ride a guide rod, delivering crisp on/off action with minimal travel distance.

Vertical floats need far less horizontal space than tethered designs. A guided float lifts straight up as water rises; the switch toggles within a small band—often 2–4 inches. That tight deadband excels in 14–18 inch basins and in pits with obstructions like radon domes or internal braces. For households on 115V circuits with 1/3 to 1/2 HP sump pumps, a vertical float’s consistent action helps protect against overflows when storms push water in surges. Precision also keeps the pump from running dry when inflow drops suddenly—especially helpful with 1-1/2" discharge lines where the check valve holds a big gulp of water.

After we swapped Aria Kaczmarek’s old, snag-prone switch to a Myers vertical float, the slim pit against their foundation wall cleared like clockwork. No hang-ups on the union, no cord twists—just smooth, repeatable cycles.

Set the clamp so the float engages before the water reaches the drain tile outlet. You want the pump to pull water before lateral drains are submerged. Test the off height to prevent the float from dropping so low that the pump runs air. A 2–3 inch deadband is typical; in very high inflow conditions, increase the band to reduce starts.

Use a piggyback plug so the float controls power to the pump. Route both the pump cord and float cord up the discharge line with separate zip-ties every 12–16 inches. Create a gentle drip loop below the receptacle. Keep cords off sharp bracket edges and away from the vertical guide to avoid interference.

Key takeaway: For compact pits or where the discharge assembly crowds the basin, a Myers vertical float switch offers accurate, reliable control.

Water with iron buildup or floating debris can glue mechanical floats open. Electronic sensor switches on Myers sumps sense water with probes, avoiding mechanical hang-ups entirely.

Solid-state sensors use low-voltage detection between stainless probes or a capacitive pad. No hinge, no buoyant ball to stick—just reliable switching. In basins with iron bacteria slime, lint from utility sinks, or leaves and silt from exterior footer drains, an electronic switch is often the most dependable option. Cycle timing can be more exact, too; many smart switches allow adjustable run-on delays so the pump continues pulling for a few seconds after the off level, clearing the vertical riser and reducing water hammer at the check valve.

We installed a sensor switch on the Kaczmareks’ backup Myers pump. During a dirty spring, the primary mechanical float performed well, but the electronic-backup never once false-tripped or stuck—insurance Aria appreciated on overnight storms.

Set sensitivity to ignore splashing so the pump doesn’t stutter when water falls back through the check. Program a 3–7 second run-on to remove standing water in the discharge and avoid bounce-back restarts. Pair the sensor with a high-water alarm; most quality units are UL listed and plug alongside the piggyback.

Wipe the probes quarterly with a Scotch-Brite pad. Mineral film or iron bacteria can insulate the sensor over time. Test the alarm and cycle once a month by adding water to the pit. Confirm the off delay works and that the check valve doesn’t slam.

Key takeaway: In dirty pits or where floats have failed before, Myers-compatible electronic sensors deliver dependable, adjustable control.

Where a sealed lid is required, a diaphragm or pressure-style switch gives you control without a swinging float. These switches sense pressure differences as water rises, closing a contact to run the pump.

A diaphragm switch sits inside a small chamber with a flexible membrane. As water level increases, trapped air pressure rises and deflects the diaphragm, actuating the switch. Because nothing needs room to swing, these controls fit neatly under sealed covers and radon domes. In 1/2 HP and 3/4 HP Myers setups, diaphragm switches handle steady inflow well and mitigate vapor intrusion concerns. Sensitivity and set point can be tuned by adjusting the chamber height and, on some models, internal screws.

Mateusz wanted the sump sealed to keep basement air quality high for baby Mila. We used a sealed-lid kit with a diaphragm switch routed through a grommeted port, keeping everything airtight and serviceable.

Mount the diaphragm chamber at a height that engages before lateral lines are submerged. Maintain a small vent hole above the diaphragm to prevent vacuum lock yet keep the radon seal intact—grommets and RTV sealant do the trick. Confirm the chamber doesn’t collect condensation that could alter pressure readings.

Inspect the pressure tube annually for kinks or biofilm. Replace brittle tubing; it costs pennies and saves floods. Keep discharge fittings tight; a slow leak back into the pit can falsely keep pressure high, cycling the pump too frequently.

Key takeaway: For sealed sumps or radon systems, diaphragm/pressure switches paired with a Myers pump offer compact, airtight reliability.

