Frequently Asked Questions

Often, yes. Heat pumps deliver heat at lower flow temperatures than a boiler, so undersized radiators won’t keep rooms warm. Many homes also need a new hot water tank. The heat loss assessment identifies which upgrades are needed before the estimate is written.

A correctly sized system will. The key is accurate heat loss calculation and a backup heat strategy for the coldest nights. An undersized unit or one without a backup plan is the reason some homes feel cold, not the technology itself.

An aging system that fails mid-winter leaves you without heat while emergency replacements are arranged, often at higher cost and with fewer equipment options. Scheduling an assessment before a breakdown gives you time to plan the upgrade properly.

No. These systems provide both heating and cooling from a single outdoor unit. The exact setup depends on the equipment selected and how the indoor side is configured during installation.

It starts with a home assessment and heat loss calculation, then moves to equipment selection, outdoor unit placement, pipework, and electrical work. The job finishes with refrigerant charging, weather compensation setup, and a full commissioning test to confirm the system runs correctly.

The underground loop is rated for 50-plus years because no mechanical parts are buried. The indoor heat pump unit has a shorter service life and follows a standard maintenance schedule. The long loop lifespan is a key part of the payback calculation for the higher upfront cost.

Larger lots can usually support a horizontal loop field trenched at four to six feet deep. Smaller lots may need vertical drilling instead. A site evaluation measures your available area and soil conductivity to determine which loop type fits before any ground work is planned.

A system that is already failing will cost more in emergency repairs and may leave you without heating or cooling mid-season. Sizing and planning a geothermal loop takes time, so starting the site evaluation while the existing system still runs gives you options rather than forcing a rushed decision.

Yes, but the home needs compatible ductwork or a distribution system the indoor unit can connect to. A load calculation during the site evaluation flags any ductwork upgrades needed so they are included in the written estimate, not discovered after installation starts.

The federal residential clean energy credit ended for systems placed in service after December 31, 2025. Homeowners planning a 2026 install should not assume that credit applies. Check with a tax adviser for any state or utility incentives that may still be available in Colorado.

The upfront cost is higher than a standard HVAC replacement, and the ground loop requires significant site work. Properties with difficult soil, limited yard access, or rocky ground may face higher drilling costs. A site evaluation quantifies these factors before you commit to anything.

Yes. A system can run and still have weak airflow, poor efficiency, or a part close to failure. An inspection catches those problems before they cause a full breakdown or water damage from a blocked condensate drain.

No. The inspection focuses on condition and performance across every major component. It looks for symptoms, worn parts, and system behavior, a filter change is one small part of a much broader scope.

Mild weather hides defrost control faults, low refrigerant performance, and backup heat issues. An inspection tests the defrost cycle and checks airflow and electrical components specifically for cold-weather operation.

A capacitor or contactor near failure can cause a hard shutdown in the middle of winter. A blocked drain line left unchecked leads to water damage that spreads to surrounding materials before the source is identified.

The written findings give you the actual condition of each component so you can make that decision based on data. The inspection does not automatically lead to a repair booking, that is your call after reviewing the report.

Once a year covers most homes. Properties with pets, high dust, or older equipment may benefit from closer attention. Timing the visit before the main heating or cooling season means the system is ready when demand peaks.

No. A filter change addresses one item. A full visit also covers coil cleaning, drain line condition, electrical connections, airflow measurement, and a temperature split test, components a filter swap does not touch.

A system can run while losing efficiency or building toward a hidden failure. Dirty coils and loose terminals degrade performance gradually. Regular service catches those conditions before they cause a breakdown at the start of a cold week.

Sometimes. A dirty coil, blocked airflow, or miscalibrated thermostat can cause comfort problems that a maintenance visit resolves. If the system has a failing component or low refrigerant, the visit will document it so the next step is clear.

Dirty coils and loose connections compound quietly. By the second or third skipped season, the system typically shows measurable efficiency loss and is more likely to fail at the start of heating or cooling season when it is under the most load.

Most faults, failed capacitors, reversing valve issues, airflow problems, and minor refrigerant leaks, are repairable. Replacement becomes the better option when the compressor has failed on an older system or when the repair cost approaches the value of a new unit. You get a written assessment either way.

Not always. Light frost during a defrost cycle is normal. Heavy or repeated icing points to an airflow restriction, a refrigerant fault, or a defrost board problem. Aurora cold snaps make this more common, and leaving it unaddressed can damage the compressor.

A reset may clear a minor control glitch once. Repeated shutdowns, persistent icing, or weak heating usually mean a real fault is present. Waiting risks the compressor overheating or a refrigerant leak worsening, both of which turn a straightforward repair into a much larger one.

The technician checks thermostat response, supply voltage, refrigerant pressure on both high and low sides, airflow through the indoor coil, fan motor amperage, capacitor voltage, and the defrost cycle. The goal is to confirm the root cause before ordering any parts.

Yes. A single-zone system is a common fit for a bedroom, home office, finished basement, or addition that needs its own heating and cooling. It works independently of whatever the rest of the house uses.

Most modern mini splits operate down to 5 degrees Fahrenheit or lower. Correct sizing matters most, an undersized unit will struggle on the coldest nights. The load calculation accounts for Aurora’s altitude and typical winter lows.

If the room needs year-round heating and cooling, quieter operation, and a permanent setup, a mini split is the stronger choice. A window unit costs less upfront but provides no heat, runs louder, and blocks the window.

Running an undersized window unit or portable AC through an Aurora summer puts constant strain on the equipment and rarely keeps the room comfortable. Humidity builds up, and the unit typically fails earlier than rated, leaving you replacing it sooner anyway.

The installer mounts the indoor unit, routes and insulates the refrigerant line set through a three-inch wall penetration, wires the electrical disconnect, and runs the condensate drain. The system is then vacuum-pulled, pressure-tested, and charged before a final output check.

The most common causes are incorrect sizing for the room, poor airflow around the indoor unit, or a refrigerant issue. A load check and inspection of the line-set connections and pressure will identify which one applies.

