Heat Pump Installation in Metro Vancouver and Fraser Valley

Professional heat pump installation gives your home efficient heating and cooling through one properly designed system. For homeowners across Metro Vancouver and Fraser Valley, a heat pump can replace electric baseboards, add cooling to a furnace system, or provide a complete heating and cooling solution. The right result depends on more than choosing an outdoor unit. It requires accurate sizing, suitable indoor equipment, proper airflow, electrical planning, drainage, refrigerant piping, controls, and careful equipment placement.

Bernoulli Heating and Cooling installs heat pump systems for detached homes, townhouses, condos, basement suites, renovations, and new construction. We assess the property before recommending equipment because a system that works well in a newer Langley home may not suit an older Vancouver house, a Burnaby basement suite, or a strata property in Coquitlam.

If you are comparing a heat pump with other options, you can also review our air conditioner installation, furnace installation, and boiler installation services. The best choice depends on your existing system, energy source, ductwork, comfort problems, electrical capacity, and long-term plans for the property.

Why Heat Pump Installation Makes Sense for BC Homes

Homes in the Lower Mainland need reliable heating through long, damp winters and increasingly useful cooling during warmer summer periods. A heat pump handles both jobs. In heating mode, it collects heat from the outdoor air and transfers it indoors. In cooling mode, it reverses the process and removes heat from the home.

This approach can reduce the need for separate heating and air conditioning equipment. It can also improve room-to-room comfort when the system is selected and installed for the actual building rather than matched only to the size of the old furnace or air conditioner.

Heat pump installation is often considered by homeowners dealing with:

• High electricity use from electric baseboard heating
• A furnace that heats the home but provides no summer cooling
• An aging furnace and air conditioner that both need replacement
• Hot upper floors and cold lower levels
• Bedrooms that never reach the thermostat setting
• A finished basement or suite without adequate heating and cooling
• Limited space for adding conventional ductwork
• Frequent repairs on an older heat pump
• Noise from oversized or poorly placed equipment
• A plan to reduce reliance on fossil-fuel heating

A heat pump can address many of these problems, but only when the equipment and distribution system match the home. Installing a larger unit does not automatically create better comfort. Oversized equipment may cycle too frequently, create noticeable temperature swings, reduce humidity control during cooling, and place unnecessary stress on components.

How a Heat Pump Heats and Cools Your Home

A heat pump uses a refrigeration cycle to move heat instead of producing all its heat through electric resistance or fuel combustion. The system includes an outdoor unit, an indoor coil or air handler, refrigerant piping, controls, and a method of distributing conditioned air.

During winter, the outdoor coil absorbs available heat from the outside air. The compressor raises the refrigerant pressure and temperature, allowing the indoor coil to release that heat into the home. During summer, the refrigerant flow reverses. The indoor coil absorbs heat from inside the house, and the outdoor unit releases it outside.

Modern variable-capacity systems can adjust their output instead of operating only at full power. This allows the system to run for longer, steadier cycles during mild weather and increase output when the heating or cooling demand rises. The result can be more stable indoor temperatures, quieter operation, and better comfort than equipment that repeatedly starts and stops at full capacity.

Natural Resources Canada provides additional information about heating and cooling with heat pumps, including cold-climate operation and the importance of proper system sizing.

Heat Pump Systems Available for Different Homes

There is no single heat pump design that fits every property. The existing heating system, floor plan, ductwork, insulation, electrical service, outdoor space, and comfort priorities all affect the final recommendation.

Ducted Central Heat Pump Systems

A ducted heat pump uses a central indoor air handler or compatible furnace coil to distribute heating and cooling through the home’s ductwork. This option often works well for houses that already use a forced-air furnace.

Before connecting a new heat pump to existing ducts, the duct system should be reviewed for size, condition, leakage, airflow restrictions, and room distribution. Older ducts may have been designed for a furnace with different airflow characteristics. A powerful outdoor unit cannot correct undersized return air, disconnected branches, crushed flexible ducts, or rooms with poor supply airflow.

