The first clue is rarely dramatic. A faint musty smell in the basement. A sump pit cycling longer than it did last spring. By the time you see water on the slab or a warped baseboard, the damage is already done. In my line of work, I’ve seen finished basements gutted after one afternoon storm—$8,000 in flooring, drywall, and furniture gone because the sump ran without anyone noticing the float hung up. Early warning isn’t a nice-to-have; it’s the only chance you get to avoid a soaked disaster.
Meet the Carrizales family—Marco (39), a high school science teacher, and his partner, Elena (37), a part-time accountant. They live outside Geneseo, Illinois, with their kids, Sofia (11) and Mateo (7). Their 1960s ranch sits on a high water table. In May, their generic pedestal pump kept cycling despite light rain; then silence. The pit overflowed while they were at a soccer game. They returned to two inches of water and a fried dehumidifier. Their previous budget alarm was nothing more than a beeper on a dying 9V PSAM myers pump battery, and they never heard it upstairs. When we rebuilt their system, we started with a reliable Myers sump pump and paired it with a smart, redundant alarm package that actually reaches you—wherever you are.
In this guide, I break down the 10 alarm essentials I specify with every Myers sump install at Plumbing Supply And More (PSAM): sensor selection, dual-float redundancy, high-decibel sirens, text/call gateways, power fail alerts, battery backups, smart leak detectors, service-friendly wiring, maintenance routines, and integration with the broader water system. If you depend on a dry basement for storage, a home office, or a kids’ playroom, this list will save you thousands and a sleepless summer.
Awards and credentials matter when you’re trusting hardware in a pit. Myers Pumps are backed by Pentair’s engineering, Made in USA quality, UL listed and CSA certified components, and a 3-year warranty that outpaces most of the field. Efficiency and reliability are not just for well pumps; I bring the same Myers discipline I use on Predator Plus Series clean water systems into sump protection—alerts that fire early, redundancies that hold, and components you can actually service. I’m Rick Callahan from PSAM, and what follows are the alarm system setups I call “Rick’s Picks” for homeowners and contractors who want dry basements without babysitting a sump pit.
#1. High-Water Alerts That You Actually Hear – 100–110 dB Sirens, UL Listed Panels, and Dedicated Circuits
When water clears the normal operating level by even an inch, a loud, unmistakable alert buys you the time to act before the carpet wicks moisture. A high-water siren should be loud enough to cut through HVAC noise and closed doors.
Technically, here’s what I specify. A UL listed high-water alarm panel with a float set 2–3 inches above the primary float. The siren should be rated at 100–110 dB, with a wall-mount enclosure located away from the pit’s humidity. I feed the panel off a dedicated 120V Plumbing Supply and More myers pump circuit with a labeled breaker so it doesn’t share loads with freezers or sump motors. A sealed float switch with marine-grade insulation holds up to condensation and occasional splashback. When paired with a Myers sump pump—like a MYSP50 series submersible—the alarm doesn’t just shout; it dovetails with the pump’s natural cycling and lets you know when run time is exceeding norms.
- Marco and Elena Carrizales couldn’t hear their old chirper in the living room. We mounted a 105 dB siren on a joist near the stairwell, and they can hear it from the driveway. That’s the point.
Bold, Audible Siren Placement
Mount the sounder head at chest height, away from the sump lid to avoid moisture damage. If your ceiling is low, angle the speaker toward living areas. Hard-wire the siren; don’t rely on plug-in adapters that get bumped loose.
Proper Float Elevation
Set the alarm float above the primary pump’s on-point but below the top of the basin. I use a cable-tied guide to prevent tangles and keep the float from snagging on discharge fittings.
Test Buttons and Indicator LEDs
Panels with test buttons and status LEDs encourage homeowners to test weekly. Green means power. Red means alarm tripped. Simple, yet overlooked.
Key takeaway: Loud, simple, and hard-wired wins. A good siren transforms a surprise flood into a controlled cleanup.
#2. Dual-Float Redundancy – Primary Float Plus Independent High-Water Sensor With Engineered Spacing
One float fails, you get water. Two floats fail, you’re unlucky—and unprepared. Dual-float redundancy creates an independent verification stage that saves basements when the primary float sticks.