Yes, provided the system is correctly sized for your home’s heat loss. Modern air source heat pumps extract heat from outdoor air down to around -13°F. Undersizing is the most common cause of cold rooms, which is why proper load calculations before installation matter.

Heat pumps handle freeze-thaw cycles through an automatic defrost cycle that briefly reverses the refrigerant flow to clear ice from the outdoor coil. Snow accumulation around the unit is the bigger practical concern, the unit should be mounted or positioned so drifting snow cannot block airflow or bury the base.

Yes, and that is the main reason to book one before cold weather arrives. A refrigerant-circuit issue or failing capacitor that causes mild inefficiency in fall can cause a full shutdown when outdoor temperatures drop and the system is working hardest. Catching it early avoids an emergency call in freezing conditions.

Common findings include low refrigerant charge, dirty or blocked coils, failing capacitors, loose electrical connections, restricted airflow from a clogged filter or collapsed duct, and defrost-control faults. Any of these can cut heating output significantly or lead to compressor failure if left unaddressed.

Mild weather masks marginal problems because the system does not have to work hard. A low refrigerant charge, a weak capacitor, or a partially blocked coil only becomes obvious when outdoor temperatures fall and the system runs at full demand. An inspection measures performance under load, not just at idle.

Yes. The technician documents compressor wear indicators, coil condition, and electrical component degradation, all of which signal how much useful life remains. That information helps you plan for replacement rather than face an unexpected failure, especially heading into a heating season.

Yes. Snow and ice can damage outdoor fan blades or block coil fins. Wind-driven debris causes coil damage and electrical wear. Summer heat stresses capacitors and refrigerant-circuit components. An inspection after any of these seasonal exposures checks for that specific wear before it compounds into a larger fault.

Often yes. Dirty coils, low refrigerant, or a miscalibrated thermostat can all cause comfort problems even when the system appears to run normally. A maintenance visit tests each of those factors and identifies which one is reducing output.

Yes. Refrigerant pressure testing and airflow measurement are standard parts of a maintenance visit. Both problems are easy to miss without instruments but show up clearly during a proper check. Catching them early avoids compressor damage and higher energy bills.

Short cycling is often caused by dirty coils, low refrigerant, or a faulty thermostat, all of which a maintenance visit checks directly. If the cause is an oversized system or a failing component, the technician will identify that and explain what comes next.

The most common causes are low refrigerant, a dirty coil, or a failing reversing valve. Any of these lets the system run without moving enough heat. A blocked air filter or restricted airflow can produce the same symptom. A diagnostic visit checks each of these in sequence to find the actual cause.

Short cycling usually means the system is oversized, has a refrigerant pressure fault, or a failing thermostat is sending bad signals. It can also happen when the coil is iced over and the unit trips on a safety cutout. Left alone, short cycling stresses the compressor and shortens the system’s life.

Light frost on the outdoor coil is normal; a solid block of ice is not. Heavy icing points to low refrigerant charge, a defrost control fault, or restricted airflow across the outdoor coil. Running the system in that state forces the compressor to work against abnormal pressures and can cause permanent damage.

Weak airflow is almost always a clogged filter, a failing blower motor, or collapsed ductwork. A dirty evaporator coil can also restrict flow significantly. Each of these is checked during a standard repair visit, and most are straightforward to resolve once the root cause is confirmed.

Repeated freeze-thaw cycles stress the defrost control board and can cause it to mistime or skip defrost cycles entirely. When that happens, ice accumulates faster than the system can clear it. A faulty outdoor temperature sensor is another common trigger in these conditions and is straightforward to test and replace.

Air-source heat pumps lose efficiency as outdoor temperatures drop, and a system that is low on refrigerant or has a dirty coil will struggle even more. At altitude, air density also affects heat transfer. If the system was not sized correctly for local conditions, it may need supplemental heat or a capacity review.

Yes. Dry, dusty conditions clog filters and coat coils faster than humid climates, reducing airflow and heat transfer. Strong wind can push debris into the outdoor unit and interfere with defrost cycles. Checking and cleaning the coil and filter more frequently than the manufacturer’s standard interval helps in these conditions.

The most common causes are a dirty air filter, low refrigerant, a blocked outdoor unit, or a system that was undersized for the space. Check the filter first, a clogged filter cuts airflow significantly. If the filter is clean and the unit still underperforms, a refrigerant issue or a sizing mismatch is likely and needs a technician to diagnose. Schedule a check-up before the problem worsens.

Yes, almost always. Air source heat pumps require a dedicated 240V circuit, and older panels sometimes need upgrading to accommodate it. Electrical work is scoped and priced in the written estimate. Overall project costs vary, and the full range for this area is $6,700-$9,500.

Most geothermal installations in this area come in at $15,000-$20,000, depending on loop type, drilling depth, and your home’s heating and cooling load. A written itemised estimate covering equipment, installation scope, and timeline is provided before any work is booked.

Most homeowners see heating and cooling costs drop 30-60% compared to a gas furnace and central AC combination. Geothermal moves heat rather than generating it, so it delivers roughly 3-5 units of energy for every 1 unit of electricity consumed. Actual savings depend on your current fuel costs and home envelope.

An inspection can reveal repairs you were not aware of, but those costs exist whether or not you inspect. Finding them early usually means a smaller repair bill than waiting for a component to fail completely. Any repair scope is put in writing before work is booked, so there are no surprise charges.

System type, size, and accessibility are the main factors. A multi-zone mini-split with several indoor heads takes longer than a single-zone unit. Difficult access to the outdoor unit or air handler adds time. The inspection fee itself is separate from any repair work identified.

Most heat pump installations in this area come in at $150-$300, depending on system type, home size, and any electrical or ductwork upgrades needed. You receive an itemised written estimate covering equipment, installation scope, and timeline before any work is booked.

Installation covers the equipment, all labour to fit and connect the system, and a post-install performance check. You also get a load evaluation, existing equipment assessment, altitude-adjusted sizing, and a written estimate detailing every item before work begins.

