Professional Water Treatment and Well Services

A dependable water system provides water for drinking, cooking, bathing, cleaning, irrigation, livestock, manufacturing, and everyday property operations. Professional well and water treatment services help property owners locate water sources, construct wells, evaluate water quality, install treatment equipment, repair pumps, and maintain the components responsible for delivering water throughout a building.

A private well system may include the borehole, casing, screen, grout, well cap, pump, drop pipe, electrical controls, pressure tank, valves, service line, and water treatment equipment. Each component must be selected and installed according to the well, water source, required flow, building demand, and site conditions.

Three of the most frequently requested services are well drilling and installation, water testing and treatment, and well pump repair. These core services establish new water supplies, identify and address water-quality concerns, and restore pressure or water flow when pumping equipment stops operating properly.

Complete Water Well and Treatment Services

A full-service water treatment and well company can support residential, commercial, agricultural, industrial, and institutional water systems. Services may range from testing a single water sample to drilling a new well and installing a complete pump, pressure, storage, and treatment system.

Popular water treatment and well services include:

• Water well drilling
• Residential well installation
• Commercial well drilling
• Agricultural well drilling
• Irrigation well installation
• Well deepening
• Well rehabilitation
• Well cleaning
• Well disinfection
• Well abandonment and sealing
• Well inspections
• Real estate well inspections
• Well yield and flow testing
• Static water-level testing
• Well camera inspections
• Water testing
• Laboratory water analysis coordination
• Potability testing
• Bacteria testing
• Mineral and contaminant testing
• Water treatment system design
• Water softener installation
• Whole-house water filtration
• Reverse-osmosis systems
• Ultraviolet water treatment
• Iron and manganese filtration
• Sulfur and odor treatment
• Acid-neutralizing systems
• Sediment filtration
• Activated carbon filtration
• Nitrate treatment
• Arsenic treatment
• Tannin and organic-color treatment
• Well pump repair
• Well pump replacement
• Submersible pump installation
• Jet pump repair and replacement
• Pressure tank service
• Pressure switch replacement
• Well control and electrical troubleshooting
• Constant-pressure system installation
• Water storage tank installation
• Booster pump installation
• Well system maintenance
• Emergency no-water diagnostics

Water Well Drilling

Water well drilling creates a borehole into soil, sediment, or rock to access groundwater. The appropriate drilling method depends on geology, expected well depth, groundwater conditions, site access, intended use, and construction requirements.

A well-drilling project may include:

1. Reviewing the planned water use
2. Evaluating the property and drilling access
3. Reviewing available geological and well information
4. Selecting a potential well location
5. Coordinating required approvals
6. Mobilizing drilling equipment
7. Drilling through soil and rock formations
8. Installing casing and well components
9. Sealing the annular space as required
10. Developing and cleaning the well
11. Testing water yield
12. Installing a pump and pressure system
13. Disinfecting the completed well
14. Collecting water samples where required
15. Completing startup and system testing

Well Site Evaluation

Selecting a well location requires consideration of access, topography, drainage, property boundaries, buildings, septic systems, fuel storage, livestock areas, surface water, underground utilities, future construction, and potential contamination sources.

A well should also remain accessible for drilling, pump replacement, inspection, maintenance, and eventual decommissioning.

Well Depth

Well depth depends on geology, groundwater levels, water-bearing fractures or formations, seasonal conditions, desired yield, and local construction requirements. A deeper well does not automatically guarantee better water quality or a higher flow rate.

Actual depth is often determined as drilling proceeds and water-producing zones are encountered.

Drilling Methods

Common water well drilling methods may include:

• Air rotary drilling
• Mud rotary drilling
• Cable-tool drilling
• Dual rotary drilling
• Down-the-hole hammer drilling
• Auger drilling for suitable formations

The drilling method is selected according to rock, soil, depth, borehole stability, site access, and the intended well design.

Well Casing Installation

Well casing supports the borehole and helps separate the water supply from unstable soil, shallow groundwater, and potential surface contamination. Casing may be manufactured from steel, thermoplastic, or another approved material selected for the well conditions.

Casing diameter, depth, wall thickness, joints, sealing, and placement depend on the well design and geological formation.