The right float is only as good as the motor behind it. Pair switch ratings and cycle tuning with a correctly sized 115V or 230V Myers sump to move water without abuse.

Sump pumps aren’t about “maximum HP”—they’re about the right HP for your inflow and lift. A 1/2 HP Myers with a 1-1/2" NPT discharge, running on 115V, often delivers 60–80 GPM at typical residential heads (8–12 feet). Push that same pump through a long 1-1/4" discharge with 90° elbows and you might see 35–50 GPM. Choose your float and cycle band to move at least 1.5–2 times the peak inflow. Crucially, ensure your float switch amp rating exceeds the pump’s locked-rotor current. Many quality piggyback floats are rated 10–15 FLA at 115V; a 3/4 HP pump can draw 12–14 amps running and 50–70 amps briefly on start. Get this wrong and you weld contacts together.

For the Kaczmareks, we evaluated runtime at 10 feet of head with a vertical rise and two 90s. Their Myers 1/2 HP at 115V moves 62 GPM, clearing an 18-inch pit from on to off in under 25 seconds—comfortable for motor temps and safe on a 15A dedicated circuit.

Put the pump on a dedicated 15A or 20A circuit. Avoid shared receptacles with freezers or dehumidifiers. Use 12 AWG on 20A circuits. Check the pump’s nameplate for running amps and ensure the float’s piggyback and the receptacle are UL listed for wet locations.

Whenever possible, keep 1-1/2" discharge all the way to the check valve. Place the check within 12–18 inches of the pump to reduce backflow and water hammer. Drill a 3/16" weep hole in the discharge just above the pump’s discharge to prevent air lock—aim the hole back into the pit.

Key takeaway: Confirm your float’s electrical rating, right-size the Myers sump for actual head, and give it a dedicated circuit. That’s how you build a system that lasts.

Motor heat is the enemy. Longer run times with fewer starts keep windings happy and seals healthy. Float selection and tuning deliver that protection.

Aim for 20–60 second runs during peak inflow. Tethered floats make this easy by allowing wider bands; vertical and electronic switches can mimic this with smart off-delays. Every start-up spikes amperage; frequent starts heat the motor shell, attack insulation, and can scorch the start winding. For 1/2 HP and 3/4 HP Myers pumps, targeting 8–12 cycles per hour in heavy rain is a solid rule. If you’re cycling 30–40 times hourly, widen your band or upsize the pump slightly. Don’t forget the check valve’s role—an overly stiff flapper can slam shut, triggering short restarts as water bounces. Use a spring-loaded or soft-seat valve matched to your discharge size.

When I revisited the Kaczmarek home mid-storm, the pump cycled every four minutes with 28-second run times—exactly what we tuned for based on their footer inflow test.

With a marked stick, time how long it takes the pit to fill from off to on during a rain. Then time the pump-down. Adjust the float (or off-delay) to hit your target duty cycle. If inflow outruns the pump briefly, accept a slightly higher on point for storm events—dry basement beats tiny energy savings.

Most Myers pumps include thermal overload protection. If you over-cycle, you’ll feel a hot casing and the motor may trip. That’s a sign to widen the band or consider the next HP step. Always allow the sump to cool if you’ve tripped protection before retesting.

Key takeaway: Tune for longer, cooler runs. Your Myers sump will thank you with years of service.

Material science and switch engineering separate a dry basement from a wet nightmare. Here’s the practical comparison homeowners ask me for the most.

Technically, Myers switch options pair with robust, UL listed assemblies and motors backed by Pentair engineering. Switch contacts and cords are rated to handle realistic locked-rotor spikes on 1/2–1 HP units. Many Zoeller models are excellent in drainage, but in iron-rich pits I see their mechanical floats require more frequent cleaning. Wayne’s budget offerings often arrive with narrower deadbands and lighter-duty switch contacts; pair those with high inrush currents and contacts can weld early. Myers builds around reliability with switch flexibility—tethered, vertical, diaphragm, and electronic—matched to the site, and the company backs it with a 3-year warranty.

In the field, Zoeller performs well in clean pits, but the float arm can still snag on internal braces. Wayne’s value tier often shows its limits after a season or two of heavy action. Meanwhile, the Kaczmareks’ Myers float system sailed through three Wisconsin springs without a hiccup, and their warranty coverage gives real peace of mind. Factor in PSAM’s same-day shipping on in-stock items and you’ve got less downtime, fewer callbacks, and lower water damage risk—worth every single penny.