Yes, that is possible. Maintenance finds problems; it does not always fix them. If a component is failing, the technician will tell you what is needed and why. You can then decide on repairs separately, with a clear picture of what the issue is. Learn more about repair options

Most heat pump repairs in the Aurora area run $250-$450, depending on the fault type and parts required. A written estimate is provided before any work is booked, so you know the full scope and cost upfront.

The main factors are the component that has failed, whether refrigerant needs to be recovered and recharged, and how accessible the units are. A capacitor or sensor replacement costs far less than a compressor swap. Parts availability and system age also affect the final figure.

A written estimate is provided before work begins, covering parts and labor as itemized line items. If the technician uncovers an additional fault during the repair, you will be told before any extra work proceeds. Nothing is added to the bill without your approval.

Most single-zone mini split installations in the Aurora area come in at $7,500-$9,500, covering equipment and labor. Multi-zone systems with two or more indoor heads cost more. You receive an itemised written estimate covering equipment, installation scope, and timeline before any work is booked.

A mini split includes an outdoor compressor unit, refrigerant line set, electrical wiring, and a wall-mounted indoor head, all professionally installed and pressure-tested. A window unit is a single plug-in appliance. The mini split also heats, runs more efficiently, and lasts significantly longer, so the higher upfront cost spreads across more years of use.

Key factors are the number of indoor zones, the BTU capacity of the unit, the distance the line set must run, wall material (concrete costs more to drill than wood framing), and electrical panel upgrades if a new circuit is needed. Longer line sets and multi-zone configurations push the price up most noticeably.

A load calculation and review of your existing equipment tells you whether your home suits a heat pump. Key factors are insulation levels, window area, ceiling height, and your current ductwork or radiator setup. Our partners start every enquiry with a system evaluation covering all of these before any work is proposed.

Possibly. Heat pumps run at lower water temperatures than gas boilers, so existing radiators may need to be upsized to deliver the same heat output. Underfloor heating is often a better match. The written estimate will spell out exactly what changes your system needs.

Usually yes. Most air source heat pump installations require a larger hot water cylinder, typically 40-60 gallons, to store water heated at lower temperatures. Whether your existing tank can be reused depends on its size, condition, and compatibility with the heat pump model selected.

The outdoor unit needs a firm, level surface with clear airflow on all sides, typically at least 12 inches of clearance at the sides and 24 inches at the front. It can go on a ground pad, a wall bracket, or a flat roof. The installer will identify the best position during the site assessment.

Modern units run at 45-55 dB at one meter, roughly the level of a quiet conversation. Placement away from bedroom windows and neighboring walls keeps noise from becoming an issue. Screening with fencing or planting is possible as long as it does not restrict airflow around the unit.

Common preparatory work includes upgrading insulation, upsizing radiators, replacing an undersized hot water cylinder, and upgrading the electrical panel. Drafty homes may also need air sealing. The site evaluation identifies which of these apply to your property before any commitment is made.

Air source heat pumps provide both heating and cooling. In cooling mode the refrigeration cycle reverses, moving heat out of your home just as a central air conditioner does. This makes them a full-year HVAC replacement rather than a heating-only upgrade.

A drafty home makes any heating system work harder. Air sealing and insulation upgrades before installation improve performance significantly and may allow a smaller, less expensive heat pump to be specified. The load evaluation will identify whether pre-work is needed and how much it affects sizing.

Yes. Aurora’s semi-arid climate actually suits heat pumps well, low humidity reduces frost buildup on the outdoor coil, which is one of the main efficiency drains in wetter climates. Cold-climate rated units maintain useful output down to -13°F, covering the area’s typical winter lows.

It can, but older and mobile homes typically have higher heat loss per square foot, which means the heat pump needs to be sized larger or the home needs insulation upgrades first. A mini-split system is often a practical fit for mobile homes where ductwork is limited or absent.

Yes, with the right preparation. Older homes often need duct sealing or insulation upgrades to let a geothermal system perform efficiently. A load calculation during the initial evaluation identifies those gaps before installation, so the system is sized to what the home actually needs after any improvements.

It depends on which loop type fits your lot. Horizontal trenched loops need roughly 400-600 linear feet of trench per ton of capacity. Vertical drilled loops need far less surface area, sometimes just a small equipment staging zone. A site evaluation determines which approach suits your property.

Sizing starts with a Manual J load calculation that accounts for your home’s square footage, insulation levels, window area, and Aurora’s altitude-adjusted climate data. That figure drives both the heat pump unit size and the loop length or drill depth, so the system is neither undersized nor oversized.

Yes. Many homeowners switch to geothermal while their existing equipment still functions, to lock in lower operating costs and the current 30% federal tax credit before the system fails. The evaluation assesses whether the timing makes financial sense given your current equipment age and remaining useful life.

Yes, and often ideal. Larger lots in the Bennett area give horizontal loop fields room to spread without conflicting with structures or utilities. Bigger homes with higher heating loads benefit most from geothermal’s efficiency advantage. A load calculation confirms the loop size and configuration needed for the specific property.

Rocky ground slows horizontal trenching and raises costs, but it often makes vertical drilling more efficient since dense rock conducts heat well. A site assessment identifies subsurface conditions before any loop design is finalised, so the method chosen matches what the ground can actually support.

Turning on is not the same as running efficiently. A heat pump can start normally while losing 20-30% of its heating capacity due to low refrigerant charge, dirty coils, or a degraded compressor. An inspection measures actual performance, not just whether the unit powers up.

Yes. Intermittent faults rarely resolve themselves; they usually indicate a component that is failing under load and recovering when demand drops. A fault that disappears is often harder to diagnose later when it causes a full breakdown. An inspection while the symptom is fresh gives the technician the best chance of finding the cause.

Yes, and that symptom points to a specific set of causes worth checking. Reduced cooling output often traces to low refrigerant charge, a dirty outdoor coil, or a reversing-valve fault. An inspection in heating mode can still reveal those issues through pressure readings and temperature differentials.

