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Well Pump Services in Central Oregon

Installation, repair, certified water and flow testing, system design, pressure tanks, and agricultural pumping — for wells across Deschutes, Jefferson, and Crook counties.

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What We Offer

Complete well and water services for residential, commercial, and agricultural customers across Central Oregon.

If your home sits outside city water anywhere in Central Oregon, a well pump is the single piece of equipment standing between you and running water. There are around sixteen thousand exempt domestic wells in Deschutes County alone, and most of the people who own one think about the pump exactly twice: on the day it is installed, and on the day it stops.

H&H Pump has worked on those systems since 1987. We handle the whole system rather than one part of it — the pump downhole, the drop pipe and wiring, the pressure tank and controls at the surface, and the testing that tells you what the well is actually doing. We are licensed, bonded, and insured (CCB# 195830, CTI# 7-88), and the crew that quotes your job is the crew that does it.

The sections below go into real depth on each service: the warning signs worth acting on, what the work involves, and the things specific to Central Oregon — volcanic geology, a water table that has been falling for decades, irrigation district schedules, and Oregon’s rules on well testing and water rights — that change the answer here compared with almost anywhere else.

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Well Pump Installation Pump Service & Repair Water & Flow Testing System Design Pressure Tanks & Controls Agricultural & Irrigation

Well Pump Installation

Whether you're building a new home, replacing an aging system, or adding capacity for a growing operation, H&H designs and installs well pump systems built to perform in Central Oregon's conditions. We work with all major brands and handle everything from permitting to final startup.

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Most people don’t think about their well pump until it stops. If yours is nearing the end of its life, replacing it on your schedule — rather than on the day the water quits — is cheaper, less disruptive, and lets you correct anything that was undersized or wrong with the original installation.

Signs it’s time to replace rather than repair

  • The pump is past 10–15 years old and has already needed more than one repair.
  • Water pressure dropped and stayed down even after a repair.
  • The motor pulls more current than its nameplate rating, quietly inflating your power bill.
  • The pump short-cycles even with a healthy, correctly precharged pressure tank.
  • Sand or grit in the water — abrasives wear impellers fast, and a worn pump only gets worse.
  • Household demand has outgrown the pump: a bathroom added, irrigation extended, livestock or a shop put on the same system.
  • The well’s water level has dropped over the years and the pump now sits uncomfortably close to the pumping level.

What a well pump installation actually involves

  1. Assessment. Well depth, static water level, casing diameter and condition, measured yield, and the existing wiring and controls. Where a well report exists, it tells us a great deal before we ever pull anything.
  2. Sizing. Two numbers drive the choice: the flow you need in gallons per minute, and total dynamic head — the combined lift, elevation, friction loss, and working pressure the pump has to overcome. A pump is matched to the well’s capability as much as to the house.
  3. Equipment selection. Submersible or jet, horsepower, single or three phase, conventional pressure switch or a constant-pressure variable-speed controller.
  4. Pulling the old pump. Drop pipe, wire, torque arrestor, safety rope, and pitless adapter all get inspected while the well is open. Replacing tired drop pipe and wire during the same trip costs far less than a second pull later.
  5. Setting depth. The new pump goes deep enough to stay well below the pumping level with margin to spare, and high enough above the bottom of the well to avoid drawing sediment.
  6. Electrical and controls. Control box or drive, conductor sizing for the run, disconnect, and protection devices.
  7. Pressure tank and switch. Precharge set just below the pump’s cut-in pressure and the switch configured — the step most often skipped, and the one that decides how long the new pump lasts.
  8. Startup and testing. Draw-down behavior, amp readings under load, delivered pressure, and disinfection where the well was opened.

What’s different about installing a pump in Central Oregon

The upper Deschutes Basin sits on layered volcanic rock — basalt flows, cinders, and ash, permeable enough that the aquifer exceeds a thousand feet of thickness in places. That geology is generous with water, but it is not uniform. Depth to water can differ sharply between two properties on the same road, which is why sizing off a neighbor’s pump is a poor substitute for measuring your own well.