Ducted systems can suit:

• Detached homes with existing central ductwork
• Furnace replacement projects
• Homes that need whole-house heating and cooling
• Properties where homeowners prefer concealed indoor equipment
• New construction with properly designed supply and return ducts

A ducted system may use an electric air handler for a full-electric setup or work with a gas furnace in a dual-fuel configuration. The right arrangement depends on the home’s heating load, existing utilities, electrical capacity, budget, and desired backup heat strategy.

Ductless Mini-Split Heat Pumps

A ductless mini-split uses one or more indoor units without relying on a central duct system. Refrigerant lines and control wiring connect the indoor units to an outdoor unit. This design can provide efficient zoned heating and cooling while avoiding major duct renovations.

Ductless heat pumps are often suitable for:

• Homes heated with electric baseboards
• Older properties without central ducts
• Basement suites and home additions
• Garages converted into living areas
• Upper floors that stay too hot during summer
• Specific rooms with persistent comfort problems
• Condos where the proposed installation meets strata requirements

Indoor unit location matters. The unit needs a clear air path, proper condensate drainage, accessible filters, and a position that will not create uncomfortable airflow across beds, desks, or seating areas. Choosing the wall only because it is easiest for the installer can leave the customer staring at years of uneven comfort. Convenient piping is useful. Designing the room properly is better.

Multi-Zone Ductless Systems

A multi-zone system connects several indoor units to one outdoor unit. Each indoor unit serves a different room or area and can usually be controlled separately. This approach can help homes with multiple floors, separate suites, additions, or rooms that have very different heating and cooling loads.

Multi-zone design requires careful capacity planning. The combined nominal capacity of the indoor units does not always equal the output available to every zone at the same time. Line lengths, elevation changes, outdoor temperature, diversity between zones, and manufacturer limits all affect system performance.

A multi-zone heat pump should not be designed by simply adding an indoor head to every room. Some rooms may share air effectively, while enclosed bedrooms may need their own solution. The goal is to create useful zoning without oversizing the outdoor unit or installing more indoor equipment than the property needs.

Cold-Climate Heat Pumps

Cold-climate heat pumps use inverter-driven compressors, improved controls, and equipment designed to maintain stronger heating performance as outdoor temperatures fall. They can operate efficiently through much of the winter when properly selected for the local climate and the home’s heating demand.

The term cold-climate does not mean every model provides the same capacity at every temperature. Equipment performance changes as outdoor conditions change. The design should review manufacturer heating data at relevant temperatures, not just the capacity printed in the model description.

For Metro Vancouver and Fraser Valley homes, the installer should consider:

• The calculated heating load of the property
• Equipment capacity at lower outdoor temperatures
• The home’s insulation and air leakage
• Whether the system will cover the full heating load
• The type and capacity of backup or supplementary heat
• Defrost operation and outdoor unit drainage
• Comfort expectations during colder weather

Full-Electric Heat Pump Systems

A full-electric system uses a heat pump as the primary heating and cooling source. Depending on the design, the indoor air handler may include electric auxiliary heat for unusually cold conditions, defrost support, or emergency operation.

This option can suit homes moving away from electric baseboards, oil, propane, or gas heating. It may also work well in new construction where the electrical service, ductwork, insulation, and equipment space are planned around the heat pump from the beginning.

Before recommending a full-electric conversion, the electrical panel and service capacity should be reviewed. The assessment must consider the outdoor unit, indoor air handler, auxiliary heat, electric water heating, EV charging, cooking equipment, and other major electrical loads. Adding equipment first and discovering the panel limitation later is an expensive way to learn basic arithmetic.

Hybrid and Dual-Fuel Heat Pump Systems

A hybrid or dual-fuel system combines an electric heat pump with a gas furnace. The heat pump handles heating during suitable outdoor conditions and provides cooling during summer. The furnace can take over or support the system when controls reach the selected changeover conditions.