Yes, a pre-winter inspection is the most practical time to book one. It confirms the system can handle sustained cold-weather demand before you actually need it. Any repairs found can be scheduled on your timeline rather than as an emergency during the first hard freeze.

An inspection can flag signs of undersizing or oversizing, such as the system running continuously without reaching setpoint or short-cycling frequently. A formal sizing conclusion requires a full load calculation, which is a separate evaluation that factors in square footage, insulation, and local climate data.

Many homes need a panel upgrade or a dedicated circuit before a heat pump can be connected safely. The pre-installation evaluation checks your existing electrical capacity and flags any required work in the written estimate so there are no surprises on the day.

Not always. If your existing ducts are well-sealed and correctly sized, they can usually carry a ducted heat pump system. Leaky or undersized ducts reduce efficiency significantly, so the pre-install assessment checks duct condition and flags any changes needed. Homes without ducts are good candidates for a mini-split system.

Modern cold-climate air-source heat pumps extract heat from outdoor air down to around -13°F, so they operate through Aurora’s typical winter lows. At extreme temperatures, a backup heating element or supplemental system may run alongside the heat pump to maintain comfort.

Yes. In cooling mode a heat pump moves heat out of your home just like a central air conditioner, and most units are rated to operate in outdoor temperatures up to 115°F. Aurora’s summer highs are well within that range, so cooling performance is not typically affected.

Sizing is calculated through a Manual J load calculation that accounts for your home’s square footage, insulation levels, window area, and local climate, including Aurora’s altitude. The pre-installation evaluation covers this and produces an altitude-adjusted size recommendation before any equipment is specified.

It depends on duct condition and layout. The pre-install assessment checks whether existing ducts can distribute airflow evenly across your floor plan. Rooms that are hard to reach with ducts can be served by a supplemental mini-split head unit rather than a full duct extension.

The outdoor unit is typically 2-3 feet wide and needs 18-24 inches of clearance on all sides for airflow. The indoor air handler is similar in size to a standard furnace. The pre-install evaluation confirms whether your mechanical room and yard have adequate space before equipment is ordered.

Yes, provided the system is correctly sized for your home’s cooling load. A heat pump in cooling mode operates the same way as a central air conditioner, and most units are rated to 115°F outdoor ambient. Undersized equipment will struggle, which is why the load calculation before installation matters.

Yes, with the right preparation. Older homes often need air sealing and insulation improvements first to get full efficiency from a heat pump. Cold-climate models handle the area’s winter lows well, and the dry air here actually reduces defrost cycles compared to more humid climates, which helps efficiency.

Yes. The outdoor unit should be elevated on a raised pad or wall bracket to keep it above typical snow accumulation, and it needs clear drainage so meltwater does not refreeze under the unit. The site evaluation accounts for local freeze-thaw patterns when recommending placement and mounting.

Once a year is the standard interval for most homes. If your system runs year-round for both heating and cooling, twice a year keeps it performing at its best. Annual maintenance catches wear, dirty coils, and refrigerant issues before they turn into breakdowns.

Yes. A heat pump can turn on and still be running inefficiently or losing refrigerant slowly. By the time a fault is obvious, the repair bill is usually much larger. Annual maintenance finds those issues while they are still minor.

Yes, often more so. Older systems accumulate coil fouling, refrigerant loss, and worn contacts faster than newer ones. Maintenance keeps an aging unit running efficiently and gives you an honest assessment of whether repair or replacement makes more sense. See inspection options

The core checks are the same, but access and ductwork vary. Older homes may have undersized or leaky ducts that reduce system performance. Mobile homes often have compact air handlers in tight spaces. Newer builds tend to have more accessible equipment. A technician accounts for those differences on site.

Yes. Our partners work on both the indoor air handler and the outdoor condensing unit, including refrigerant lines connecting them. Most faults involve both sides of the system, so diagnosing only one unit often misses the real cause.

Most modern mini splits rated for cold climates maintain effective heating down to around -13°F to -22°F outdoor temperature. Aurora’s winters regularly drop below 10°F, so the unit’s cold-climate rating matters. A correctly sized, cold-climate-rated mini split handles those temperatures without a backup strip heater. Confirm the model’s rated heating capacity at low temperatures before purchasing.

A single-zone mini split is a straightforward fit for one room, a garage, a sunroom, or an addition that lacks ductwork. It is not overkill if that space has no other reliable heating or cooling. For a single small bedroom in an otherwise conditioned home, a window unit may be sufficient and cheaper upfront.

Sizing depends on square footage, ceiling height, insulation level, window area, and local altitude, all of which affect the load calculation. A rough rule of 20-25 BTU per square foot is a starting point, but Aurora’s elevation requires an altitude-adjusted load calculation to avoid under- or over-sizing. Our partners run that calculation before recommending any unit.

Yes. A mini split heat pump moves heat in both directions, into the room in winter and out of it in summer, using the same equipment. One system replaces both a heater and an air conditioner for the zone it serves.

Most mini split indoor units operate between 19 and 32 decibels on low fan speed, quieter than a normal conversation and comparable to a library. On high fan speed the noise rises but stays well below a window AC. The outdoor compressor produces more noise but sits outside the living space.

Standard wall-mounted indoor heads are roughly 32-36 inches wide, 11-13 inches tall, and 8-10 inches deep, slim enough to sit above a door or high on a wall without dominating the room. Cassette-style units that recess into the ceiling are available if a wall-mounted head does not suit the space.

The indoor head needs a clear wall section roughly 40 inches wide and at least 6 inches of clearance above it. The outdoor unit requires about 24 inches of clearance on all sides for airflow and sits on a pad or bracket roughly 36 by 14 inches. Even small yards and tight exterior walls usually accommodate this.

Yes. Mini splits are one of the most practical ways to add heating and cooling to an older home without tearing into walls to run ductwork. A single outdoor unit can serve multiple rooms through separate indoor heads, and the only structural work needed is a small hole per zone for the line set.

A cold-climate-rated mini split handles the temperature range these areas see, summer highs above 90°F and winter lows that can drop below 0°F. Altitude-adjusted sizing is important here because the thinner air at around 5,400 feet affects unit capacity. Our partners run an altitude-adjusted load calculation as part of every evaluation.