Long-term monitoring by the USGS and the Oregon Water Resources Department has recorded declining groundwater levels through the central part of the basin around Bend and Redmond since the 1990s, on the order of about a foot a year in places and faster in recent years. The practical consequence for pump owners is simple: a pump set at a depth that was comfortable twenty years ago may no longer have much room beneath it. A replacement is the natural moment to reset that depth rather than swap like for like.

Winter matters too. The connection between well and house belongs below frost depth at the pitless adapter, exposed equipment needs a heated or well-insulated enclosure, and anything that can hold standing water needs to drain.

Before an installation, it is worth pulling the well report filed with the Oregon Water Resources Department when the well was drilled. It records the constructed depth, casing, static level, and the yield measured at completion — a useful baseline for judging how the well has changed.

Common questions

Usually, yes — if they are the same age as the pump that just failed, they have been submerged just as long. The pipe, wire, torque arrestor, and rope are a small fraction of the job cost while the well is already open, and a failure in any one of them means pulling everything back out. We will tell you what we find and what genuinely needs replacing rather than replacing on principle.

In most cases, yes. A variable-speed drive adjusts pump speed to match demand, so pressure stays steady whether one tap or four are running, and the motor starts far less often. It suits homes with irrigation, multiple bathrooms, or long pipe runs where conventional systems swing noticeably. Whether it makes sense depends on your well’s yield, existing wiring, and how you actually use water — worth a conversation rather than a blanket recommendation.

Not necessarily, and installing one is an expensive way to find out. Weak pressure just as often traces to a waterlogged pressure tank, a pressure switch set low or drifting, a partly closed valve, undersized or scaled supply piping, or a clogged filter. Diagnosis first — a larger pump forced onto a well that cannot supply it creates new problems instead of solving the old one.

Pump Service & Repair

Lost water pressure? Pump cycling on and off? Strange noises? Our technicians have seen it all. We diagnose and repair submersible pumps, jet pumps, booster pumps, and control systems. We service all major brands and carry common parts on the truck to minimize downtime.

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A well system gives you plenty of warning before it fails outright, provided you know what you are listening for. Most of the calls we take describe one of a handful of symptoms, and each points at a fairly short list of causes.

What the symptom usually means

  • No water at all. Before the pump itself, suspect a tripped breaker, a failed pressure switch, a burnt control-box capacitor, or a water level that has dropped below the pump intake.
  • Sputtering, spitting air at the tap. The pump is getting air — either the water level has fallen to the intake, or there is a break in the drop pipe.
  • Pressure builds, then collapses almost immediately. Far more often a waterlogged pressure tank with a failed bladder than anything wrong with the pump.
  • The pump runs and never shuts off. A leak somewhere in the system, worn impellers no longer able to build cut-out pressure, a faulty switch, or a well that can no longer keep up with demand.
  • Rapid on-off cycling every few seconds. Almost always the pressure tank — lost air charge or a ruptured bladder. This one is urgent: every start is hard on a motor, and a short-cycling system can destroy a healthy pump in weeks.
  • Sandy, cloudy, or discolored water. A worn pump, a pump set too close to the bottom, or a problem with the well itself.
  • An electric bill that climbed with no change in habits. The pump is running longer or drawing harder than it should.
  • A breaker that keeps tripping. Excess motor current, a wiring fault, or insulation breaking down in the drop wire.

How we diagnose before we pull anything

  1. Confirm power, breaker, disconnect, and controls — a meaningful share of “dead pump” calls never get past this step.
  2. Check the pressure switch and test the tank’s precharge with the system drained. A tank fault is cheap to fix and frequently the whole problem.
  3. Measure amp draw against the motor’s nameplate rating under load.
  4. Test insulation resistance on the motor and drop wire. This tells us whether the fault is genuinely downhole before anyone commits to a pull.
  5. Measure static and pumping water levels to see whether the well, rather than the pump, is what changed.
  6. Only when the evidence points below ground do we pull the pump.
  7. Report back on what failed and why — an undersized tank, a wiring fault, or a dropping water level will take out a brand new pump just as happily as it took out the old one.

Repair or replace?