Well Screens

Well screens allow groundwater to enter while limiting the movement of sand and formation material into the well. Screens are commonly used in sand, gravel, and other unconsolidated formations.

Screen opening size, length, diameter, placement, and gravel-pack design may be selected using formation samples and expected water-production conditions.

Well Grouting and Sealing

Grout seals the space between the well casing and surrounding borehole. Proper sealing helps reduce the movement of surface water and shallow contamination along the outside of the casing.

Grout material, placement method, and sealing depth should follow the well design and applicable construction requirements.

Well Development

Well development removes drilling residue, fine sediment, and loose formation material from the newly constructed well. Development can improve water clarity, well efficiency, and the connection between the well and surrounding water-bearing formation.

Development methods may include:

• Air lifting
• Surging
• Pumping
• Jetting
• Bailing
• Mechanical agitation

Residential Well Installation

A residential well system can supply water for drinking, cooking, bathing, laundry, outdoor faucets, and selected irrigation needs. Proper design considers household size, peak water demand, plumbing fixtures, pump capacity, storage, pressure, and water quality.

A complete residential system may include:

• Drilled or constructed well
• Well casing and cap
• Submersible or jet pump
• Drop pipe and electrical cable
• Underground water service line
• Pressure tank
• Pressure switch
• Control box or variable-frequency drive
• Check valves and isolation valves
• Water treatment equipment
• Sample ports and monitoring components

Commercial Well Drilling

Commercial wells may supply offices, restaurants, apartment communities, hospitality properties, manufacturing facilities, schools, recreational properties, and other nonresidential buildings.

Commercial well design should consider daily demand, peak flow, fire protection where applicable, process water, irrigation, storage, redundancy, water treatment, monitoring, and backup systems.

Agricultural Well Drilling

Agricultural wells may supply irrigation, livestock watering, crop production, greenhouses, washdown, equipment, and other farm operations. These applications can require higher flow rates, larger pumps, storage, pressure regulation, and specialized electrical equipment.

Irrigation Well Installation

An irrigation well supplies water for lawns, landscapes, sports fields, nurseries, farms, and other planted areas. System design should consider irrigation-zone flow, pump capacity, water chemistry, sediment, pressure, storage, and seasonal use.

Water containing iron, minerals, or sediment may stain buildings, pavement, fences, and plants or clog irrigation equipment. Testing can help determine whether filtration or treatment is appropriate.

Well Yield and Flow Testing

A well yield test evaluates how much water a well can produce and how the water level responds during pumping. The test may measure pumping rate, static water level, pumping water level, drawdown, recovery, and total test duration.

Yield information can help determine pump size, storage needs, treatment flow, and whether the well can support the planned demand.

Static Water Level

The static water level is the water level in the well when the pump has not been operating for a sufficient period. It provides baseline information for pump placement and well performance evaluation.

Pumping Water Level

The pumping water level is measured while water is being withdrawn. The difference between static and pumping levels is called drawdown.

Well Recovery

Recovery describes how the water level rises after pumping stops. Recovery time can provide useful information about the water-bearing formation and well performance.

Low-Yield Well Solutions

A low-yield well may produce water more slowly than the building’s peak demand. This does not always mean the well must be replaced. Storage and controls can allow the well to refill gradually while providing water during higher-use periods.

Possible low-yield well solutions include:

• Water storage tanks
• Booster pumps
• Low-water cutoff controls
• Pump protection devices
• Flow management
• Well deepening
• Well rehabilitation
• Hydrofracturing where appropriate
• Drilling a replacement or supplemental well

Well Deepening

Well deepening extends an existing borehole to seek additional water-bearing fractures or formations. Whether deepening is practical depends on casing, borehole diameter, original construction, geology, well condition, access, and expected groundwater conditions.

Deepening does not guarantee improved yield or water quality.

Well Rehabilitation

Well performance can decline because of mineral scale, sediment, biological growth, clogged screens, corrosion, damaged casing, or changes in the surrounding formation. Rehabilitation attempts to restore water flow and improve well efficiency without constructing a completely new well.