Mini splits work in mobile homes provided the electrical panel can support the added circuit, typically 15-30 amps depending on unit size. On rural acreage, the main consideration is whether the outdoor unit can be sited away from prevailing wind and debris. Both situations are workable with a proper site assessment beforehand.

Yes, in most homes. A correctly sized air source heat pump can serve as the sole heating and cooling source, eliminating the furnace or boiler entirely. Homes with very high heat loss or extreme cold exposure sometimes benefit from a hybrid setup, which the load evaluation will flag.

In well-insulated homes, a standalone heat pump is usually sufficient. A hybrid setup, keeping the existing furnace as a backup, makes sense if your home has high heat loss or if the heat pump is sized for average rather than peak winter loads. The site evaluation will clarify which approach fits your property.

A furnace or boiler only heats; a heat pump heats and cools, and moves more energy than it consumes. The trade-off is higher upfront cost and the need for system changes like larger radiators. A like-for-like cost comparison only makes sense after a load evaluation confirms what your home actually needs. See our services overview for other options.

The main drawback is upfront cost. Ground loop installation, whether trenched or drilled, adds significant labor and equipment expense compared to a standard furnace or air-source heat pump. The long operating life and lower monthly energy bills offset that over time, but the initial outlay is higher.

Geothermal replaces both heating and cooling with one system and uses significantly less electricity than a standard heat pump or AC unit. A furnace-and-AC replacement costs less upfront but leaves you with two systems, ongoing fuel costs, and a shorter combined lifespan than a geothermal loop field.

Yes. Geothermal installation requires licensed HVAC work, refrigerant handling certification, and in most states a licensed driller or excavation contractor for the loop field. Improper loop sizing or refrigerant charging voids equipment warranties and can result in a system that fails to heat or cool adequately.

Not always. If your existing air handler and ductwork are in good condition, the geothermal heat pump unit can often connect to them. The furnace and outdoor AC condenser are removed and replaced by the ground-source unit. The initial evaluation checks whether existing indoor equipment is worth retaining.

It is neither. A filter change is a five-minute maintenance task. A tune-up typically means cleaning and minor adjustments. An inspection is a diagnostic evaluation: the technician measures operating pressures, checks electrical components, and documents the condition of every major part so you know exactly where the system stands.

It could be. A clogged filter or an incorrectly set thermostat are the first things a technician rules out, and either one can cause symptoms that look like a serious fault. An inspection confirms whether the fix is simple or whether something deeper, like a refrigerant or electrical issue, is the real cause.

A heat pump replaces both your furnace and air conditioner with one system, which reduces equipment count and can lower energy bills. If your current system is over 15 years old or needs a major repair, replacement with a heat pump is usually the more cost-effective path over the next decade.

Repair makes sense when the system is under 10 years old and the fix is minor. When repair costs exceed roughly half the price of a new unit, or the system is aging and inefficient, replacement with a heat pump typically saves more over time. The pre-install evaluation includes an existing equipment condition check to help you decide.

A correctly sized heat pump handles the area’s temperature swings without a backup in most conditions. Backup heat strips are sometimes included for extreme cold snaps below the unit’s rated minimum, but they rarely run. Oversizing the system to chase peak days causes short cycling and reduces overall efficiency.

A filter change handles one small part of the system. It does nothing for refrigerant levels, coil fouling, electrical connections, or drainage. A full visit covers all of those, so a filter swap alone is not a substitute for annual maintenance.

You can, but a breakdown usually costs significantly more than a maintenance visit and often happens at the worst time. Compressor failure caused by low refrigerant, for example, is an expensive repair that routine pressure checks routinely prevent.

DIY cleaning can keep filters clear, but refrigerant pressure testing, electrical checks, and drainage diagnostics require certified technicians and proper instruments. A handyman cannot legally handle refrigerant, so a full maintenance visit covers what DIY cannot.

Most heat pumps can be repaired unless the compressor has failed on an older unit or refrigerant circuit damage is extensive. The deciding factors are the system’s age, the cost of the repair relative to replacement, and whether the same fault is likely to recur. A diagnostic visit gives you a clear answer before any money is committed.

Small repairs typically involve controls, sensors, capacitors, or filters. Bigger problems involve the compressor, refrigerant circuit, or heat exchanger. A technician can usually tell the difference during the diagnostic check, and a written estimate will separate parts and labor so you can see exactly what you are paying for.

Repair is cheaper in the short term for most faults, but replacement can cost less over time if the system is over 15 years old or needs a compressor. A written estimate for the repair lets you compare that figure directly against a replacement quote before deciding. Get a heat pump inspection first if the system’s overall condition is unknown.

A recurring fault usually means the underlying cause was not fully resolved, or a secondary component is failing and stressing the repaired part. A thorough diagnostic looks beyond the obvious symptom to find what is driving the repeat failure. If the root cause is a worn-out compressor or aging refrigerant circuit, replacement may be the more practical path.

Resetting buys minutes, not a fix. If the system trips repeatedly, it is protecting itself from a real fault. Continuing to reset it while the underlying problem persists risks compressor damage, which turns a moderate repair into a much larger one. Getting a diagnosis now is almost always cheaper than waiting.

A heat pump over 15 years old with a compressor fault is usually a replacement candidate, since compressor cost often approaches half the price of a new unit. For a younger system or a minor fault, repair makes sense. A written repair estimate alongside a replacement quote gives you the numbers to decide. See air-source heat pump options if replacement is the direction.

A mini split costs more upfront but provides both heating and cooling, runs quieter, is more energy-efficient, and does not block a window. A window AC only cools, is louder, and reduces natural light and security. If you need year-round comfort in a space without ductwork, a mini split is the more capable long-term option.

For cooling only in a mild climate, a portable or window unit can be enough. Neither provides heating, both are less efficient than a mini split, and portable units exhaust warm air back into the room if not vented correctly. If you need heating as well, or if energy costs matter, a mini split delivers more for the long run.