With Myers, choose the switch based on pit conditions: tether for space and long cycles, vertical for tight pits, electronic for dirty water. Set quarterly five-minute checks—lift the float, verify pump and alarm, wipe debris. That small routine sustains the advantage Myers builds at the factory.

Myers’ 3-year warranty simply outmuscles the 1-year coverage common on Wayne units. Replacement switches and piggyback cords are readily available through PSAM. Faster parts, shorter downtime, fewer “make-do” fixes—this is how real savings add up.

Key takeaway: The switch is a system choice, not a single part. Myers delivers options, build quality, and coverage that keep basements dry.

The cleanest switch in the world can’t work if the pit is choking with stringy debris, gravel, or rust flakes. Design the basin so the float swings clean and the pump breathes.

Start with pit geometry. An 18" diameter basin gives room for a tethered float; tighter wells call for a vertical float or electronic sensor. Keep the discharge union, check valve, and power cords off the float’s swing path. Add a small intake screen if you’re seeing pebbles or concrete spall. In heavy silt pits, a short 1" stand-off under the pump prevents the impeller from vacuuming the floor. Don’t omit the 3/16" weep hole above the discharge—air lock is real, and it will make a good pump look dead.

Aria keeps a small nylon net near the pit. After laundry lint built up once, she gave the basin a five-minute clean. Since then, the float area has been clear and cycles are noticeably quieter.

Use a clear, serviceable check valve where possible. Sight-glass styles help you see backflow and seating. If you hear banging when the pump shuts off, try a soft-seat valve or add a short run of flexible coupling to dampen shock. Water hammer can bounce the float and cause nuisance restarts—dirty words in any basement.

Tie cords separately and loosely along the discharge. Create a drip loop below the receptacle. Use a GFCI-protected outlet rated for damp locations. Label the piggyback plug so no one unplugs the float by mistake when they mean to reset the dehumidifier.

Key takeaway: A clean, well-laid-out pit is the easiest upgrade you’ll ever make. Give your Myers float room to do its job.

When the forecast looks angry, redundancy wins. Dual pumps with alternation and smart off-delays keep water moving and stress down.

A common premium setup: two identical 1/2 HP Myers pumps on separate circuits with a controller that alternates start duty. If one fails or a float sticks, the other takes over. Add an electronic controller with a programmable off-delay (3–8 seconds) to clear the vertical riser and quiet the check. In extreme inflow areas or in homes with finished basements, an upper float triggers both pumps simultaneously when water spikes. With 1-1/2" discharge and smooth-radius 90s, this arrangement moves serious GPM without abusing a single motor.

For the Kaczmareks, we staged a primary vertical float and a high-water electronic sensor. During a rare cloudburst, the backup kicked on exactly once, bought run-time margin, and reset—no drama, no wet carpet.

Power each pump from its own circuit—ideally different breakers—to survive a nuisance trip. Wire high-water alarms to an outlet on a third circuit if available. Test your alarm monthly. If you only hear it when water is already at your ankles, you waited too long.

Consider a DC battery backup pump for areas that lose power during storms. Size the battery for at least 4–6 hours of intermittent run-time. Keep float styles consistent—if the primary is vertical, mirror the backup’s activation heights to avoid interference.

Key takeaway: Redundant Myers pumps with smart switching make storms boring, and that’s the goal.

Comparisons get real when we talk switch options, coverage, and parts availability. Here’s where Myers—through PSAM—delivers tangible, long-haul value.

Performance-wise, Myers offers a broader selection of float strategies—tethered, vertical, diaphragm, and electronic—designed to match basin geometry and water quality. Grundfos builds excellent pumps in many categories, but their residential sump switch ecosystem can be more limited or bundled, reducing field flexibility. Wayne’s budget models lean on narrower deadbands and lighter-duty contacts that struggle with high inrush draws, particularly on 3/4 HP motors. Myers combines robust switch ratings, 300 series stainless steel hardware where it counts, and wet-rated cords that shrug off real-world basements.

In the real world, homeowners like Aria and Mateusz don’t want to swap brands just to change switch types. Myers lets us tailor the control to the pit, carry a 3-year warranty, and source replacements or upgrades fast through PSAM. Add Pentair’s R&D and our same-day shipping for in-stock items, and downtime drops to near-zero. Over a decade, fewer replacements, fewer water events, and fewer after-hours calls add up to substantial savings—worth every single penny.