I rig two independent float switches: the pump’s control float and the alarm float, zip-tied to a rigid mounting bracket within the basin. Use staggered heights with a two-inch delta between set points. A Myers water pump running on a reliable float like a wide-angle switch handles start/stop; the alarm float exists solely to yell. Riverine silt, iron bacteria slime, and stray drop-pipe friction are the usual culprits in float failure. Separate wiring harnesses with drip loops prevent nuisance faults and keep wires out of moving parts.
- For the Carrizales system, I moved the alarm float to the discharge side of the basin—opposite the pump body—so it couldn’t get trapped against the pit wall. Since then, no false alarms, no missed lift.
Cable Management Matters
Bundle wires with stainless steel clamps, not plastic that gets brittle. Keep all conductors above the normal slosh line and create drip loops to keep moisture out of the junctions.
Independent Mounting Track
A simple PVC stand-off or aluminum rail keeps floats straight and predictable. If the pump gets torqued during start-up, your floats stay put.
Weekly Manual Lift Test
Instruct the homeowner to lift the alarm float by hand until the siren sounds. Training takes 30 seconds and proves the alarm is live.
Key takeaway: Two floats, two circuits, one dry basement. Redundancy is cheap insurance.
#3. Text, Call, and App Alerts – Wi-Fi/Cellular Gateways With Battery Backup and Event Logs
Noise won’t help when nobody’s home. A smart alarm gateway that sends push notifications, texts, or even calls extends your reach beyond the front door.
I favor UL-recognized gateways with dry-contact inputs that tie directly to the alarm panel. The gateway logs events, has a battery backup (minimum 24 hours), and uses Wi‑Fi with a cellular failover option. Configure the system to alert at high water, power loss, and return-to-normal. Tie it to your Myers sump pump alarm float so “high water” is a precise state, not a guess. Less chatter, more signal.
- When Sofia’s soccer team went to a tournament two towns over, the Carrizales’ phone buzzed: “Power loss at sump.” A storm knocked the feeder. They asked a neighbor to check. He reset the breaker; the message cleared. Zero water inside.
Dry-Contact Simplicity
Use the alarm panel’s normally-closed contacts to drive the gateway. Power interruption opens the circuit—clean, reliable logic.
Notification Tiers
Send power-loss alerts to both homeowners, high-water alerts to the full family group, and service alerts to your contractor. Clear roles prevent missed actions.
Event Log = Diagnostics
Review alarm logs after storms. If high-water triggers repeatedly, the pump may be undersized or the discharge size or check valve needs attention.
Key takeaway: Sirens yell; gateways reach. Pair both. Your basement deserves redundant communication.
#4. Power Outage Alarms – Sump Panels With Dedicated Power-Fail Sensing and Long-Life Batteries
Most floods I’m called to after summer squalls share a root cause: power failed, the sump stopped, the rest is gravity. Power-fail detection is not optional; it’s integral.
A good panel monitors line voltage and throws an immediate power fail alert through both siren chirps and the cloud gateway. Inside the panel, a sealed lead-acid battery or lithium pack powers the electronics and alarm for at least 24 hours. Combine that with a battery backup pump or generator for pumping capacity. Even without a backup pump, a power alert buys time to deploy a portable booster pump or start a generator.
- The Carrizales home now generates a power-fail text within 5–10 seconds of outage. They also installed a small inverter generator with a 15A circuit to run the Myers sump pump and alarm for storm nights.
Panel Battery Health
Replace alarm panel batteries every 2–3 years. Mark the date right on the cover. Cold basements shorten life—test quarterly.
Split Receptacles
Use a split duplex: top half for the primary pump, bottom half for the backup pump. Label clearly. Tie the alarm panel to a separate, non-GFI circuit to avoid nuisance trips.
Generator Interface
Add a small transfer switch or interlock. Never backfeed. A structured plan beats an extension cord scramble at midnight.
Key takeaway: Power-fail alerts transform unknown risk into actionable information. It’s the earliest alarm you can own.
#5. Leak Sensors Beyond the Pit – Floor Pucks, Pipe Clamps, and Dehumidifier Pans That Text You First
Basement floods don’t always come from the sump. Condensate lines, water heaters, and softener bypasses create their own headaches. Extend detection beyond the pit with smart leak sensors.
I deploy wireless pucks under water heaters, by the air handler’s condensate pan, behind softeners, and near the basement walkout threshold. Those pucks talk to the same gateway that watches the sump alarm. Choose sensors with replaceable coin cells and a multi-year life, and keep a written map of locations. A Myers grinder pump in a basement bathroom? Put a sensor near the basin lid and discharge. If that system hiccups, you want the first ping, not the smell.