This setup may suit homeowners who:

• Already have a usable gas furnace
• Want to add efficient central cooling
• Prefer to keep gas backup heating
• Have electrical service limitations
• Plan to replace the furnace and outdoor equipment together
• Want flexibility between electricity and natural gas

Dual-fuel performance depends heavily on control setup. The thermostat or system controller must manage the heat pump, furnace, outdoor temperature logic, defrost cycles, and equipment staging correctly. Poor control configuration can cause unnecessary furnace operation, conflicting equipment calls, or higher energy use.

Full-Electric or Dual-Fuel: Which Option Is Better?

Neither option is automatically better for every home. A full-electric heat pump may make sense when the property has suitable electrical capacity, strong building performance, and a clear goal to move away from combustion heating. A dual-fuel system may be more practical when a gas furnace remains in good condition, the home has a higher heating load, or electrical upgrades would significantly increase the project scope.

The decision should follow a property assessment rather than a generic recommendation. Bernoulli Heating and Cooling reviews the existing equipment, distribution system, electrical capacity, outdoor installation area, and homeowner priorities before preparing a heat pump installation proposal.

Heat Pump Installation Starts With a Proper Home Assessment

A reliable heat pump installation begins before any equipment is ordered. The home must be assessed as a complete system. The outdoor unit, indoor equipment, ductwork, electrical service, controls, insulation, air leakage, drainage, and room layout all affect the final result.

A proper assessment should review:

• The existing heating and cooling equipment
• The age and condition of the furnace, air handler, or boiler
• The home’s floor area and number of levels
• Insulation levels and window condition
• Air leakage and noticeable drafts
• Existing duct size and condition
• Supply and return air locations
• Electrical panel and service capacity
• Available space for indoor and outdoor equipment
• Drainage options for cooling condensate and winter defrost water
• Noise-sensitive areas around the property
• Strata, municipal, or property placement restrictions
• The homeowner’s comfort, efficiency, and budget priorities

A heat pump should not be selected from square footage alone. Two homes with the same floor area can have very different heating and cooling requirements. A renovated home with upgraded insulation and windows may need much less capacity than an older house with original glazing, uninsulated walls, and significant air leakage.

Heat Loss, Heat Gain, and Load Calculations

System sizing should reflect how much heat the home loses during winter and gains during summer. This calculation helps determine the amount of heating and cooling capacity required under design conditions.

The assessment may consider:

• Outdoor design temperatures
• Indoor temperature targets
• Wall, ceiling, and floor insulation
• Window size, type, and orientation
• Air leakage
• Ceiling height
• Building exposure
• Number of occupants
• Internal heat from appliances and lighting
• Solar heat gain through windows

Heating and cooling loads are not always equal. A home may need more heating capacity in winter than cooling capacity in summer. Selecting equipment only from the cooling requirement may leave the home dependent on auxiliary heat during colder periods. Selecting equipment only from the heating requirement can create an oversized cooling system.

Variable-capacity heat pumps can manage this difference better than traditional single-stage equipment, but they still need correct design. Modulation helps a properly sized system adapt to changing demand. It does not rescue a poor equipment selection.

Why Oversizing Causes Problems

Some homeowners assume that a larger heat pump will heat and cool faster and therefore perform better. In practice, oversized equipment can create several problems:

• Short operating cycles
• Uneven room temperatures
• Reduced humidity removal during summer
• More noticeable starts and stops
• Higher initial equipment cost
• Additional wear on components
• Excessive airflow noise
• Poor performance in small zones

A heat pump should run long enough to distribute air evenly and maintain stable indoor conditions. Properly selected inverter equipment can operate at lower capacity for extended periods, which often improves comfort and reduces abrupt temperature changes.

Why Undersizing Also Matters

An undersized heat pump may run continuously without reaching the thermostat setting during colder or hotter weather. In a full-electric system, this can increase the use of electric auxiliary heat. In a dual-fuel system, the furnace may take over more often than expected.