PSAM stocks the floats, piggyback cords, checks, unions, and alarms you actually need. We share pump curves, head-loss charts, and wiring diagrams at the counter—or by email for contractors on the road. That support keeps jobs moving.

Key takeaway: Myers plus PSAM support equals smarter switch choices, faster parts, and lower lifetime costs.

Start with inflow, not a guess. During a heavy rain, time how fast your pit fills between two marks (in inches). Convert that to gallons using your basin diameter (an 18" pit gains about 1 gallon per 1.6 inches). If you see 20 gallons every minute at peak, target a pump that can move 40+ GPM at your actual head (vertical rise plus fittings). Many Myers 1/2 HP units at 115V deliver 60–80 GPM at 8–12 feet of head through 1-1/2" discharge. If your head is higher or you have several 90° elbows, expect lower flow. Pick a float strategy (tethered or electronic with off-delay) that creates 20–60 second run times. For households on private wells, keep sump and well circuits separate—avoid nuisance trips that interrupt domestic water. My recommendation: size the pump at 1.5–2x peak inflow and validate on-site by timing pump-down. If cycles are rapid or the motor feels very hot, widen the float deadband or step to 3/4 HP.

A typical basement with footer tile might see peak inflows of 15–40 GPM in heavy rain, though some sites spike above 60 GPM. Your pump should comfortably move double the peak when cycling, so it runs cool and catches surges. Float deadband—the height difference between on and off—controls run time. A larger deadband on a Myers tethered float yields longer runs and fewer starts, protecting the motor from inrush heating. Tight pits benefit from vertical floats, but consider an electronic switch with a 3–7 second off-delay to emulate a larger deadband. At 10 feet of head, a 1/2 HP Myers often clears an 18" pit from on to off in 20–30 seconds, which is ideal. If your pump short-cycles (5–10 seconds), lengthen the band or reduce friction in the discharge. Longer, cooler cycles add years to your pump.

Two levers: hydraulic efficiency in the volute/impeller and operational efficiency via smarter cycling. Myers designs deliver strong flow at common residential heads with optimized impeller geometry. Pair that with a correctly sized 1-1/2" discharge and you minimize friction losses. On the control side, Myers supports multiple float types—tethered, vertical, diaphragm, and electronic—so you can widen run times and slash start frequency. Fewer starts equal lower thermal stress and longer life. Backed by meyer water pump Pentair engineering, components are UL listed, cords are wet-rated, and switch contacts are spec’d for real locked-rotor currents on 1/2–1 HP motors. In practice, that means you move the same gallons with fewer cycles and less heat. My field note: after converting budget systems to Myers with tuned floats, I routinely see temperature drops of 15–25°F on the motor shell mid-storm.

Basements are harsh: condensation, occasional chemical exposure, and groundwater with minerals. 300 series stainless steel resists corrosion far better than mild steel and outlasts thermoplastic parts that can crack under pressure changes or UV exposure during service. Hardware that stays intact holds seals tighter and keeps mounts secure so floats don’t drift or snag. In mixed-metal stacks, stainless fasteners prevent seized threads when you need to adjust float clamps or remove a volute for cleaning. Myers leverages stainless where it matters—hardware, shafts, and mounts—so tuning and service remain possible years later. Thermoplastic housings can be fine for light duty, but I’ve seen them distort near warm motors and bind floats. For long-term reliability and stable tuning points, stainless is worth it.

Electronic switches use solid-state sensing—either stainless probes or capacitive pads—so there’s no hinge, arm, or foam ball to glue up with slime. In iron-rich pits, mechanical floats can stick or become buoyant “bricks” when coated. A sensor switch simply needs its probes wiped periodically. Set sensitivity high enough to ignore splashes but low enough to detect a steady rise. Add a short off-delay (3–7 seconds) to ensure the vertical riser clears and to prevent false restarts from backwash. I recommend a quarterly wipe with a Scotch-Brite and a monthly 30-second function test. In my experience, electronic sensors cut nuisance failures by half in dirty pits, especially where utility sinks dump lint into the basin.

Efficiency starts at startup. Sump pumps draw 5–7x running amperage at start; a switch rated too low welds or pitts, raising contact resistance and heat. Myers pairs motor needs with UL listed, wet-location-rated switches and cords. Look for piggyback floats rated 10–15 full-load amps (FLA) at 115V with high inrush tolerance. Use a dedicated circuit—15A for 1/2 HP, and consider 20A for 3/4–1 HP—and GFCI protection. Correct switch rating reduces voltage drop and heat, keeping the motor near its best efficiency point under actual head. Safer electrically, too: less arcing, fewer welded contacts, and a float that does its job without drama. When you add an off-delay on electronic switches, you reduce starts further, which is the biggest win for motor life.