- Elena asked: “Do we really need pucks behind the freezer?” I nodded. A defrost drain once plugged at my own house—small puddle, big stink. A $30 sensor would’ve saved the hassle.
Prioritize Risk Zones
Hot water heater bases, utility sinks, and hose bib penetrations are prime spots. Carpeting nearby? Double up with two sensors.
App-Based Sensitivity Control
Set high sensitivity where false positives are unlikely, like mechanical rooms. Lower it in damp corners to avoid constant chirping that trains you to ignore alerts.
Routine Mop Tests
Once a month, wet a paper towel and touch the sensor contacts. Confirm the app alert and note response time.
Key takeaway: The sump pit isn’t the only offender. A network of pucks creates true early detection.
#6. The Right Pump Paired to the Right Alarm – Myers Submersibles, Wide-Angle Floats, and 1-1/4" NPT Discharge Discipline
Alarms don’t prevent flooding; pumps do. If the pump is undersized or the discharge is constricted, alarms just arrive earlier to a foregone conclusion. Match reliable alarms with a proven Myers sump pump and correct plumbing.
A properly sized submersible pump with a 1-1/4" NPT discharge, smooth long-sweep fittings, and a full-port check valve will outpace water ingress and cycle in healthy intervals. In basements with extended runs or multiple elbows, step up the pump and use schedule 40 PVC. I favor Myers’ rugged submersibles paired with an independent high-water alarm. For heavy iron content, add a basket intake screen and check the pit quarterly.
- The Carrizales sump line had three sharp 90s and a squealing check valve. We replaced them with two 45s and a spring-loaded check. Run time dropped by 20%, and the alarm hasn’t tripped since installation.
Pump Curve Reality Check
Every pump has a pump curve. If your total dynamic head is high—long vertical lift and friction loss—choose a higher capacity model. Don’t guess.
Dedicated Check Valve Placement
Install the check valve within 6–10 inches of the pump discharge. Air hammer damages floats, pipes, and your sanity.
Quiet Operation Is Diagnostic
A quiet, steady whoosh is healthy. Gurgling, chattering, and long run times signal restrictions or undersizing. Couple a good pump with a smart alarm, not the other way around.
Key takeaway: The smartest alarm can’t bail out a poor hydraulic setup. Start with a Myers workhorse, then add intelligence.
#7. Battery Backup Pump + Alarm Integration – Separate Float Trees, Dedicated Discharge, and Runtime Calculations
When the lights go out or water rushes in, a battery backup sump pump is the second string that wins games. It needs its own alarm logic, separate float, and clear messaging.
I install a DC backup pump with an independent vertical float mounted higher than the primary. The controller should feature high-water and low-battery alarms, text capability through the gateway, and a clear runtime estimate at your draw. Use a separate discharge line if possible to avoid pushing through a stalled check valve. Group the alarms so the app tells you which pump is active.
- After seeing the Carrizales power-loss event, we added a backup pump with a 100Ah AGM battery. At their typical inflow, they gain about 6–8 hours of pumping capacity—enough for most summer storms.
Runtime Math
Estimate inflow rate and pump output at head height. If your basement takes on 20 GPM and your backup moves 35 GPM at 8 feet head, you’re in the safe zone. Size batteries accordingly.
Independent Float Positioning
Keep an inch or two spacing between primary off-point and backup on-point. Never share float switches between pumps.
Low-Battery Alarms
Set low-battery alerts at 40–50% capacity. That gives time to fire up a generator or call for help.
Key takeaway: Backup pumping plus integrated alerts equals true resilience. Don’t bolt a battery on and hope—engineer it.
#8. Service-Friendly Wiring and Terminations – Drip Loops, Marine-Grade Splices, and Labeled Junctions
Alarms fail because of corroded connections more than any other reason. Moist air, splashback, and lazy splices create false positives and dead panels.
Use marine-grade heat-shrink butt connectors and adhesive-lined tubing on all low-voltage ties. Create pronounced drip loops on every cable. Run low voltage and pump power in separate conduits where possible. Terminate in a NEMA-rated junction box with a gasketed cover. Label each conductor—Primary Float, Alarm Float, Backup Pump, Gateway—with an engraved tag, not masking tape.