Undersizing may lead to:

• Long periods of continuous operation
• Rooms that remain below the heating setpoint
• Frequent auxiliary heat use
• Reduced comfort during extreme weather
• Higher operating cost than expected
• Premature compressor stress

The correct goal is not to choose the smallest or largest system. The goal is to select equipment that matches the building load, distribution system, and backup heat strategy.

Existing Ductwork Must Support the New System

A central heat pump depends on airflow. Even high-efficiency equipment will struggle if the duct system cannot move the required volume of air.

Many older Metro Vancouver and Fraser Valley homes have ductwork designed around a gas furnace. The ducts may have limited return air, narrow branch runs, disconnected sections, poor insulation, or airflow restrictions that were already causing comfort problems before the heat pump was considered.

A ductwork review may include:

• Supply trunk size
• Return air capacity
• Filter size and restriction
• Branch duct condition
• Flexible duct compression or damage
• Disconnected or leaking joints
• Closed or blocked registers
• Duct insulation in attics, crawl spaces, and garages
• Airflow to upper floors and distant rooms
• Static pressure across the indoor system

Return Air Is Often Overlooked

The system cannot deliver conditioned air properly unless enough air returns to the indoor equipment. Restricted return air can increase static pressure, reduce airflow, create noise, and affect coil performance.

Homes with a single central return may experience closed-bedroom pressure problems. When bedroom doors close, supply air enters the room but cannot return easily to the air handler. This can reduce comfort and create pressure differences across the home.

Depending on the property, improvements may include larger return grilles, additional return paths, transfer grilles, duct modifications, or a less restrictive filter arrangement.

Duct Sealing and Insulation

Duct leakage wastes heating and cooling before it reaches the living space. This is especially important when ducts pass through an attic, crawl space, garage, or other unconditioned area.

Damaged or poorly insulated attic ducts can gain heat during summer and lose heat during winter. Before installing a new heat pump, these issues should be identified so the customer does not invest in efficient equipment while continuing to lose energy through neglected ductwork.

Electrical Capacity and Panel Assessment

Heat pumps use electricity for the outdoor unit, indoor blower or air handler, controls, and any electric auxiliary heat. The electrical assessment must confirm that the existing panel and service can support the proposed system.

The review may include:

• Main service size
• Available panel spaces
• Existing electrical loads
• Outdoor unit circuit requirements
• Indoor air handler circuit requirements
• Electric auxiliary heat capacity
• Disconnect location
• Wire size and routing
• Breaker requirements
• Future loads such as EV charging

A house with electric cooking, electric water heating, a hot tub, and an EV charger may have less available capacity than a similar property using gas appliances. The installation plan should account for the entire electrical load, not just the heat pump nameplate.

Some projects can proceed using the existing panel. Others may need circuit work, load management, a panel upgrade, or a service upgrade. These requirements should be identified before equipment installation begins.

Auxiliary Electric Heat Requires Careful Planning

A full-electric ducted system may include electric heat strips inside the air handler. These strips can support the heat pump during defrost, unusually cold weather, or emergency operation.

Electric auxiliary heat can place a significant demand on the electrical service. It should not be added casually or oversized without considering the calculated heat loss and available electrical capacity.

The control setup should also prevent unnecessary auxiliary heat use. Poor thermostat configuration can activate heat strips too early, reducing system efficiency and increasing electricity consumption.

Choosing the Best Outdoor Unit Location

Outdoor unit placement affects performance, noise, drainage, service access, appearance, and equipment life. The easiest location for piping is not always the best long-term location for the property.

The selected area should provide:

• Clear airflow around the unit
• Manufacturer-required service clearances
• Access for maintenance and repair
• Protection from roof runoff
• Suitable drainage during defrost
• A stable and level mounting surface
• Reasonable distance from bedrooms and neighbours
• A practical route for refrigerant lines and wiring
• Protection from physical damage
• Compliance with applicable property and strata requirements

Side Yard and Property-Line Restrictions

Many homes in Vancouver, Burnaby, New Westminster, and parts of the North Shore have narrow side yards. Installing an outdoor unit in these areas requires careful clearance planning.