If you’re comfortable with basic plumbing and safe electrical practices, a DIYer can install a Myers sump and float in an afternoon. You’ll need PVC cutters, primer/cement, a check valve, unions, stainless clamps, zip-ties, and a drill for the weep hole. Critical steps: mount the float with clear travel, route cords cleanly, set the deadband for 20–60 second runs, and test with multiple fill cycles. Electrically, use a GFCI-protected, dedicated outlet and verify your float’s amp rating meets or exceeds pump draw. If sealed lids, radon domes, or alternators are in play—or you’re on a finished basement—hire a pro. At PSAM, we walk homeowners and contractors through tuning on the phone. The Kaczmareks handled their second float adjustment themselves; we simply coached them on clamp height-by-height.

A piggyback float is a straightforward on/off switch that the pump plugs into. When the float rises, it powers the pump. It’s simple, reliable, and great for most basins. An electronic controller uses probes or capacitive sensing to detect water and often includes an off-delay, alarms, and alternation logic. Electronic control is ideal in narrow or dirty pits—or when you want dual-pump alternation. Mechanical floats are typically easier to install and cheaper upfront. Electronic controllers shine for fine-tuned cycle control and redundancy. Many homeowners run a mechanical float on the primary Myers pump and an electronic high-water backup. That hybrid approach balances simplicity and smarts.

With clean power, correct discharge sizing, and tuned cycles, a Myers sump typically delivers 8–12 years in residential basements, often longer. The float myers grinder pump choice matters: wide-band tethered floats or electronic off-delays reduce start frequency, which is the number one enemy of submersible motors. Keep the pit free of gravel and stringy debris, test monthly, and replace the check valve if you hear hammering. For households on private wells—like the Kaczmareks—maintain both systems yearly; you don’t want to discover a tripped breaker on your sump after your well pump cycles. The more you respect cycle length and head loss, the more years you’ll squeeze out of the pump.

Monthly: add water and run one full cycle; verify off-delay (if present), and confirm the alarm. Quarterly: wipe float bodies or probes, inspect cords and zip-ties, and check the check valve for quiet closure. Annually: pull the pump if debris is heavy, rinse the volute, confirm weep hole is clear, re-seat unions, and recheck clamp heights. Mark your on/off levels on the pit wall for quick reference. If you see rapid cycles, adjust the deadband immediately. For an electronic controller, test battery backups and alarms. Five minutes a month prevents flooded hours you’ll never get back.

Many budget sump brands offer 12 months; Wayne’s common consumer units often sit at that 1-year mark. Myers steps up with a 3-year warranty that covers manufacturing defects and performance issues, giving you a realistic safety net through multiple storm seasons. It’s backed by Pentair, so parts and support flow through a robust supply chain. At PSAM, we help document installs and troubleshoot quickly so you’re never stuck deciphering fine print. When homeowners factor in one avoided early failure, the coverage pays for itself. It’s real protection—not a brochure boast.

Let’s do the math. A budget pump at $150–$200 with a 1-year warranty often lasts 2–4 seasons under heavy cycling, especially with narrow deadbands. Replacing it twice in a decade, plus two half-days of cleanup and parts runs, erases any savings. Add one minor water event—wet carpet or a fried dehumidifier board—and costs balloon. A Myers sump, tuned with the right float, typically runs 8–12 years. Factor the 3-year warranty, lower start frequency from proper float tuning, and PSAM’s fast parts access, and total cost of ownership skews hard toward Myers. As the Kaczmareks found, three quiet springs and zero panic calls is the best ROI in home maintenance.

Conclusion

Sump protection isn’t just horsepower; it’s the right float type, tuned for your pit and inflow, paired with a dependable motor. Myers gives you all the tools—tethered, vertical, diaphragm, and electronic switches—plus the stainless hardware, UL listings, and 3-year warranty that stand up to storm seasons. At PSAM, we size, ship, and support fast. Aria and Mateusz Kaczmarek went from frantic shop-vac marathons to quiet confidence because we matched a Myers sump to their basin and tuned the switch the way pros do it.

Want the same result? Call PSAM. We’ll walk you through float selection, set your on/off elevations, and make sure your Myers sump pump is ready for the next cloudburst—dry, dependable, and worth every single penny.