- Marco loves tidy solutions. We mounted a small panel board with a printed wiring diagram so future service knows exactly what’s there. No guessing, no crossed wires.
Strain Relief at the Lid
Use proper cord grips at the sump cover. If someone lifts the lid, you don’t want wires tugging off terminals.
Keep It Off the Floor
Wire nuts on the concrete invite rust. Mount a backboard and keep all terminations 12 inches above the slab.
Surge Protection
Add a surge protector upstream. Storms that threaten flooding also threaten electronics. Protect the alarm brain.
Key takeaway: Clean wiring prevents ghost alarms and speeds repair. What’s neat works.
#9. Contractor vs DIY: What to Tackle Yourself and When to Call PSAM – Code, GFCI, and Permit Realities
DIYers can install basic sirens and pucks. Integrating power-fail sensing, battery backups, and line-voltage circuits safely often crosses into pro territory. Know the line.
Code requires GFCI protection for receptacles in unfinished basements in many jurisdictions. Some alarm panels hate nuisance trips on GFCI; plan circuits accordingly and consult local code. Tying into existing panels, adding dedicated circuits, or installing a transfer switch should involve a licensed electrician. At PSAM, we package fittings kits and spec sheets so your electrician and plumber aren’t guessing.
- The Carrizales handled the leak sensors themselves. We took care of the dedicated circuit, alarm panel, and battery backup integration. Clean division of labor, perfect result.
Permits and Inspections
If you’re adding circuits or a generator interlock, pull a permit. Inspectors appreciate clear labeling and safe practices. So do insurers.
Documentation Packet
Print the alarm plan, Wi‑Fi credentials for the gateway, and maintenance schedule. Tape it inside the mechanical-room door.
PSAM Phone Support
We walk homeowners and contractors through terminations and float spacing daily. A 10-minute call beats a Saturday flood.
Key takeaway: Do the simple things DIY. Bring in pros for high-voltage and standby power. PSAM bridges both worlds.
#10. Maintenance That Catches Trouble First – Quarterly Tests, Annual Pump-Outs, and Event-Based Reviews
Alarms buy time, but only if they’re alive. A maintenance routine finds problems before storms do.
Quarterly, lift the alarm float, confirm siren and app alerts, and note response time. Check sensor batteries in pucks and the alarm panel battery voltage. Inspect the check valve for chatter and the discharge union for leaks. Annually, pull the pump, clean the pit, wipe the intake screen, and confirm free float movement. If you’ve got a Myers sump pump on duty, it will reward the attention with quiet cycles and long life.
- We put the Carrizales family on a spring and fall checklist. Sofia likes pressing the test button. It’s become a 10-minute family drill that has already caught a weak basement window well seal.
Storm-After Debriefs
Each major rain, review the event log. If your alarm tripped twice, find out why. Data directs action.
Battery Rotation
Mark calendar reminders for replacement. Batteries fail quietly until they don’t.
Professional Annual Check
Have a pro megger-test motors, verify amp draw, and inspect floats. Cheap compared to a restoration bill.
Key takeaway: Test, clean, document. Your alarms and pumps will thank you by staying boring—and boring is dry.
Now, a quick but important comparison from the field that I share with contractors and homeowners considering the full package: pump, alarms, and long-term reliability.
Compared to some competitors, the Myers package simply holds up. Franklin Electric offers solid submersibles, but their ecosystems often lean on proprietary control boxes and dealer-centric service. Myers’ field-friendly, threaded assembly and straightforward alarm integrations mean any qualified contractor can install and maintain the system without specialized hoops. Goulds uses cast iron in several lines that can rust in humid sump environments; 300 series stainless steel in Myers components resists corrosion, keeps floats and brackets cleaner, and pairs well with the damp, high-mineral basements I see across the Midwest. On energy and uptime, the Pentek XE motor mindset—high thrust, thermal overload protection, and stable continuous-duty performance—translates to sump reliability when storms run pumps for hours. Real-world: fewer service calls, cleaner pits, and alarms that stay true. For a homeowner like Marco who needs a weekend of soccer, not shop vacs, a Myers-centered system is worth every single penny.
Comprehensive FAQ: Early Leak Detection and Myers Sump Pump Alarms
1) How do I determine the correct horsepower for my sump and household water demand?
