Trane is a world leader in Air Conditioning Systems, Services and Solutions.  We have been serving clients with their HVAC mechanical, energy and contracting needs since 1913 and making your buildings more comfortable, more cost effective and more

Trane Canada-West supports your business through our network of eight commercial sales & service operations and four after-market parts stores covering markets from Vancouver Island, B.C. to Thunder Bay, Ontario. We are here to help you engineer the most suitable systems in building construction and after-sales service support for life.  We offer a full line of Trane branded mechanical systems as well as ancillary HVAC solutions from our global top-tier portfolio .

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Why Trane


  • Air Handling Units
  • Chillers
  • Cooling Towers/Fluid Coolers
  • Building Controls
  • Dehumidifiers/Humidifiers
  • Filtration
  • Heat Exchangers
  • Heat Recovery
  • Heating/Cooling Products
  • Industrial
  • Unitary
  • Terminal Units/Fan Coils

What We Offer

  • Proven Energy Savings to Increase Your Bottom Line
  • Seamless, Collaborative and Customer Focused Service from Industry Leading Specialists
  • Access to leading Service Technicians, Mechanical & Energy Engineers and Account Managers
  •  Industry Leading Innovators Designing Mechanical Systems for the Future
  • LEED® Certified and Passive House Canada Accredited Engineers
  • Remote Access and Online Dashboards for User Control
  • Trane Intelligent Services Data and Analytics
  • Advanced System Integrations of HVAC systems to Other Building Systems
  • 24/7 System Monitoring
  • Dedicated, Experienced and Local Advisors Who Always Have Your Best Interest in Mind

3 Things to Consider for Your Next Building Project

The way buildings are used — and the needs within building spaces — are continuously changing. Revitalization efforts turn abandoned warehouses into residential and commercial hot spots. Work place trends turn an old conference room into collaborative space or a wellness lounge.

Whether the changes are driven by corporate growth, new technology or shifting needs, building spaces must adjust. This is true for existing buildings and new construction.  

So how do you know what equipment and systems will meet your customers’ needs in your next building project? The answer is influenced by many factors — from upfront costs and ease of installation to integration with existing systems and flexibility for the future.

Key questions that drive next steps  

In planning your next building project, first consider a few key questions:

  • What is the budget?
  • How will the building be used and what are the operating hours?
  • What is the building size?
  • What are the energy and operational goals?
  • Will the building be managed with on-site facility staff?
  • How will results be measured?

The answers help you zero in on the right solutions and technologies to meet specific needs. A 50,000 square-foot building that is occupied 24/7 has very different needs than a 10,000 square-foot building that runs on a 9 to 5 schedule.

In choosing between the many heating, ventilation and air conditioning (HVAC) system options, consider these three factors to ensure the choice you make best meets your customers’ needs.

No. 1: Upfront costs versus long-term savings

Energy efficiency is a priority driving building design in many commercial spaces. Building owners and managers want solutions that improve efficiency, reduce costs and promote more sustainable building operation. Finding solutions that meet those needs results in more satisfied customers — making you more competitive.

Keep in mind that the most energy-efficient solution for a building may not be the option with the lowest upfront cost, just as the system with the lowest upfront cost may not be the most cost-effective long-term solution. There are trade-offs to consider when weighing these issues.

For example, are upfront cost savings so important that the building owner or manager would sacrifice long-term energy savings?

The right HVAC system is often determined by the size and usage of the building. Owners and operators of smaller commercial buildings may not have on-site facility staff, so they typically want a system that is easy to install, operate and maintain. Given these preferences, a unitary system is often a good choice for small commercial buildings.

With larger commercial buildings, there are more options to consider. Variable refrigerant flow (VRF) systems can provide affordable installation and energy efficiency over the life of the system. A chilled water system is another option in larger commercial buildings. These systems deliver high energy efficiency, but water-cooled chiller systems require ongoing water treatment and cooling tower maintenance.

Thermal energy storage can provide significant long-term cost savings by shifting a building’s energy use to off-peak hours when utility rates are lower. However, these systems are typically best suited to larger buildings because of the upfront cost and space requirements for installation.