Well rehabilitation methods may include:

• Mechanical brushing
• Surging
• Air lifting
• High-velocity jetting
• Chemical treatment
• Screen cleaning
• Sediment removal
• Disinfection
• Pumping and redevelopment

Well Cleaning

Well cleaning removes accumulated sediment, mineral deposits, organic material, and other buildup from accessible well components. The process should be selected according to the well construction, contamination, material compatibility, and reason for cleaning.

Well Disinfection

Well disinfection treats the well, plumbing, and selected water-system components after construction, repair, contamination, flooding, or a positive bacteria result. Chlorination is a common disinfection method.

A disinfection procedure may include:

1. Evaluating the well and contamination concern
2. Calculating the required treatment volume
3. Adding an appropriate disinfectant
4. Circulating treated water through the system
5. Allowing sufficient contact time
6. Flushing the well and plumbing
7. Protecting treatment equipment as required
8. Collecting follow-up samples

Disinfection does not correct every contamination source. Damaged well caps, casing defects, poor drainage, septic problems, flooding pathways, and other vulnerabilities may also need repair.

Well Abandonment and Sealing

Unused, damaged, contaminated, or improperly constructed wells can create safety hazards and direct pathways for contamination to enter groundwater. Proper abandonment seals the borehole with approved materials and procedures.

Well abandonment may include:

• Removing pumps and accessible equipment
• Inspecting available well information
• Removing or perforating selected casing where required
• Cleaning the borehole
• Placing approved sealing material
• Cutting casing below grade where required
• Restoring the ground surface
• Preparing required documentation

Dumping soil, debris, or ordinary concrete into an abandoned well may not provide an adequate groundwater seal.

Well Inspections

A well inspection evaluates visible and accessible components of the water-supply system. Inspections may be performed during property transactions, after water-pressure problems, following flooding or construction, or as part of preventive maintenance.

A well inspection may include:

• Well location and accessibility
• Well casing condition
• Well-cap or sanitary-seal condition
• Surface drainage around the well
• Visible electrical components
• Pump operation
• Pressure-tank condition
• Pressure-switch operation
• Water flow and pressure
• Visible plumbing and valves
• Water treatment equipment
• Water sampling
• Available construction and service records

Real Estate Well Inspections

A real estate well inspection provides buyers, sellers, lenders, and other authorized parties with information about visible well-system conditions, water flow, pressure equipment, and selected water-quality results.

Inspection scope can vary. A basic inspection may not determine well depth, construction details, underground conditions, long-term yield, every contaminant, or future equipment life.

Well Camera Inspections

A specialized camera can be lowered into a suitable well to examine accessible casing, joints, screens, borehole walls, sediment, obstructions, corrosion, and water-entry zones.

Camera inspections may be useful when evaluating:

• Damaged casing
• Well obstructions
• Cloudy or sandy water
• Lost equipment
• Well rehabilitation
• Well deepening
• Declining performance
• Abandonment planning

Water Testing

Water testing identifies physical, chemical, and microbiological characteristics that cannot always be detected by taste, smell, color, or appearance. Test results provide the basis for selecting treatment equipment and determining whether corrective action is needed.

Water may be tested for:

• Total coliform bacteria
• Escherichia coli
• pH
• Hardness
• Iron
• Manganese
• Sulfur-related conditions
• Nitrate and nitrite
• Arsenic
• Lead
• Copper
• Chloride
• Sulfate
• Total dissolved solids
• Turbidity
• Alkalinity
• Fluoride
• Radionuclides where appropriate
• Volatile organic compounds
• Pesticides and herbicides
• Other site-specific contaminants

Laboratory Water Testing

Certified or otherwise appropriately qualified laboratories use established analytical methods to test water for selected contaminants. Sampling containers, preservation, holding times, collection procedures, and chain-of-custody requirements may affect the validity of the results.

Field test kits can provide useful screening information for selected conditions but may not replace laboratory analysis when determining potability, regulatory compliance, real estate requirements, or health-related contamination.

Bacteria Testing

Total coliform bacteria testing is commonly used as an indicator of potential pathways for contamination. A positive result may lead to repeat sampling, well inspection, disinfection, repairs, or additional testing.

Escherichia coli detection can indicate fecal contamination and requires prompt attention. Water use decisions should be based on qualified health and laboratory guidance.