Start with inflow. During heavy rain, measure how quickly water rises in the pit with the pump off for 60 seconds. A 24-inch diameter pit rising 4 inches in 1 minute equals roughly 15–18 GPM inflow. Choose a pump that delivers at least 25–30% more than peak inflow at your lift height (typically 8–12 feet to the discharge). For most basements, a 1/3 HP or 1/2 HP submersible suffices; long runs, multiple elbows, or higher heads may justify 3/4 HP. Match the pump’s pump curve at your Total Dynamic Head (TDH) to ensure capacity. Pair horsepower with a proper 1-1/4" NPT discharge and full-port check valve. I recommend a Myers submersible matched to your TDH—quiet, strong, and efficient. Alarms don’t change HP needs; they confirm performance and warn early if inflow overwhelms capacity.
2) What GPM flow rate does a typical basement need and how do multi-stage impellers affect pressure?
Most basements require 20–40 GPM at 8–12 feet of head during storms. Sump pumps are typically single-stage centrifugal designs optimized for volume at low head, not pressure. Multi-stage impellers are common in submersible well pump designs (e.g., the Predator Plus Series) to build pressure for domestic supply—different application. For sumps, focus on the pump’s GPM at your actual head and plumbing layout. If you’re near the curve’s flat spot, consider upsizing or smoothing your discharge with fewer elbows. Your alarm log will tell you if run times are too long or if high-water alerts occur, signaling a capacity shortfall.
3) How does the Myers approach deliver early detection more reliably than generic alarm kits?
Two keys: better components and smarter integration. Myers-centered systems use UL listed alarm panels, sealed float switches, and robust wiring practices that cut false alarms. When combined with a quality pump and clean plumbing, alarms trip only when they should—at true high water, power fail, or backup pump runs. Add a Wi‑Fi/cellular gateway with battery backup, and you get text/call alerts even during outages. In my installs, nuisance alarms drop by 60–80% versus big-box kits, and actionable alerts go up. Less noise, more signal—that’s how you stop floods early.
4) Why is 300 series stainless steel superior near sumps compared to cast iron?
Basement pits are humid, and some pits aerosolize acidic or iron-laden water. 300 series stainless steel resists corrosion, pitting, and scale far better than cast iron. Brackets, fasteners, and screens last longer, keep floats from sticking, and maintain clean signal paths for alarms. Cast iron can shed rust flakes that snag floats and foul intake screens. For submersible well and sump environments, stainless hardware pays back in fewer callbacks and steadier operation. That durability is a hallmark of Myers gear around wet work.
5) How do Teflon-impregnated self-lubricating components help in a sump system?
In well pumps, Teflon-impregnated staging and self-lubricating impellers resist grit and sand—hugely beneficial in sandy aquifers. In sump contexts, while staging isn’t part of the typical sump design, the philosophy stands: materials that shed friction and resist abrasion translate to smoother run cycles and fewer stall points. When you combine low-friction components with a wide-angle float and clean discharge, the alarm becomes the last resort, rarely tripping because the pump moves water efficiently.
6) What makes the Pentek XE high-thrust motor mindset relevant to sump pumping?
The Pentek XE motor in Myers’ submersible well pump line is designed for sustained, efficient duty with thermal overload protection and lightning protection. For sumps, that same engineering DNA shows up as motors that tolerate long storm runs, start reliably under load, and recover from heat without permanent damage. While a sump motor isn’t the same XE model, the reliability culture is identical: protect windings, manage heat, and keep torque strong. That translates into fewer failures and alarms that only call for help when truly necessary.
7) Can I install a Myers sump alarm system myself, or do I need a contractor?
Basic wireless leak pucks and battery-powered sirens are DIY-friendly. When tying into a UL listed alarm panel, integrating a gateway, or adding a battery backup pump, I recommend a licensed contractor—especially if new circuits, GFCI, or generator interlocks are involved. Many homeowners do the sensors; pros handle line voltage and control terminations. PSAM ships kits with wiring diagrams, labeled harnesses, and phone support so pros finish faster and DIYers avoid missteps.
8) What’s the difference between 2-wire and 3-wire pumps—and does it matter for sump alarms?
That distinction is for well pumps: a 2-wire configuration has internal start components; a 3-wire well pump uses an external control box. For sump pumps, most are simple plug-in single-phase motors with integral or float-based control. The lesson from well systems is simplicity: fewer external components means fewer failure points. For alarms, keep wiring independent, floats dedicated, and contact closures clean. Separation prevents cross-faults that can silence an alarm.