Refrigerant handling requires EPA Section 608 certification, so that part of the work must be done by a certified technician. DIY ‘pre-charged’ line-set kits exist but void most manufacturer warranties and skip the vacuum and pressure test that prevent refrigerant leaks. A licensed install protects the warranty and ensures the system runs at rated efficiency.

The installer mounts the outdoor unit, runs refrigerant lines and electrical connections to an indoor air handler or hydronic system, connects the hot water cylinder, and commissions the controls. Every job starts with a load evaluation and ends with a performance check to confirm output matches the specification.

Most residential installs take one to three days. You will be without heating during that window, so timing around mild weather helps. Pipework and electrical work inside the home is the main source of disruption, and the scope of that is set out in the written estimate before booking.

Radiators may need to be replaced with larger panels or fan-assisted units to compensate for the lower flow temperatures a heat pump uses. Pipework changes depend on whether your home has an existing wet system and how well it was sized originally. The written estimate covers all of this in detail.

Sizing uses a Manual J load calculation, which accounts for floor area, insulation values, window area, ceiling height, local design temperatures, and altitude. Aurora sits above 5,000 feet, so altitude-adjusted sizing is part of every evaluation our partners carry out.

A full install covers the indoor air handler or hydronic interface, refrigerant line sets, electrical connections and dedicated circuit, thermostat or controls, and hot water cylinder integration where required. The written estimate lists every item in scope before any work is booked.

Yes. Every installation includes a post-install check to confirm the system performs as specified, refrigerant pressures, flow temperatures, controls operation, and hot water output are all verified before the installer leaves.

Installers are expected to remove all packaging, off-cuts, and old equipment from the site. Internal work areas are tidied before the job is signed off. Any specific expectations around disposal of old equipment should be confirmed in the written estimate.

The system evaluation determines the full equipment list based on your home’s layout, existing ductwork, and heating and cooling loads. Every component needed, indoor units, outdoor unit, line sets, and controls, is listed in the written estimate so you know exactly what is included before booking.

Yes. On exposed lots, the unit should be positioned on the sheltered side of the building where possible, and the pad or bracket must be anchored to handle wind loading. The installer will account for prevailing wind direction during the site assessment to avoid placing the unit where it draws cold air directly into the coil.

Yes. Vertical drilling requires only a small footprint at the drill site, typically a 10-by-10-foot area, rather than wide trenches across the yard. It disturbs far less surface area than horizontal loops. The trade-off is that drilling equipment and depth add to the installation cost.

Some surface disruption is unavoidable. Horizontal trenching leaves a narrow strip of disturbed soil that re-seeds within one growing season. Vertical drilling leaves a small pad area. Installers backfill and grade as they go, and the scope of ground disturbance is outlined in the written estimate before work begins.

If your home already has forced-air ducts in good condition, the indoor unit connects to the existing air handler with minimal modification. Leaky or undersized ducts may need sealing or resizing. Homes without ducts can use a hydronic distribution system or a ductless configuration, the evaluation identifies which path fits.

The process runs in three stages: ground loop installation (drilling or trenching), indoor equipment installation (heat pump unit, air handler, and controls), and system commissioning. Commissioning includes pressure-testing the loop, charging refrigerant, and verifying that output temperatures and airflow match the load calculation targets.

Most residential geothermal projects take 3-5 days from ground loop work through indoor installation and commissioning. Larger homes or sites that require multiple drill bores can extend that to a week. The written estimate provided before booking includes a project timeline specific to your scope.

Our local partners manage permit applications and coordinate required inspections as part of the installation scope. Permit requirements vary by jurisdiction, Aurora and Arapahoe County each have their own mechanical and drilling permit processes. The written estimate confirms which permits apply to your specific project.

Horizontal loops on a flat prairie lot need roughly 400-600 linear feet of trench per ton of capacity, typically at 5-6 feet deep. A 3-ton system needs about 1,500 feet of trench across a clear area free of trees and utilities. Vertical drilling cuts that surface footprint to a small pad.

An inspection covers the outdoor and indoor units, refrigerant-circuit performance, electrical connections, airflow, coil condition, and controls. The technician looks for wear, efficiency loss, and anything that could cause a breakdown. You get a written summary of what is working normally, what is degrading, and what needs attention.

Yes, both units are checked. The outdoor unit is inspected for coil condition, fan operation, and debris buildup. The indoor air handler is checked for airflow, filter condition, and electrical connections. A single-unit check would miss half the system.

Yes, all three areas are covered. Airflow is assessed at the air handler and across the coil. Electrical connections, capacitors, and controls are inspected for wear or loose contacts. Refrigerant-circuit performance is evaluated through operating pressures and temperature differentials, not just a visual check.

Most single-system inspections take between one and two hours. A multi-zone system or a unit with difficult access can run longer. The technician needs enough time to measure operating pressures, check electrical components, and document findings accurately, so rushing the visit produces an incomplete picture.

Yes. The system is left running in its normal operating mode, panels are refastened, and the work area is cleared before the technician leaves. Any settings adjusted for testing, such as thermostat mode or fan speed, are returned to your original configuration.

Yes, and the climate makes it more important. Freeze-thaw cycles stress the outdoor coil and defrost controls, while dry air accelerates dust buildup on indoor components. A pre-winter inspection checks defrost operation, coil condition, and refrigerant charge before the system faces its hardest working conditions.

Dry air accelerates dust accumulation on coils and filters, reducing airflow and efficiency. Large temperature swings stress electrical connections and capacitors through repeated expansion and contraction. In an older home, duct integrity and insulation around refrigerant lines also get attention, since both degrade over time and affect system output.

The installer starts with a load evaluation and equipment check, then positions and mounts the outdoor unit, installs or connects the indoor air handler, runs refrigerant lines and electrical connections, and commissions the system. A post-install check confirms the system heats and cools to the specified output before the job is signed off.

A straightforward swap-out of an existing system typically takes one day. Installations that require new ductwork, electrical panel work, or a geothermal ground loop take longer, and the written estimate you receive before booking will include a clear timeline for your specific scope.