Hardness Testing

Hard water contains dissolved calcium and magnesium. It can contribute to mineral scale, spotting, soap inefficiency, fixture buildup, and deposits inside water heaters and appliances.

Hardness is generally considered an aesthetic and operational concern rather than proof that the water is microbiologically unsafe.

Iron and Manganese Testing

Iron and manganese can cause orange, brown, black, or gray staining, metallic taste, sediment, and discoloration. Treatment depends on concentration, pH, oxidation state, bacterial activity, water use, and other water characteristics.

Sulfur and Odor Testing

Hydrogen sulfide and sulfur-related bacteria may create a rotten-egg odor. Similar odors can also originate from water heaters, plumbing, drains, or other sources.

Testing and diagnosis help determine whether treatment should address the source water, well, plumbing, water heater, or a combination of components.

Lead and Copper Testing

Lead and copper may enter water through source conditions, plumbing materials, fixtures, solder, corrosion, and water chemistry. Sampling procedures and water stagnation time can significantly affect test results.

Nitrate Testing

Nitrate can enter groundwater from fertilizers, wastewater systems, animal waste, and natural sources. It cannot be detected reliably by taste, odor, or appearance.

Water with elevated nitrate requires treatment specifically designed and maintained for nitrate reduction. Ordinary sediment filters, carbon filters, and water softeners may not provide adequate removal.

Arsenic Testing

Arsenic can occur naturally in groundwater and may also be influenced by environmental conditions. It has no dependable taste, odor, or visible warning.

Arsenic treatment depends on concentration, chemical form, pH, competing minerals, water use, and system design.

When Should Well Water Be Tested?

Testing frequency and parameters depend on the well, property, users, nearby land activity, previous results, and applicable guidance. Testing may be appropriate:

• After drilling a new well
• During a property transaction
• After well or pump repairs
• After flooding
• When taste, odor, or color changes
• When sediment appears
• After nearby construction or land-use changes
• When an unexplained illness raises concern
• Before selecting water treatment equipment
• After installing or servicing treatment equipment
• As part of routine water-system maintenance

Water Treatment System Design

Water treatment should be based on test results, flow requirements, household or business demand, plumbing conditions, available space, maintenance needs, and the intended use of the treated water.

A complete treatment system may include:

• Well disinfection
• Sediment filtration
• Oxidation
• Iron and manganese filtration
• Water softening
• Acid neutralization
• Activated carbon
• Reverse osmosis
• Ultraviolet treatment
• Nitrate or arsenic treatment
• Storage and repressurization
• Automatic controls
• Sample ports
• Bypass valves

No single water treatment device removes every possible contaminant. Equipment must be selected for the substances present and maintained according to its design.

Whole-House Water Filtration

Whole-house filtration treats water as it enters the building so selected contaminants are reduced before the water reaches fixtures, appliances, and plumbing.

Whole-house systems may address:

• Sediment
• Iron
• Manganese
• Chlorine where present
• Organic taste and odor
• Sulfur-related conditions
• Acidity
• Hardness
• Selected contaminants with specialized media

Water Softener Installation

A water softener uses ion exchange to reduce calcium and magnesium hardness. Many systems exchange hardness minerals for sodium or potassium ions and regenerate using a brine solution.

Water softener services may include:

• Hardness testing
• Equipment sizing
• Softener installation
• Bypass-valve installation
• Drain connection
• Control programming
• Salt and brine evaluation
• Resin replacement
• Valve repair
• System sanitization

Benefits of Water Softening

Water softening can:

• Reduce scale formation
• Improve soap performance
• Reduce spotting on fixtures and glass
• Limit hardness deposits in appliances
• Improve water-heater operating conditions
• Reduce mineral residue on plumbing fixtures

A softener does not disinfect water and may not remove bacteria, nitrate, arsenic, volatile chemicals, or every form of iron and manganese.

Iron and Manganese Filtration

Iron and manganese treatment may use oxidation, filtration, ion exchange, sequestration, or a combination of methods. The correct approach depends on concentration, water chemistry, flow rate, pH, bacteria, and whether the minerals are dissolved or already oxidized.