While the project budget and priorities of the building owner are important, be sure to consider the return on investment. It’s important to look beyond upfront costs and consider the system’s long-term savings potential.

No. 2: Individual pieces versus whole building design

When specifying an HVAC solution, decisions are often made based on a single piece of equipment’s operating efficiency. But this is not the best way to achieve the most efficient building performance.

There are many variables that contribute to optimized building performance.

  • How is the building being used and occupied?
  • How do the various pieces of equipment in the building interact and work together?
  • What are the energy goals in the facility?

Instead, we must look beyond the efficiency of a single piece of equipment and consider the performance and efficiency of the entire building. Seeing the whole as greater than the sum of its parts can result in improved energy efficiency and operational cost savings for building owners and managers. And meeting customer needs with a systems-design approach can provide you with a competitive edge.

Proper energy modeling will help you evaluate equipment and determine which options will make the entire building more efficient. It allows you to optimize the systems from an energy and utility bill perspective before construction even begins — and it can pay off in improved energy efficiency and performance.

No. 3: Balancing today’s needs with future growth

Replacing or upgrading a system in an existing building requires a different approach than specifying a system for a new construction project. In existing buildings, consider what types of equipment and systems are already in place. Then look for options that can be easily integrated with existing systems and building controls. Ease of integration is also a factor when designing new buildings that are part of an existing campus or network of buildings.

Leveraging technologies already in place is one way to uncover cost savings. A hybrid VRF system, for example, can connect to existing building systems — such as a chilled water system — using integrated controls. This can result in more cost-effective expansion in some buildings.

And because building spaces are constantly changing, it’s important to consider which solutions provide the greatest flexibility for future changes. Using wireless communication technology to connect devices is one way to improve ease of integration and ensure greater flexibility for changes.

A building where equipment and systems are connected in the cloud also enables efficiency and performance. In many buildings, existing systems can be easily integrated with open protocols, such as BACnet™ or Modbus™. This includes the building automation system (BAS), which can offer cloud-based connectivity and control of building systems.

This connectivity can provide access to intelligent services that extract the operating data from building equipment and systems and use the connection into a building to run advanced analytics. This data enables facility managers to make informed decisions and take actionable steps to help ensure a building runs a peak efficiency long term — not just on day one.

Keys to success

Considering your customers’ priorities — from costs to energy efficiency to reducing ongoing maintenance requirements — can help you choose the right system for your next building project. Help deliver long-term savings and results for your customer, while positioning yourself as a valuable business partner.


Temperature and Humidity Control for Laboratories, Medical Imaging Rooms, Libraries & Archives

By Mike Lawler, Data Aire

Whether your emphasis is on pioneering technology, developing life-saving drugs or managing the integrity of sensitive documents or artifacts, maintaining the perfect environmental envelope is vital to your success.

  • Require tight control over temperature and humidity
  • Have large swings in cooling requirement daily & annually
  • Must dehumidify when little or no cooling is required

What Type of HVAC Provides Precision Air Control for Low Load Applications?

Applications that require both temperature and humidity control must use equipment that is capable of cooling, heating, humidifying and dehumidifying modes. The most effective way to address this need is to provide one piece of equipment that provides all those modes of operation. If the load in the space is large, over 40 or 50 tons, a custom package unit can provide this function.

It can be challenging, however to find equipment in smaller tonnages that can do the job. In response to this, engineers often attempt to use Computer Room Air Conditioners (CRAC) equipment in laboratories, libraries, archives, and medical imaging rooms that have lower cooling requirements. CRAC units provide all the modes of operation needed and they are available in sizes as small at 2 tons. A deeper look into these applications, however, will show that standard CRAC units are not suited to these applications.

Standard Computer Room Air Conditioning         

  • Cooling runs more than half the time to cool the room
    Minimal moisture removal (80-90% SHR adequate) needed
    Dehumidifies <10% of running time.