9) How long should a Myers sump pump and alarm system last with proper care?
A quality Myers sump pump should deliver 8–12 years in typical residential duty with annual pit cleaning and a check valve swap every 3–5 years. Alarm panels and sirens can last 10+ years; replace panel batteries every 2–3 years and sensor coin cells as prompted. Gateways last 5–8 years depending on firmware support and network changes. I see Myers-built systems still going strong after a decade when homeowners run quarterly tests and keep discharge plumbing smooth.
10) What maintenance tasks extend lifespan and reduce false alarms?
Quarterly, lift the alarm float, confirm siren and app alerts, and check the check valve for chatter. Vacuum the pit, clear debris from the intake screen, and verify float travel. Annually, pull the pump, inspect the power cord and strain relief, and replace the check valve if it clatters or leaks back. Test gateway battery backup by killing power and confirming a text. These 30–45 minutes per season cut failures and nuisance alerts dramatically.
11) How does Myers’ 3-year warranty compare, and what does it cover?
Myers offers an industry-leading 3-year warranty on many pumps, covering manufacturing defects and performance issues. Budget brands often stop at 12 months. In practice, that extra coverage spans multiple storm seasons—the most punishing periods for sumps. When paired with PSAM’s rapid-ship inventory and documentation, warranty claims are straightforward. You’re not left hunting a receipt under pressure. The warranty doesn’t cover improper installation or flood damage caused by power loss—hence the importance of alarms and backups.
12) What’s the 10-year total cost of ownership for Myers vs budget sump setups?
Upfront, a Myers pump with a proper alarm panel and gateway may run 1.5–2x a budget pump and chirper. Over 10 years, budget systems often see 2–3 replacements, moisture damage risks, and no remote alerts—$1,500–$5,000 in cumulative costs, not counting a single flood. A Myers system typically runs one pump replacement at year 8–12, panel battery swaps, and zero flood losses thanks to early detection. Add energy savings from efficient hydraulics and fewer service calls, and you’re ahead—financially and emotionally. In my book, that’s money well spent.
A second comparison worth your time: generic big-box sump alarm kits versus a Myers-centered, PSAM-engineered package. Budget alarms often use low-grade thermoplastic enclosures, thin conductor leads, and non-sealed floats. Over a damp pit, corrosion creeps, contacts stick, and beepers fail quietly. Myers-grade components and stainless hardware fend off moisture, while pro wiring— marine-grade splices, drip loops, NEMA boxes—keeps signals clean. In the real world, this means a siren you hear, app alerts you trust, and a system your contractor can service without guessing. While Grundfos excels in some premium water supply applications, their ecosystems frequently lean into more complex control strategies. A Myers sump pump paired with straightforward, robust alarms avoids that complexity and reduces total project cost—no extra control boxes, fewer specialty parts. Daily reality: fewer nuisance trips, faster installs, and an alarm that tells the truth. For homeowners who measure value by dry carpet and quiet nights, the Myers + PSAM combo is worth every single penny.
Finally, a third, practical contrast for homeowners who’ve been burned by short-lived gear. Budget lines like Everbilt or Flotec can be tempting. In my files, I see average sump pump lifespans of 3–5 years for entry-level models, with alarm accessories that discolor, corrode, and misreport within two seasons. Myers’ lineage—backed by Pentair—means engineering that prioritizes duty cycle, thermal protected motors, and materials that shrug off damp basements. When storms knock out power, a PSAM-specified gateway with battery backup doesn’t go dark; it calls for help. When iron-rich water fogs the pit, stainless brackets don’t flake into your floats. And when something does need service, the design is field serviceable, not disposable. The ROI becomes obvious after your first close call that ends in an alert, not a cleanup. That peace of mind is worth every single penny.
Conclusion: Early leak detection isn’t one gadget; it’s a system. A robust Myers sump pump, smart high-water siren, power fail alerts, backup pumping, and whole‑room leak pucks combine to buy you time—time to reset a breaker, start a generator, or call a neighbor. The Carrizales family went from soggy carpet to a dry, predictable basement with a Myers-centered design that tells them exactly what’s happening, even when they’re not home. If you’re done gambling with storms, call PSAM. We’ll spec the right Myers pump, size the plumbing, and build an alarm package that keeps your basement boring—and your weekends yours.