Installers need access to your mechanical room or air handler location, the outdoor unit area, and any attic or crawl space where ducts run. Heating and cooling will be offline for most of the day. The written estimate outlines the full scope so you can plan around it.

Our partners are expected to remove old equipment, packaging, and debris before leaving. The post-install check at the end of the job is also a walkthrough of the work area, so any cleanup issues are caught before the installer departs.

Most modern outdoor units run at 50-60 decibels, roughly the level of a normal conversation. Placement of the outdoor unit matters: mounting it away from bedroom windows and on vibration-dampening pads keeps noise from becoming a nuisance inside or for neighbors.

A heat pump needs a filter change every 1-3 months, annual coil cleaning, and a refrigerant and electrical check once a year. Keeping the outdoor unit clear of debris and snow is a simple owner task. Annual maintenance visits catch small issues before they become costly repairs.

Yes, continuous overnight operation is normal and efficient. Heat pumps are designed to run in longer, steadier cycles rather than short bursts, which is how they maintain even temperatures without spiking energy use. Frequent short cycling overnight is a sign of an oversized or malfunctioning unit.

The pre-installation evaluation covers heating and cooling load, existing equipment condition, duct integrity, electrical panel capacity, and outdoor unit placement options. Altitude-adjusted sizing is also calculated, since Aurora sits above 5,000 feet and that affects equipment output ratings.

Townhomes and older single-family homes often have ducts that are undersized or leaky by current standards. The pre-install duct assessment identifies any sections that need sealing or resizing. Minor duct work is common; a full replacement is less so and would be itemised in your written estimate.

A technician inspects electrical connections, checks refrigerant pressure, cleans coils, tests thermostat calibration, and confirms airflow through both units. They also check drainage and look for early signs of component wear. You get a clear picture of the system’s condition before leaving.

Yes, both units are checked. The outdoor unit gets a coil clean, fan inspection, and refrigerant pressure test. The indoor unit gets an airflow check, filter inspection, and drainage review. Skipping either unit leaves half the system unexamined.

Yes. Coil cleaning and filter inspection are included alongside the performance checks. Dirty coils are one of the most common causes of reduced efficiency, so cleaning is a core part of the visit, not an optional add-on.

Availability depends on local partner schedules and the time of year. Demand is highest heading into winter and summer. Contacting us early gives you the best chance of a prompt slot. We connect you with local partners who cover the Aurora area.

Yes, both are standard checks. Refrigerant pressure is measured against manufacturer specifications, and the condensate drain is inspected for blockages or slow flow. Low refrigerant and blocked drains are two of the most common causes of reduced performance and water damage.

Someone with access to both the indoor and outdoor units needs to be present. The technician needs to reach the air handler, thermostat, and outdoor unit, and will want to walk you through any findings at the end of the visit.

In climates with cold winters and hot summers, twice-yearly maintenance is worth considering since the system works hard in both seasons. Dry air increases dust buildup on coils and filters, which makes regular filter checks between visits a good habit.

Keeping the outdoor unit clear of snow and ice buildup is the most immediate concern. Freeze-thaw cycles can shift the unit’s pad and stress refrigerant lines, so checking level and line integrity matters. Wind-driven debris blocks coil fins and restricts airflow, so a coil clean is essential after winter.

Most diagnostic visits identify the fault the same day. If parts are in stock, many repairs are completed in the same visit. Parts that need ordering typically add one to a few days. Contact us and we will connect you with a local partner who can give you a realistic timeline for your specific situation.

The technician checks refrigerant pressure, electrical connections, capacitors, contactors, the reversing valve, defrost controls, blower motor, coil condition, and thermostat signals. That covers the components responsible for the vast majority of heat pump faults and gives a complete picture before any parts are ordered.

Heat pump repair work is generally contained to the unit itself and the immediate area around it. Technicians work on the equipment in place, so there is minimal disruption to the surrounding space. Any debris from the repair is cleared before the visit ends.

Usually yes. Refrigerant pressure, electrical faults, and airflow issues span both units, and checking only one side often produces an incomplete diagnosis. The technician will need clear access to both the air handler indoors and the condensing unit outside.

The installer mounts the indoor air handler on the wall, drills a 3-inch hole through the wall for the line set and wiring, mounts the outdoor compressor unit on a pad or bracket, connects the refrigerant lines, runs the electrical circuit, and vacuums the lines before charging with refrigerant. A post-install performance check confirms the system heats and cools to spec.

Yes. A single hole, typically 2.5 to 3 inches in diameter, is drilled through the wall to pass the refrigerant line set, condensate drain, and electrical cable between the indoor and outdoor units. The hole is sealed around the lines with foam or a wall sleeve to prevent drafts and moisture entry.

The outdoor unit is placed on a concrete pad or wall bracket within a practical line-set distance of the indoor head, usually on a side or rear wall away from direct sun and foot traffic. The line set runs along the exterior wall inside a protective conduit cover. Placement is confirmed during the site evaluation before installation begins.

Drilling the wall passage creates a small amount of dust and debris inside and outside. Installers typically lay down drop cloths and clear the work area before leaving. The indoor unit is mounted flush to the wall, and the line set outside is covered in a neat conduit channel. Most installs leave no lasting mess.

A single-zone installation typically takes four to eight hours in one day. Multi-zone systems with three or more indoor heads can run into a second day depending on the complexity of the line routing and electrical work. The written estimate you receive beforehand includes the expected timeline.

The outdoor unit can be wall-bracketed above ground level, placed on a rooftop pad, or positioned on a narrow side passage, it needs roughly 24 inches of clearance around it for airflow. In high-wind areas, a windbreak fence or strategic placement behind a wall reduces strain on the unit. The site evaluation identifies the best location before installation.

No. Aurora Heat Pumps is an enquiry service. We arrange a local licensed HVAC technician to do the on-site work. You get a written estimate before anything is booked, and a post-install check confirms the system runs to spec.