Highly Variable Cooling Load Rooms

  • Zero cooling load at times
  • 60-70% SHR needed
  • May have to dehumidify half of the run hours

Design Day Reasonable Tolerances

Standard CRAC units do a good job of controlling temperature and humidity when they are required to produce cooling that is at or near their maximum capacity. Maximum cooling capacity is called for on days when the outdoor ambient temperature nears its annual maximum and, at the same time, internal heat generation from lights people, and equipment are at their maximum. This condition is known as a design day with a concurrent design load in the space. Unfortunately, these conditions only occur a few hours a year. The farther the conditions fall below the above described maximums, the more difficult it becomes to control humidity in the space to within a reasonable tolerance. When the cooling requirements fall much below 50% of maximum, the space is often subject to wide swings in temperature & humidity that are totally unacceptable to the occupants of the space.

The reason is that the standard CRAC units are not designed to remove a significant amount of humidity per hour. The dehumidification in a CRAC unit is done by the cooling coil. As long as there is a call from the thermostat to deliver cooling to the space, dehumidification happens as a byproduct of cooling down the room. When the thermostat requires that cooling be delivered for 70% or 80% of the time, the CRAC unit can keep up with the dehumidification requirements in the space. But think about how few hours per year this requirement exists in rooms that are not data rooms. Essentially, those conditions only exist in the daytime, during the hottest part of the summer.

Understanding Dehumdification and Cost Controls

Dehumidification mode, by definition, means removing humidity from the air without sending any cool air into the space. Since the cooling coil removes the moisture this means that the CRAC unit must run the cooling and the heating in the unit at the same time.

There are two problems with this. First there is only ½ as much heat capacity in a standard CRAC unit as there is cooling capacity. That means the already minimal amount of dehumidification available at full load is cut in ½. You cannot increase the cooling capacity to get more dehumidification. If you do, there is not enough heat in the unit to offset the increased cooling capacity. Cold air would be delivered to the space and the space temperature will begin to drop too low. Unless it is hot outside and there is a significant requirement for cooling from the space a standard CRAC units simply cannot reach the desired humidity setpoint.

The second problem is that heat in CRAC units is provided by electric resistance heating elements. From a power cost standpoint, this is absolutely the most expensive source of heat anyone can use. In a data room the electric heat runs only a handful of hours a year so this is not an issue. In other applications though, the electric heat runs hundreds or even thousands of hours per year while in the dehumidification mode.

These problems are particularly acute in laboratories, archives, libraries, clean rooms, dry storage and other applications that require that humidity be controlled in the absence of a need for cooling.

Small clean rooms are usually rooms surrounded by a space that already has temperature, but not humidity control. Like an archive, there is very little need to cool the space and the primary mode of operation is dehumidification. Laboratories, libraries, museums, MRI suites, CT scan rooms, art vaults and many other applications face the same challenge, dehumidification is needed more than cooling is needed.

Interpret the Temperature and Humidity Needs of Your Space with an All-In-One HVAC

Data Aire has solved these challenges by introducing InterpretAireTM, a packaged cooling, heating, humidifying, and dehumidifying unit that has all of the advantages of a standard CRAC unit and none of the drawbacks. The thing that sets InterpretAireTM apart from the competition is its ability to dehumidify when there is no need for cooling. Humidifying is relatively straightforward and easy for a standard CRAC to accomplish. Precise temperature control is not that difficult in most applications either. There are multiple strategies that standard CRAC units can use to deliver good temperature control. None of those strategies allow the CRAC unit to deliver better dehumidification control.

The Data Aire InterpretAire climate management system can be programmed to maintain constant temperature and humidity within a laboratory, clean room, museum, library or archive to ensure a desired outcome. Consistency and precision were key drivers in the development of the InterpretAire solution. InterpretAire quite literally interprets the needs of the space, and maintains the unique temperature and humidity perimeters mandated for high-accuracy standards.

Your application needs are specific; your environmental control equipment should be, too.


Q&A:  New Generation of Alternative Refrigerants

What concerns are there about HFCs?

With growing concerns about the impact on the environment and climate change, pressure has been mounting for years to reduce the use of high-GWP refrigerants across many applications and industries.