There is no formula, but the honest version goes roughly like this. A young pump with a failed capacitor, switch, or tank is a repair, every time. A pump well into its second decade that has already been worked on, sitting in a well whose water level has dropped, is usually money better spent on replacement — because the next failure is not far behind, and each pull carries its own cost.

The awkward middle ground is a pump around ten years old with a single clear fault. There we will give you what we found, what the repair costs, and what replacement costs, and let you decide. What we will not do is quietly replace a system that only needed a part.

Common questions

That is short cycling, and it is nearly always the pressure tank rather than the pump. The tank holds a cushion of compressed air that lets you draw water without the pump restarting. When the bladder fails or the air charge is lost, there is no cushion left, so the pump starts and stops constantly. It is an inexpensive fix and an expensive thing to ignore — the repeated starts are what wear a motor out.

Yes. If demand outpaces what the aquifer can feed back into the well, the water level draws down to the pump intake and the pump starts pulling air. Rest it and the level recovers. Recurring episodes are a real warning, though — it means the well’s sustained yield no longer comfortably covers your demand, and the answers range from adjusting pump depth to adding storage. Running a pump dry repeatedly will destroy it.

Sometimes. If the failure is in the control box, the switch, or the tank, that is a modest repair and the pump may run for years yet. If the motor or the pump end itself has gone, the calculation shifts, because most of the cost is in the labor of pulling and resetting rather than the hardware. We give you both numbers and what we saw in the well, and you make the call.

Water & Flow Testing

Certified water and flow testing for real estate transactions, new homebuyers, annual well checks, and agricultural planning. We measure well yield, static water level, pump output, and water quality. Reports are provided in a clear format ready for lenders, buyers, and county records.

Schedule Water Testing

Well water testing gets requested for two very different reasons: because Oregon law requires it during a property sale, or because someone wants to know what they are drinking and what their well can actually deliver. The testing overlaps, but what you need from it does not.

Oregon requires a well test when you sell a home

Under Oregon’s Domestic Well Testing Act (ORS 448.271), when you sell or exchange real estate that includes a well supplying groundwater for domestic use, the seller must have the well tested once an offer to purchase is accepted. Three tests are required by statute: arsenic, nitrate, and total coliform bacteria.

The results go to the buyer, and to the Oregon Health Authority along with OHA’s Real Estate Transaction form, within 90 days of receiving them. Results associated with a sale are generally treated as valid for one year. Wells used only for irrigation, spring-fed systems, and wells on undeveloped land fall outside the requirement.

Arsenic is on that list because it occurs naturally in Oregon groundwater rather than because of anything anyone did to the well — which is exactly why it is worth testing for rather than assuming. Check the Oregon Health Authority’s Domestic Well Safety program for current forms and guidance, since the paperwork is theirs and it does get updated.

What flow and yield testing tells you

  • Static water level — where the water sits when the pump has been off.
  • Pumping level and draw-down — how far the level falls while the pump runs, and how quickly it stabilizes.
  • Recovery rate — how fast the well refills once the pump stops.
  • Sustained yield in gallons per minute over a timed test, which is the number that actually matters. A well that gives 20 gpm for four minutes and 3 gpm thereafter is a 3 gpm well.
  • Delivered output at the wellhead compared with what the installed pump ought to be producing — a direct read on pump condition.

When to test besides a sale

  • Buying a home on a well. Do it inside your inspection period, and ask for flow as well as the statutory water quality panel. The seller’s required tests say nothing about whether the well produces enough water for your household.
  • Annually. State and federal guidance for private wells is to test for total coliform bacteria and nitrate every year, and for arsenic periodically. Nothing about a well tells you by taste or appearance that any of the three has changed.
  • After a change. Flooding, a nearby spill, work on the well or septic system, or any new taste, smell, or color.
  • Before you expand. Adding irrigation, livestock, a shop, or a second dwelling is a demand question, and demand questions are answered with a flow test.

Why it matters more here than in some places

Deschutes County has on the order of sixteen thousand exempt domestic wells, and groundwater levels through the middle of the basin have been trending down for decades. A well that comfortably supplied a household in the 1990s may be delivering measurably less today. A flow test turns that from a worry into a number — and a number is something you can plan around, whether that means resetting pump depth, adding storage, or simply knowing where you stand before you buy.