A unit placed too close to a wall, fence, or neighbouring property may suffer from restricted airflow. It may also create a noise concern or make future service difficult.

The installation should consider:

• Distance from windows and doors
• Neighbouring bedroom locations
• Fence height and airflow restriction
• Access to the backyard
• Garbage and recycling storage
• Walkway clearance
• Future landscaping
• Property-line and municipal requirements

Rooftop and Balcony Installations

Some condos, townhouses, and commercial-style residential properties may require rooftop or balcony equipment placement. These projects need additional review.

The installation may need to address:

• Structural support
• Vibration isolation
• Drainage
• Equipment anchoring
• Service access
• Crane or lifting requirements
• Strata approval
• Visual restrictions
• Noise transfer into the building

Balcony placement can be especially sensitive. The unit must have enough open area to discharge and draw air without recirculating its own exhaust. A balcony that looks spacious to a person may still be unsuitable for equipment airflow. Apparently, refrigerant systems remain stubbornly unimpressed by real estate photography.

Heat Pump Noise and Vibration Control

Modern heat pumps can operate quietly, but equipment selection and installation quality still matter. Noise can come from the compressor, outdoor fan, refrigerant flow, indoor blower, loose panels, duct restriction, or vibration transferred into the structure.

Noise control starts with selecting a suitable location. An outdoor unit should not be placed directly beside a bedroom window when another practical location is available.

Installation methods may include:

• A stable ground pad or wall bracket
• Approved vibration isolation
• Correct refrigerant line support
• Clearance from fences and walls
• Proper panel fastening
• Suitable fan and compressor settings
• Duct modifications to reduce air noise

Wall brackets can be useful where ground space is limited or snow and drainage are concerns. They can also transfer vibration into the building if installed poorly. The wall construction, bracket position, equipment weight, and vibration control method should all be considered.

Drainage and Winter Defrost Water

Heat pumps produce water in both heating and cooling modes, but for different reasons.

During cooling, moisture condenses on the indoor coil. This water must drain safely through a properly sloped condensate line. Poor drainage can cause leaks, ceiling damage, odours, or biological growth around the drain system.

During heating, frost can build on the outdoor coil. The system periodically enters a defrost cycle to melt it. Water then drains beneath the outdoor unit.

The outdoor installation area must allow this water to move away without:

• Freezing across a walkway
• Collecting against the foundation
• Damaging landscaping
• Dripping onto a lower balcony
• Creating slippery surfaces
• Refreezing around the base of the unit

Drainage planning is especially important in Lower Mainland winters because repeated wet and cold conditions can create ongoing ice and water problems around poorly placed equipment.

Refrigerant Line Routing

Refrigerant lines connect the indoor and outdoor equipment. Their size, length, insulation, elevation difference, support, and protection affect system performance.

The installation must follow the equipment manufacturer’s requirements. Long line sets or major vertical changes may require additional refrigerant, specific piping practices, or accessories.

A proper refrigerant piping installation should include:

• Correct copper line sizing
• Clean tubing practices
• Protected wall penetrations
• Continuous insulation where required
• Support that prevents sagging and vibration
• Weather protection on exterior sections
• Sealed penetrations against air and water
• Accessible service connections

Exterior line-hide covers can protect the piping and create a cleaner appearance. The route should be planned before drilling begins, especially in finished homes, condos, and properties with limited exterior wall access.

Indoor Unit and Air Handler Placement

The indoor equipment should remain accessible for filter replacement, service, drainage inspection, and future repairs.

Air handlers may be installed in:

• Mechanical rooms
• Basements
• Attics
• Crawl spaces
• Garages
• Closets

Each location creates different installation concerns. Attic equipment needs safe service access, proper drain protection, insulation, and attention to summer heat. Crawl-space equipment requires moisture protection and practical access. Closet installations need airflow, clearance, and noise control.

Ductless indoor heads also require thoughtful placement. They should distribute air through the occupied space without blowing directly on people or being blocked by furniture, curtains, cabinets, or future renovations.