Systems may use:

• Air injection
• Oxidizing media
• Chlorine injection
• Hydrogen peroxide injection
• Potassium permanganate regeneration
• Catalytic filtration
• Water softening for suitable conditions

Sulfur and Rotten-Egg Odor Treatment

Hydrogen sulfide can create a noticeable rotten-egg odor and may contribute to staining or corrosion. Sulfur odor may occur in the well, plumbing, water heater, or only at selected fixtures.

Treatment options may include aeration, oxidation, catalytic media, chlorination, hydrogen peroxide, activated carbon, well disinfection, or water-heater service.

Acid-Neutralizing Systems

Low-pH water can be corrosive to metal plumbing, fixtures, water heaters, and appliances. Acid-neutralizing filters use calcite, blended mineral media, or chemical feed systems to raise pH and alkalinity.

Neutralizing media can add hardness to the water, so a water softener may be considered after treatment when appropriate.

Sediment Filtration

Sediment filters remove sand, silt, rust particles, clay, and other suspended material. They may protect pumps, valves, treatment systems, appliances, and plumbing fixtures from abrasive debris.

Sediment treatment options include:

• Spin-down separators
• Cartridge filters
• Bag filters
• Automatic backwashing filters
• Sand separators
• Settling and storage systems

Sediment can originate from the water-bearing formation, damaged well screens, pump placement, corrosion, plumbing, or changes in well operation. Persistent sand may require well evaluation rather than filtration alone.

Activated Carbon Filtration

Activated carbon can reduce selected tastes, odors, chlorine, and organic compounds. Carbon systems may use replaceable cartridges or larger backwashing media tanks.

Carbon does not remove every contaminant and can support microbial growth when neglected. Media or cartridges require scheduled replacement and appropriate maintenance.

Reverse-Osmosis Systems

Reverse osmosis forces water through a semi-permeable membrane to reduce many dissolved substances. It is commonly installed as a point-of-use drinking-water system but may also be designed for larger applications.

A reverse-osmosis system may include:

• Sediment prefiltration
• Carbon prefiltration
• Reverse-osmosis membrane
• Storage tank
• Post-filter
• Dedicated drinking-water faucet
• Automatic shutoff controls
• Drain connection
• Remineralization where desired

Reverse-osmosis performance depends on water pressure, temperature, contaminant levels, pretreatment, membrane condition, recovery rate, and maintenance.

Ultraviolet Water Treatment

Ultraviolet treatment exposes flowing water to UV light to inactivate susceptible microorganisms. UV systems are commonly installed after sediment and other pretreatment so the water remains clear enough for effective light transmission.

UV service may include:

• System sizing
• UV reactor installation
• Prefilter installation
• Lamp replacement
• Quartz-sleeve cleaning
• Sensor maintenance
• Alarm and control service
• System disinfection

UV treatment does not remove sediment, hardness, metals, salts, chemicals, or dead particles. Power and lamp function are necessary for treatment.

Nitrate Treatment

Nitrate treatment may use anion exchange, reverse osmosis, distillation, biological treatment, or another system designed specifically for nitrate reduction.

Equipment should be sized and monitored according to the test result, water use, flow, competing ions, regeneration, and waste-discharge requirements.

Arsenic Treatment

Arsenic treatment may use adsorption media, coagulation and filtration, ion exchange, reverse osmosis, or a combination of processes. Pretreatment may be needed for iron, manganese, pH, or arsenic oxidation state.

Follow-up laboratory testing is important for verifying treatment performance.

Tannin and Organic-Color Treatment

Tannins and natural organic matter can create yellow or tea-colored water. Treatment may include specialized ion exchange, oxidation, activated carbon, membrane filtration, or other processes based on water chemistry.

Water Treatment Maintenance

Water treatment equipment requires routine service to continue operating as designed. Maintenance needs vary by treatment process, water use, contaminant levels, media capacity, and manufacturer requirements.

Maintenance may include:

• Filter cartridge replacement
• Media replacement
• Water softener salt replenishment
• Brine tank cleaning
• Control-valve service
• UV lamp replacement
• Quartz-sleeve cleaning
• Reverse-osmosis membrane replacement
• Storage-tank sanitation
• Chemical feed calibration
• Injector cleaning
• Backwash-flow verification
• Water testing before and after treatment

Well Pump Repair

A well pump lifts or pushes groundwater from the well into the building’s pressure system. Pump problems can result in no water, low pressure, air in the plumbing, short cycling, high electrical use, unusual noise, or intermittent operation.