Common questions

The statute places the duty to have the well tested on the seller. Who ultimately pays for it is a commercial term the parties can negotiate in the sale agreement like any other, and it is commonly addressed in the private well addendum. The legal obligation to test and to report the results, though, sits with the seller regardless of who writes the check.

For a real estate transaction, results are generally treated as valid for one year. Outside a sale there is no expiry as such — but a two-year-old coliform result tells you about the well as it was two years ago, which is why the standing recommendation is to retest bacteria and nitrate annually.

It is not automatically a deal-breaker, and it is not usually a mystery either. Total coliform frequently traces to a wellhead or casing problem that can be found and corrected, followed by disinfection and a retest. Arsenic and nitrate are water-quality questions with established treatment options, chosen according to the level found. The important part is knowing, because the alternative is drinking it and not knowing.

System Design

For new construction, subdivision development, commercial projects, and complex agricultural setups, H&H provides complete pump system design. We calculate demand, specify equipment, size piping and pressure tanks, and coordinate with drillers and contractors to deliver a system that works right from day one.

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Plenty of properties are served perfectly well by a correctly sized pump and a pressure tank. Some are not — and on those, the difference between a designed system and a pump chosen by rule of thumb shows up as chronic low pressure, a pump that fails early, or a well that cannot keep up in August.

Projects that need a designed system

  • New construction, where nothing exists yet to measure and everything is still adjustable.
  • Shared wells serving more than one home, where simultaneous demand and metering both need thinking through.
  • Long runs or significant elevation change between the well and the point of use — common on Central Oregon acreage.
  • Low-yield wells, where the answer is storage and a booster rather than a bigger pump.
  • Commercial buildings, where demand comes off fixture counts and code rather than guesswork.
  • Properties combining domestic supply with irrigation, stock water, or a shop.
  • Sites with fire-protection storage requirements.

What the design has to account for

  1. Peak demand. Not average use — the worst realistic simultaneous case: fixtures running together, irrigation zones, livestock.
  2. What the well can actually give. Sustained yield and recovery rate. This is the ceiling, and no pump selection raises it.
  3. Total dynamic head. Lift from the pumping level, elevation gain to the point of use, friction loss through pipe and fittings, and the working pressure you want at the tap.
  4. Pipe sizing. Undersized pipe converts pump energy into friction and heat. On long runs this dominates everything else.
  5. Storage and boosting where yield falls below peak demand — sizing to daily volume instead of instantaneous flow.
  6. Pressure control strategy. Conventional tank and switch, or variable-speed constant pressure, chosen on how the water is used.
  7. Electrical service. Available capacity, single or three phase, conductor sizing over the run, and protection.
  8. Freeze protection and housing for anything above ground.
  9. Serviceability. Unions, isolation valves, a gauge you can read, and access — so the next repair is an hour rather than a day.

Low-yield wells are a design problem, not a dead end

A well producing three gallons a minute sounds alarming next to a household’s peak demand. But three gallons a minute is over four thousand gallons a day, comfortably more than most homes use. The mismatch is one of timing, not volume — and timing is what a storage tank fixes. Fill the tank slowly and continuously at the well’s own pace, then draw from it at whatever rate the house wants through a booster pump.

This matters in Central Oregon specifically, because declining water levels have left some older wells producing less than they did when they were drilled. Storage-and-booster is often a far better answer than chasing the water down with a deeper setting or a larger pump the well cannot feed.

Water rights and what a domestic well may be used for

Oregon treats certain groundwater uses as exempt from the water-right permitting process — household use, and a limited amount of noncommercial lawn and garden irrigation. Irrigating commercial crops, or acreage beyond the exempt allowance, generally requires a water right. The Legislature has revisited these exemptions recently, so anyone planning a system around a domestic well should confirm the current rules directly with the Oregon Water Resources Department. It is a much cheaper conversation to have during design than after installation.