The Heat Pump Installation Process

The exact process depends on the selected system and the condition of the home, but a professional installation usually follows a structured sequence.

1. Property Assessment and System Design

The contractor reviews the home, existing equipment, comfort concerns, electrical service, ductwork, and possible equipment locations. The system type and capacity are then selected for the property.

2. Installation Proposal

The homeowner receives a proposal describing the recommended equipment, installation scope, included materials, controls, electrical work, permit responsibilities, removal of old equipment, and warranty information.

3. Permit and Installation Planning

Required permits and approvals are identified before work begins. Strata properties may also require written approval, equipment specifications, placement drawings, or noise information.

Technical Safety BC provides official information about heat pump permits and regulated work in British Columbia.

4. Removal or Modification of Existing Equipment

Old air conditioners, heat pumps, furnaces, air handlers, thermostats, or related components may need to be removed or modified. Refrigerant from existing systems must be handled correctly.

5. Indoor and Outdoor Equipment Installation

The outdoor unit, indoor coil, air handler, ductless heads, furnace, brackets, pad, piping, wiring, drains, and controls are installed according to the approved design.

6. Refrigerant Preparation

The refrigerant circuit is pressure-tested, evacuated, and prepared before startup. This step helps remove air and moisture from the system and confirms the piping can hold pressure.

7. Electrical and Control Connections

Electrical circuits, disconnects, communication wiring, thermostats, sensors, and auxiliary heat controls are connected and checked.

8. Startup and Commissioning

The system is operated in heating and cooling modes. The technician checks temperatures, airflow, refrigerant performance, controls, noise, drainage, and equipment response.

9. Homeowner Orientation

The homeowner should receive clear guidance on thermostat use, filter maintenance, outdoor unit care, operating modes, backup heat, and warranty registration.

Commissioning Is Not Optional

Starting the equipment and feeling warm or cool air does not prove that the system is operating correctly.

Commissioning may include checking:

• Supply and return air temperatures
• System airflow
• Static pressure
• Refrigerant charge
• Electrical readings
• Heating and cooling operation
• Defrost response
• Auxiliary heat staging
• Thermostat configuration
• Condensate drainage
• Noise and vibration
• Communication between indoor and outdoor equipment

Variable-capacity systems often rely on communicating controls and detailed setup menus. Incorrect configuration can limit capacity, activate backup heat too often, reduce comfort, or create fault codes after the installer leaves.

Common Heat Pump Installation Mistakes

Many heat pump complaints begin with installation decisions rather than equipment defects.

Common mistakes include:

• Selecting capacity from square footage alone
• Matching the new unit to the old equipment without a load review
• Ignoring duct restrictions
• Installing the outdoor unit in a confined area
• Placing equipment too close to bedrooms or neighbours
• Failing to plan defrost drainage
• Using poor refrigerant line practices
• Skipping proper evacuation
• Incorrect thermostat setup
• Oversizing electric auxiliary heat
• Leaving filters or coils difficult to access
• Failing to test all operating modes

A successful installation depends on the complete design. Equipment efficiency ratings matter, but the real-world result depends heavily on how the system is sized, installed, controlled, and commissioned.

How Much Does Heat Pump Installation Cost?

The cost of heat pump installation depends on the type of system, the size and condition of the home, the existing heating equipment, electrical capacity, ductwork, access, and the amount of labour required. A simple single-zone ductless installation has a very different scope from a complete central heat pump conversion with a new air handler, electrical upgrades, duct modifications, and auxiliary heat.

Important cost factors include:

• Single-zone, multi-zone, or central ducted design
• Heating and cooling capacity
• Cold-climate equipment requirements
• Number and style of indoor units
• Length and routing of refrigerant lines
• Existing duct condition
• Electrical panel and service capacity
• Need for auxiliary electric heat
• Removal of existing equipment
• Outdoor pad, wall bracket, or rooftop mounting
• Condensate and defrost drainage
• Permit and inspection requirements
• Access to attics, crawl spaces, roofs, or mechanical rooms
• Thermostats, controls, and zoning accessories

A lower quote is not automatically a lower total cost. A proposal that excludes electrical work, permits, duct changes, equipment removal, condensate drainage, startup procedures, or commissioning may become more expensive after installation begins.