At Aurora’s elevation, air density is lower, which reduces a heat pump’s rated capacity. A system sized for sea level will underperform here. The installer we arrange accounts for altitude derating in the load calculation so the equipment is sized for your actual conditions.

Equipment model and BTU capacity, installation scope, labor, timeline, freeze protection plan for outdoor lines, and backup heat strategy. Permitting requirements for your municipality are also confirmed before the estimate is finalised.

Running an undersized or aging system through a Colorado winter increases the risk of a mid-season breakdown. Repair costs during peak demand are higher, and parts lead times stretch. An assessment now identifies any readiness issues before cold weather forces the decision.

Air-source heat pumps, mini-split systems, and geothermal heat pumps. The installer’s on-site evaluation determines which type suits your property’s load, layout, and existing equipment.

A local installer confirms your home’s heating and cooling load, electrical panel capacity, ductwork condition, and outdoor unit placement options. Drainage clearances and refrigerant line routing are also reviewed. All of this happens before any equipment is specified or quoted, so the written estimate reflects the actual scope.

Not always, but leaking or undersized ducts reduce delivered airflow and cut system efficiency. The installer checks static pressure and duct condition as part of the assessment. If sealing or resizing is needed, that work is included in the written estimate before anything is booked.

Yes, if the system is sized correctly and the home is well insulated. A load calculation that accounts for your floor plan, window area, and Aurora’s summer heat gain is what determines whether the unit can keep up, not a rule-of-thumb estimate.

Running an undersized or failing system through another Colorado winter risks a full breakdown during a cold snap, when replacement lead times are longest. A system that short-cycles also drives up energy bills each month it runs. Getting an assessment now means the scope and cost are known before the situation becomes urgent.

The total depends on system type, home size, and whether ductwork or electrical upgrades are needed. That is exactly why the process starts with an on-site assessment and an itemised written estimate, so you see the full cost broken down by equipment, labor, and any prep work before you commit.

Modern air-source heat pumps maintain meaningful output down to 0°F or below, but altitude and backup heat strategy both affect real-world performance. Freeze protection and a backup heat plan are reviewed as part of every installation scope so the system is set up for Colorado’s temperature swings from day one.

The post-install performance check is designed to catch faults before the installer leaves. If a problem appears afterward, contact us and we will arrange a return visit through our local partners. Leaving a fault unaddressed can cause the system to run inefficiently or damage the compressor over time. Book a repair if needed.

Yes, in most Colorado jurisdictions a mechanical permit is required for heat pump installation, and the electrical work typically needs a separate electrical permit. Inspections are carried out by the local building department. Your installer is responsible for pulling the correct permits before work begins.

Yes, the federal Residential Clean Energy Credit currently covers 30% of geothermal heat pump installation costs with no dollar cap, and it runs through 2032. Consult a tax professional to confirm eligibility for your specific situation, as income and filing status can affect the credit.

The indoor heat pump unit typically lasts 20-25 years. The ground loop buried outside can last 50 years or more, since it has no moving parts and is protected from weather. That longevity is a key reason the higher upfront cost tends to pay off over the system’s life.

A site evaluation identifies soil type, bedrock depth, and utility locations before any digging begins. If unexpected conditions appear during drilling or trenching, the installer adjusts loop depth or configuration and updates the written scope accordingly. No additional work proceeds without your sign-off on any change.

Warranty terms vary by equipment manufacturer and the installing contractor. Most geothermal heat pump units carry a 10-year parts warranty; loop fields are typically warranted for 25-50 years. Ask your installer for written warranty documentation covering both the equipment and the ground loop before signing any contract.

Yes. The written summary separates findings into three categories: components operating within normal range, parts showing wear that should be monitored, and items that need repair now. That breakdown lets you make an informed decision rather than guessing which findings are urgent.

Yes. The written report distinguishes between urgent repairs, items to monitor, and components in normal condition. That prioritization lets you decide what to address now versus what can wait until a planned maintenance visit, without having to guess which findings are critical.

Contact us and we will connect you with a local partner for a heat pump repair assessment. The post-install performance check is designed to catch any commissioning issues before the installer leaves, but faults can develop later and a prompt inspection prevents further damage.

Warranty terms depend on the equipment manufacturer and the installing partner. Most heat pump manufacturers offer 5-10 year parts warranties when the unit is registered after installation. Ask your installer to confirm registration is completed, as unregistered units often revert to a shorter default warranty period.

In most cases, yes. If a recurring fault has a root cause, such as drainage blockage or a loose electrical connection, maintenance finds and addresses it. Repeat failures caused by underlying wear may still need a repair, which the technician will flag clearly.

Maintenance resolves many comfort issues on the spot, such as dirty coils, blocked drainage, or a thermostat out of calibration. If the root cause is a failing component, the technician will tell you what repair is needed rather than leaving the problem undiagnosed.

Yes. If a component is failing or the system has a fault beyond the scope of maintenance, the technician will tell you clearly what was found and what type of repair is needed. You will not be left with a vague answer.

Warranty terms vary by partner and by the parts used. Ask the technician to confirm the labor and parts warranty in writing before work starts. We connect you with vetted local partners, and the scope of work is documented in a written estimate before booking.

We connect customers with vetted independent local partners who carry the certifications and insurance required to work on heat pump systems, including refrigerant handling credentials. Confirm the specific certifications with the partner at the time of booking.

Contact the partner directly if the fault recurs within the warranty period they stated at booking. If the root cause turns out to be a different underlying issue, a follow-up diagnostic will identify it. Get the warranty terms in writing before the repair is completed so you have a clear basis for that conversation.

Our partners carry out a post-install performance check before leaving, confirming the system heats and cools to spec. If a fault appears after that, the equipment manufacturer’s warranty covers parts, and the installing contractor’s labor warranty covers workmanship. Contact us and we will connect you with a local partner to assess and repair the issue. Book a repair visit.

The independent local partners we connect you with carry their own liability insurance covering installation work. Confirm coverage details directly with the installer before work begins, our partners provide a written estimate that outlines the scope, which you can use to verify what is included.