Common questions

Often, yes, and it is common on Central Oregon acreage — but it needs designing rather than simply teeing off. The system has to handle both households drawing at once, which usually points toward storage and a booster rather than a single pump sized to the sum of two peaks. There are also legal and practical questions to settle: what the well is authorized to supply, how the shared costs and maintenance are handled, and who has access. Worth sorting out before the pipe goes in the ground.

Because a pump does not simply push water — it works against total dynamic head, and elevation is one of the largest parts of it. Roughly every 2.31 feet of vertical rise costs you a pound per square inch of pressure. A house a hundred feet uphill of the well is starting more than forty psi in the hole before friction loss is even counted. Get that wrong at the design stage and no amount of adjustment at the pressure switch will fix it.

Pressure Tanks & Controls

A properly sized and functioning pressure tank is critical to your pump's lifespan and your water supply's consistency. H&H replaces aging tanks, upgrades undersized systems, and installs modern control panels and protection devices to keep your system running efficiently.

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The pressure tank is the least glamorous part of a well system and the one most likely to be quietly killing your pump. It is also the cheapest component to put right, which makes it the first thing worth checking when something feels off.

Signs the tank is the problem

  • The pump switches on and off every few seconds while a tap runs.
  • Pressure surges and drops noticeably during a shower.
  • The tank feels heavy or full of water, or can be rocked easily when it should be firmly weighted at the base only.
  • Water sprays from the air valve on top of the tank — a definitive sign the bladder has ruptured.
  • Visible rust at the seam or the base.
  • A pump that was replaced recently and failed again early. An undersized or dead tank is one of the more common reasons a new pump does not last.

How a pressure tank actually works

Inside the tank, a bladder or diaphragm separates a charge of compressed air from the water. When the pump runs, water enters and compresses the air further. When you open a tap, that compressed air pushes the water back out — and the pump stays off until pressure falls to the cut-in setting. The useful quantity is not the tank’s total volume but its drawdown: the water you can actually draw between the pump switching off and switching back on.

The air charge is what makes any of this work, and it has to be set correctly: with the system drained of pressure, the precharge is set just below the pump’s cut-in pressure — about 2 psi below is the usual target. Set it wrong, or let it leak away, and drawdown collapses toward nothing. The pump then starts and stops continuously, and it is the starting that wears motors out, not the running.

Controls, and the protection worth having

  • Pressure switch. Sets cut-in and cut-out — commonly 30/50 or 40/60 psi. Contacts pit and burn over time and the settings drift.
  • Low-pressure cut-off. Shuts the pump down instead of letting it run dry when the well cannot keep up. On a well with a falling water level this is the difference between an inconvenience and a destroyed pump.
  • Control box. On three-wire systems, this houses the start capacitor and relay. A failed capacitor presents exactly like a dead pump and costs a fraction as much.
  • Constant-pressure controllers. A variable-speed drive holds steady pressure across changing demand and dramatically reduces motor starts.
  • Surge and lightning protection. Rural services see surges, and a submersible motor several hundred feet down is an expensive thing to lose to one.
  • Pump protection devices. Monitor current draw and shut down on dry-run, overload, or locked rotor before the motor is damaged.

Common questions

Switch off power to the pump, then open a tap and drain the system until the gauge reads zero — the reading is meaningless with water pressure still on the tank. Then check the air valve on top of the tank with an ordinary tire gauge. It should read a little under your pump’s cut-in pressure, roughly 2 psi below. If water comes out of that valve instead of air, the bladder has failed and the tank needs replacing. If it simply reads low, it may only need air — though a tank that keeps losing its charge is telling you something.

Bigger than most installations are given, generally. Sizing works backwards from how long you want the pump to run each time it starts: a longer run cycle means fewer starts and a longer motor life. That depends on the pump’s flow rate and your cut-in and cut-out settings, not on the size of the house. The tank that came with a builder-grade installation is often the smallest that would function, which is a false economy paid for later by the pump.

Agricultural & Irrigation

From small hobby farms to large-scale pivot irrigation systems, H&H has the equipment and experience to handle high-volume agricultural pumping in Central Oregon's demanding conditions. We design, install, and service systems for ranches, orchards, vineyards, and row crop operations.