Before comparing quotes, confirm that each proposal describes the same scope. The equipment model numbers, indoor and outdoor unit combination, electrical work, permit responsibilities, warranty, controls, and removal work should be clearly identified.

How Long Does Heat Pump Installation Take?

Many standard residential heat pump installations take one to three working days. The final schedule depends on the system type and the amount of related work required.

Panel upgrades, service upgrades, major duct changes, asbestos-related access concerns, structural work, or delayed strata approval can extend the project timeline. These items should be identified during the assessment rather than introduced as an unpleasant surprise after half the old system has already disappeared.

Heat Pump Rebates in British Columbia

Heat pump rebate programs in British Columbia change over time. Eligibility may depend on your existing heating system, property type, household income, utility provider, selected equipment, contractor qualifications, and whether the new heat pump provides partial-home or whole-home heating.

As of July 2026, BC Hydro advertises rebates of up to $4,000 for some eligible homeowners replacing electric heating with a qualifying heat pump. Partial-home offers may provide a different amount. Equipment, sizing, installation, and contractor requirements apply, and funding can change or end.

Some programs require:

• Pre-approval before equipment is purchased or installed
• A qualifying existing heating system
• Equipment listed on an approved product list
• A variable-speed compressor
• A heat load calculation
• A participating or approved contractor
• A paid invoice with specific equipment information
• Permit or inspection documentation
• Submission within a stated deadline

Whole-home rebate programs may require the heat pump to serve most finished living areas and meet a defined percentage of the home’s heating load at a specified outdoor temperature. Installing one indoor head in a convenient room may not qualify as whole-home heating, even if the sales brochure uses heroic adjectives.

Before approving a project, review the current BC Hydro heat pump rebate requirements and use the Better Homes BC rebate finder.

Bernoulli Heating and Cooling can identify equipment and installation details for your proposal, but final rebate eligibility and approval remain with the program administrator. A rebate should be treated as a possible project benefit, not as guaranteed payment.

Permits and Inspections for Heat Pump Installation

Heat pump work in British Columbia can involve several regulated trades. The required permits depend on the equipment, building, electrical work, refrigerant system, and whether gas equipment is removed, added, or modified.

A project may involve:

• Refrigeration installation requirements
• Electrical installation permits
• Gas permits for dual-fuel or furnace-related work
• Municipal building or development requirements
• Strata approval
• Local noise and equipment-placement rules

Technical Safety BC provides a residential heat pump permit guide to help identify the provincial permit requirements that may apply.

Municipal requirements can vary. Outdoor equipment placement, structural mounting, property-line setbacks, heritage restrictions, and building permits may fall under the local city or district. Strata properties may also require drawings, specifications, sound ratings, contractor insurance, and written approval before work begins.

Permit responsibilities should be written into the installation proposal. The homeowner should know which contractor is obtaining each permit and which inspections or declarations are included.

Heat Pump vs Air Conditioner

An air conditioner provides cooling only. A heat pump provides cooling and can reverse operation to heat the home.

If your furnace is in good condition and you only want cooling, an air conditioner installation may provide a simpler solution. If you want one outdoor system to provide heating and cooling, a heat pump may offer more flexibility.

Heat Pump vs Gas Furnace

A gas furnace creates heat through combustion and distributes it through ducts. A heat pump moves heat using a refrigeration system and electricity.

A furnace can provide strong supply-air temperatures and may remain practical in homes with high heating loads or limited electrical capacity. A heat pump provides cooling as well as heating and can reduce gas use or eliminate combustion heating in a full-electric design.

A hybrid system combines both technologies. The heat pump handles cooling and much of the heating season, while the furnace operates under selected conditions. Homeowners considering this setup can also review our furnace installation service.