Well pump diagnostics may evaluate:

• Electrical supply
• Control box
• Pressure switch
• Pressure tank
• Pump motor
• Drop pipe
• Check valves
• Water level
• Pump depth
• Well yield
• Wiring and connections
• Underground service lines

Signs of a Well Pump Problem

• No water from fixtures
• Low or fluctuating water pressure
• Pump running continuously
• Pump turning on and off rapidly
• Air sputtering from faucets
• Cloudy or sandy water
• Unusual pump or control noises
• Tripped electrical protection
• Higher-than-normal electricity use
• Water pressure that changes unexpectedly

Submersible Well Pumps

A submersible pump is installed inside the well below the water level. It pushes water through the drop pipe toward the pressure tank and building plumbing.

Submersible pump service may involve removing the pump, inspecting cable and pipe, testing the motor, replacing check valves, installing new equipment, setting the pump at an appropriate depth, and testing system operation.

Jet Pumps

Jet pumps are installed above ground and use suction to draw water from a suitable well. Shallow-well and deep-well jet configurations use different piping and jet assemblies.

Jet pump problems may involve loss of prime, suction leaks, worn impellers, faulty pressure switches, clogged jet components, damaged foot valves, or insufficient water level.

Well Pump Replacement

Pump replacement may be necessary when the motor fails, components are severely worn, repairs are impractical, demand has changed, or the original pump is incorrectly sized.

Replacement planning should consider:

• Well depth
• Static and pumping water levels
• Required flow rate
• Total dynamic head
• Building demand
• Pressure requirements
• Well yield
• Pump diameter
• Electrical supply
• Drop pipe and cable condition
• Water storage
• Treatment-system requirements

Pressure Tank Service

A pressure tank stores water under pressure and reduces how frequently the pump starts. It helps provide steady flow while protecting the pump from excessive cycling.

Pressure-tank problems may include:

• Loss of air charge
• Ruptured internal bladder
• Waterlogging
• Corrosion
• Leaking fittings
• Incorrect tank size
• Damaged pressure gauge
• Rapid pump cycling

Pressure Switch Repair and Replacement

The pressure switch starts and stops the pump according to system pressure. Corroded contacts, clogged sensing ports, damaged wiring, incorrect settings, or mechanical failure can interfere with operation.

Pressure settings must remain compatible with the tank, pump, plumbing, treatment equipment, and building fixtures.

Constant-Pressure Well Systems

A constant-pressure system adjusts pump speed or uses specialized controls to maintain more consistent water pressure as demand changes. It may reduce noticeable pressure variation when several fixtures operate at the same time.

A system may include:

• Variable-speed pump controls
• Variable-frequency drives
• Pressure sensors
• Compatible pump equipment
• Smaller pressure tanks
• Dry-run protection
• Electrical surge protection

Water Storage Tanks

Water storage can support low-yield wells, high peak demand, irrigation, livestock, commercial operations, and emergency reserves. A storage system allows a well to produce water gradually while a booster pump serves higher short-term demand.

Storage planning may consider:

• Daily water use
• Peak demand
• Well production rate
• Tank material and capacity
• Indoor or outdoor placement
• Freeze protection
• Ventilation and overflow
• Water turnover
• Sanitation
• Level controls
• Booster pump sizing

Booster Pump Installation

A booster pump increases water pressure from a storage tank, low-pressure supply, treatment system, or building distribution system. It may use a conventional pressure tank, variable-speed control, or another pressure-management arrangement.

No-Water Diagnostics

A loss of water may be caused by electrical interruption, pump failure, a damaged pressure switch, low groundwater, broken piping, a frozen line, control failure, or an empty storage tank.

Diagnostic service may include:

• Checking electrical power
• Testing the pressure switch
• Evaluating the pressure tank
• Testing pump controls
• Measuring electrical resistance and current
• Checking water level
• Evaluating pump operation
• Inspecting visible piping
• Testing for underground leaks

Low Water Pressure Diagnosis

Low pressure can result from clogged filters, undersized piping, failing pumps, waterlogged pressure tanks, incorrect switch settings, low well yield, hidden leaks, mineral scale, or excessive simultaneous demand.