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Agricultural pumping is a different discipline from domestic work. The duty cycle is longer, the volumes are larger, the consequences of a mid-season failure are measured in crop rather than inconvenience, and in Central Oregon it is tangled up with irrigation district water and Oregon water law.

What we work on

  • Pivots, wheel lines, hand lines, and big guns.
  • Drip and micro-irrigation for orchards, vineyards, and nursery stock.
  • Stock water systems, troughs, and frost-free hydrants.
  • Booster and transfer pumps, and canal or pond intakes.
  • Turbine and high-volume submersible installations.
  • Screening and filtration on surface water, where intake protection decides how long the rest of the system lasts.

Irrigation district water and well water together

Eight irrigation districts operate in the Deschutes Basin under the Deschutes Basin Board of Control — Arnold, Central Oregon, Lone Pine, North Unit, Ochoco, Swalley, Three Sisters, and Tumalo. Most deliver surface water on a seasonal schedule, which means a great many Central Oregon operations run district water in season and depend on a well outside it, or lean on a well to cover shortfalls in a curtailment year.

The ongoing canal-piping and modernization work across the districts has changed delivery pressure on some laterals. That is worth knowing before specifying a booster pump: a system designed around the head that used to arrive at the turnout may be wrong for the head that arrives now, in either direction.

Sizing for agricultural duty

  1. Duty cycle first. A pump running twelve to sixteen hours a day through the season is a fundamentally different specification from one that runs in short household bursts.
  2. Friction loss over distance. On long mainlines this is frequently the largest single component of total head, and the easiest to underestimate.
  3. Power. Three-phase service where it is available, and a properly sized converter or drive where it is not.
  4. Redundancy where a failure is unaffordable. The cost of a standby arrangement is worth weighing against what a week without water costs in July.
  5. Seasonal shutdown and startup. Winterization, draining, and a proper spring commissioning rather than simply energizing it and hoping.

Water rights come first

Oregon’s exempt groundwater uses cover household supply and a limited amount of noncommercial lawn and garden irrigation. Irrigating commercial crops, or acreage beyond that allowance, generally requires a water right — and the Legislature has revisited these exemptions recently, so the current position is worth confirming directly with the Oregon Water Resources Department. We would much rather design around what you are actually authorized to use than build a system that cannot legally be run.

Common questions

Yes. Booster and transfer pumps, canal and pond intakes, and the screening and filtration that protect them are all part of the work. Surface water brings its own problems — debris, silt, algae, and a supply that changes through the season — and intake protection is usually what determines whether the pump downstream has a long life or a short one.

Within limits, and the limits are legal before they are mechanical. Oregon’s exempt use covers household supply plus a restricted amount of noncommercial lawn and garden watering; commercial irrigation or larger acreage generally needs a water right. Those rules have been under active review, so confirm the current position with the Oregon Water Resources Department. Separately, there is the practical question of whether the well’s sustained yield can carry irrigation on top of household demand — which is what a flow test answers.

Our Process

How It Works

Simple, straightforward service from your first call to job completion.

1

Call or Contact Us

Reach us by phone at 541-382-3690 or fill out our online form. Tell us what you're dealing with and we'll get you scheduled.

2

On-Site Assessment

One of our experienced technicians visits your property to diagnose the problem or assess your project requirements.

3

Clear Estimate

You receive a clear, upfront estimate before any work begins. No surprises, no hidden fees.

4

Work Gets Done

Our crew completes the job professionally and cleanly. We don't leave until your system is operating correctly.

Keep Reading

Where We Work

Every service on this page is available throughout Deschutes, Jefferson, and Crook counties. Bend is home — these are the other communities we cover.

Well pump service in Redmond Well pump service in Prineville Well pump service in Sisters Well pump service in Madras Well pump service in La Pine Well pump service in Sunriver

Well Pump FAQ

Costs, pump lifespan, emergency service, and the questions we get asked most often on the phone.

About H&H Pump

Who we are, how long we have been doing this in Central Oregon, and the licenses we hold.

Request a Service Call

Tell us what your system is doing and we will get back to you within one business day.

Ready to Get Started?

Call us at 541-382-3690 or send us a message. We serve all of Central Oregon.

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