Heat Pump vs Boiler

A boiler heats water for radiators, hydronic baseboards, or in-floor heating. A typical air-source heat pump heats and cools air.

Homes built around hydronic heating may not have suitable ductwork for a central air-source heat pump. In these properties, homeowners may keep the boiler and add ductless heat pumps for cooling and supplementary heating. Others may compare a boiler replacement with a larger mechanical-system renovation.

Review our boiler installation service if your home uses radiant floors, radiators, or hydronic baseboards.

Should You Repair or Replace an Existing Heat Pump?

Repair may make sense when the system is relatively young, the main components remain in good condition, replacement parts are available, and the failure is isolated.

Replacement may deserve consideration when:

• The system has reached an advanced age
• The compressor has failed
• The refrigerant is obsolete or expensive to manage
• Major leaks continue to return
• Several components have failed within a short period
• The system no longer heats or cools the home adequately
• Energy use has increased noticeably
• The original installation has major sizing or design problems
• You plan to change from partial heating to a whole-home system

Replacing equipment without correcting the original design problem can reproduce the same comfort complaints with newer machinery. Before replacement, the home, airflow, line routing, electrical requirements, and equipment location should be reviewed again.

Heat Pump Installation Service Areas

Bernoulli Heating and Cooling provides residential heat pump installation across Metro Vancouver and Fraser Valley. The pillar page covers general system planning, while each city page addresses local housing, climate, access, strata, drainage, noise, and placement conditions.

• Heat Pump Installation Vancouver
• Heat Pump Installation Burnaby
• Heat Pump Installation Surrey
• Heat Pump Installation Coquitlam
• Heat Pump Installation Port Coquitlam
• Heat Pump Installation Port Moody
• Heat Pump Installation North Vancouver
• Heat Pump Installation West Vancouver
• Heat Pump Installation Richmond
• Heat Pump Installation New Westminster
• Heat Pump Installation Delta
• Heat Pump Installation White Rock
• Heat Pump Installation Langley
• Heat Pump Installation Maple Ridge
• Heat Pump Installation Pitt Meadows
• Heat Pump Installation Abbotsford
• Heat Pump Installation Mission
• Heat Pump Installation Ladner
• Heat Pump Installation Tsawwassen

South Surrey is not included as a separate service page. Surrey service is covered through the main Surrey location page.

Other HVAC Services We Provide Across Metro Vancouver and Fraser Valley

A heat pump project sometimes overlaps with other heating, cooling, gas, and hot water decisions. A furnace may need replacement as part of a hybrid system. Existing ducts may need changes before a central heat pump can perform correctly. A boiler-heated property may be better suited to ductless cooling, while another home may benefit from a complete forced-air conversion.

Bernoulli Heating and Cooling also provides:

• Air conditioner installation for homes that need dedicated cooling
• Air conditioner repair for cooling failures and performance problems
• Furnace installation for central gas heating and hybrid systems
• Furnace repair for ignition, airflow, control, and heating problems
• Boiler installation for hydronic heating systems
• Boiler repair for pressure, circulation, leak, and no-heat problems
• Gas fireplace installation for safe, properly vented gas heating
• Gas fireplace repair for ignition, pilot, flame, and control issues
• Water heater installation for gas tank and tankless systems

Why Choose Bernoulli Heating and Cooling?

A successful heat pump project depends on more than the equipment brand. It depends on sizing, airflow, electrical planning, drainage, controls, refrigerant practices, and final testing.

Bernoulli Heating and Cooling focuses on:

• Property-specific system recommendations
• Clear explanations before equipment is selected
• Heating and cooling load considerations
• Ductwork and airflow review
• Electrical capacity planning
• Practical outdoor equipment placement
• Clean refrigerant line and drainage routes
• Code-compliant installation
• Heating and cooling startup testing
• Control setup and homeowner orientation

We serve homeowners throughout Metro Vancouver and Fraser Valley and provide free estimates for new heat pump installations.