The source should be identified before equipment is replaced. Adding a larger pump without evaluating the well and plumbing can create additional problems.

Air and Sediment in Well Water

Air sputtering from faucets may result from low water levels, leaking fittings, damaged drop pipe, well gases, treatment equipment, or plumbing work. Sediment may result from the geological formation, pump placement, screen damage, corrosion, well deterioration, or recent drilling activity.

Persistent air or sediment should be evaluated to determine whether the issue requires well repair, pump adjustment, storage, filtration, or another treatment.

Underground Water-Line Repair

The service line between a well and building can leak because of freezing, corrosion, damaged fittings, ground movement, tree roots, excavation, or aging materials.

Possible signs include reduced pressure, pump cycling when no water is being used, wet ground, air in the plumbing, and unusually high electrical use.

Well Cap and Sanitary Seal Repair

The top of a well should be protected with a secure, compatible cap or seal that limits access by insects, debris, small animals, and surface water. Vents and wire openings should be screened or sealed as designed.

Cracked, loose, missing, or damaged well caps should be replaced. A buried wellhead may require modification where access and construction requirements call for the casing to extend above grade.

Flooded Well Response

Floodwater can carry bacteria, sewage, chemicals, fuel, sediment, and other contaminants into a well. A flooded well should be treated as potentially contaminated until it has been inspected, cleaned, disinfected, flushed, and tested.

Electrical equipment should not be approached or operated when it has been submerged or when standing water creates an electrical hazard.

Residential Water Treatment and Well Services

Residential services help homeowners, landlords, and property managers maintain private wells, pumps, pressure systems, and household water treatment equipment.

Residential services may include:

• New well drilling
• Well inspections
• Water testing
• Well pump repair
• Pressure-tank replacement
• Water softener installation
• Whole-house filtration
• Reverse-osmosis drinking-water systems
• UV treatment
• Iron and odor treatment
• Well disinfection
• Routine system maintenance

Commercial Water Treatment and Well Services

Commercial water systems may serve offices, restaurants, apartment communities, hospitality properties, schools, healthcare environments, manufacturing facilities, recreational properties, and other organizations.

Commercial services may include:

• High-capacity well drilling
• Commercial pump systems
• Water storage
• Booster pumps
• Commercial water treatment
• Water-quality monitoring
• Redundant equipment
• Preventive maintenance
• Well rehabilitation
• System controls and alarms

Well and Water System Maintenance

Routine maintenance can identify pressure problems, worn pump components, failed treatment media, damaged well caps, leaks, contamination pathways, and changes in water quality before a complete system failure occurs.

Helpful maintenance services include:

• Wellhead inspection
• Pump performance evaluation
• Pressure-tank testing
• Pressure-switch inspection
• Leak inspection
• Water flow testing
• Water-quality testing
• Filter replacement
• Softener maintenance
• UV lamp replacement
• Reverse-osmosis service
• Treatment-media evaluation
• Storage-tank cleaning
• System sanitization
• Maintenance recordkeeping

Water System Service Process

1. Initial evaluation: Water use, system symptoms, well history, water quality, pressure, and service needs are reviewed.
2. Well and equipment inspection: Accessible casing, cap, pump controls, pressure tank, plumbing, and treatment equipment are evaluated.
3. Diagnostic testing: Water level, pump operation, flow, pressure, electrical components, and water quality may be tested.
4. Service recommendations: Drilling, repair, replacement, cleaning, disinfection, treatment, or maintenance options are identified.
5. System design: Pumps, tanks, filters, treatment equipment, storage, and controls are selected for the intended demand.
6. Installation or repair: The selected well, pump, pressure, plumbing, or treatment work is completed.
7. Startup and testing: Flow, pressure, electrical operation, treatment performance, and visible leaks are checked.
8. Water sampling: Follow-up samples may be collected to evaluate treatment or confirm water-quality conditions.
9. Maintenance planning: Testing intervals, filter changes, pump inspections, and future equipment service are documented.

Frequently Asked Questions About Water Wells and Treatment

What are the most common well and water treatment services?

Well drilling, water testing and treatment, and pump repair are among the most frequently requested services. Well inspections, pressure-tank replacement, water softeners, filtration, well disinfection, and system maintenance are also commonly needed.

How deep does a water well need to be?

Well depth depends on geology, groundwater levels, water-bearing formations, desired yield, site conditions, and construction requirements. The final depth may not be known until drilling reaches a suitable water source.

Does a deeper well provide cleaner water?

Not necessarily. Water quality depends on geology, well construction, groundwater movement, nearby contamination sources, and other conditions. Water should be tested regardless of well depth.

How long does well drilling take?

The drilling timeline depends on depth, geology, weather, access, equipment, casing, water yield, development, pump installation, inspections, and water testing.

How often should well water be tested?

Testing frequency depends on the well, previous results, property conditions, users, nearby land activity, and applicable guidance. Additional testing may be appropriate after flooding, repairs, changes in taste or odor, or nearby construction.

Does clear water mean it is safe to drink?

No. Bacteria, nitrate, arsenic, lead, and other contaminants may be present without changing the water’s color, taste, or odor. Laboratory testing is necessary to evaluate selected water-quality concerns.

What is hard water?

Hard water contains dissolved calcium and magnesium. It can create scale, spotting, soap residue, and deposits inside fixtures, water heaters, and appliances.

What does a water softener remove?

A water softener primarily reduces calcium and magnesium hardness through ion exchange. It may remove selected forms of iron under suitable conditions but does not disinfect water or remove every contaminant.

What causes rotten-egg odor in well water?

A rotten-egg odor may result from hydrogen sulfide, sulfur-related bacteria, water-heater conditions, plumbing, or other sources. Testing and system evaluation help identify the cause.

What causes orange stains from well water?

Orange or reddish-brown staining is commonly associated with iron. Proper treatment depends on iron concentration, pH, oxidation state, bacteria, flow, and other water characteristics.

Why is there sand in well water?

Sand may enter because of the geological formation, damaged well screens, incorrect pump placement, well deterioration, high pumping rates, or recent drilling activity.

What causes a well pump to cycle rapidly?

Rapid cycling may result from a waterlogged pressure tank, lost air charge, damaged internal bladder, incorrect pressure settings, leaking plumbing, or pump-control problems.

Why has the property lost water?

No-water conditions may be caused by electrical failure, pump failure, a pressure-switch problem, damaged wiring, low groundwater, broken piping, frozen lines, or an empty storage tank.

Can a well run dry?

A well can experience water levels below the pump intake or produce water more slowly than demand. Seasonal groundwater changes, drought, nearby pumping, well condition, and geology can affect availability.

Can a low-yield well be improved?

Possible solutions include storage tanks, flow management, pump protection, well rehabilitation, deepening, hydrofracturing where suitable, or construction of a replacement well. Results vary by geology and well condition.

Does ultraviolet treatment remove minerals?

No. UV treatment inactivates susceptible microorganisms but does not remove hardness, sediment, iron, salts, chemicals, or other dissolved contaminants.

Does reverse osmosis remove every contaminant?

No treatment removes every substance under all conditions. Reverse osmosis reduces many dissolved contaminants, but performance depends on the membrane, pretreatment, pressure, maintenance, and specific water chemistry.

Should water be retested after treatment installation?

Yes. Follow-up testing can help verify whether the selected system is reducing the target contaminant and operating as intended.

What should happen after a well floods?

The well should be treated as potentially contaminated. Inspection, cleaning, disinfection, flushing, and laboratory testing may be needed before normal use resumes.

Can an unused well be filled with dirt?

Ordinary soil or debris may not seal a well correctly. Proper abandonment typically requires approved sealing materials and procedures designed to protect groundwater.

Complete Water Solutions From the Well to the Faucet

Professional water treatment and well services address the complete system responsible for locating, pumping, storing, pressurizing, treating, and delivering water. Accurate diagnosis and water testing are essential because pump problems, low pressure, staining, odor, sediment, and contamination can have several different causes.

Whether a property needs a new well, water-quality testing, a water softener, whole-house filtration, reverse osmosis, well pump repair, pressure-tank replacement, well rehabilitation, or complete system maintenance, professional well and treatment services can provide a customized solution for dependable water supply and improved water quality.