One of the reasons HFCs are under pressure is because they have longer atmospheric lives. For example, R-134a survives 14 years compared to R-1233zd(E), one of the new alternative refrigerants, at only 29 days. All chemicals have a finite life, but some are more stable than others. In general, the shorter the atmospheric life, the lower the environmental impact because the chemical does not endure long in the atmosphere and have an impact.

Today, the next-generation refrigerants are more expensive than the current refrigerants in the marketplace.  If we look at the history of past refrigerant transitions, we can expect the current generation HFCs to begin to become more expensive in the coming years, and the new HFO refrigerants to come down in price as more factories are built and use spreads to more industries.  This pricing shift in refrigerants could push the transition to next generation solutions ahead of current mandated phase out dates.

What actions have been taken to phase down HFCs? (i.e., SNAP, Kigali Agreement) What is the timeline?

On October 15, 2016, the Kigali Amendment to the Montreal Protocol was signed, paving the way for the global phase-down of HFCs. All 197 member countries, including the United States and Canada, agreed last year to amend the Montreal Protocol (an international treaty originally designed to reduce the production and consumption of ozone-depleting substances) to phase down HFCs.

Ahead of the Kigali Amendment, the U.S. Environmental Protection Agency (EPA) issued two rules regarding the change of listing status of certain HFCs in the United States. The first rule established phase-out dates for HFCs in retail food refrigeration, aerosol propellants and motor vehicles. The EPA used its regulatory authority through the Significant New Alternatives Policy (SNAP) by designating particular HFC refrigerants as “unacceptable” and disallowing their use in aerosol propellants starting in 2016, new retail food refrigeration starting in 2017, and motor vehicles with model year 2021. The second EPA rule established the phase-out date for certain HFCs in chillers. Specifically, R-134a, R-410A and R-407C are banned from use in new chillers (air-cooled and water-cooled, scroll, screw and centrifugal) beginning January 1, 2024.

In a separate rule, the EPA also made several other changes to management requirements for refrigerants in Section 608 of the Clean Air Act, entirely in effect by January 1, 2019, to include the following:

  • Extending the requirements previously in place for only ozone depleting substances, such as chlorofluorocarbons (CFCs) and hydrochlorofluorocarbons (HCFCs) to include all replacement substances, including HFCs and the new hydrofluoroolefin (HFO) options. Hydrocarbons in small, self-contained systems are given an exception for venting.
  • Reduced trigger leak rates for a 12-month period (for example, from 15% to 10% for comfort cooling equipment), which require owners or operators to take corrective action. This may push or incentivize the industry to move to technologies that are more hermetic with fewer joints and seals, for better long-term refrigerant containment.
  • New requirements for mandatory leak inspections on equipment and increased record keeping requirements.

Are alternative refrigerants available?

New refrigerant technology is developing rapidly and alternative refrigerants are starting to emerge as potential next-generation solutions. These choices are nonflammable solutions. The two low pressure options feature ultra-low GWPs, one of which has operating pressures similar to R-123, that are ideal for chiller applications with larger refrigerant charge sizes. There is also a nonflammable alternative to R-134a, which has a significantly reduced GWP.

These alternative refrigerants are characterized by very short atmospheric lives (measured in months or even days, which results in refrigerants with “effectively zero” ODP and low GWPs.  This new class of refrigerants is collectively referred to as hydrofluoroolefins (HFOs) and includes new options such as R-1233zd(E), R-1234yf, R-1234ze(E), R-1336mzz(Z), R-513A, R-514A, R-452B and R-454B).

What are the main ones for commercial and institutional HVAC equipment?

The low–global warming potential refrigerants that are primarily being used for commercial and institutional HVAC equipment are: R-514A and R-1233zd(E) — both featuring an ultra-low GWP of less than 2, and R-513A, a next-generation, low-GWP refrigerant. R-513A provides an excellent performance to R-134a, with a 56 percent reduction in GWP.

Is equipment that uses the alternatives available now?

Yes, there are equipment options already available on the market that can use these alternative refrigerants. Trane® is already offering customers options to reduce greenhouse gas emissions in their facilities through the use of next generation refrigerants in HVAC products. Trane plans to transition their current portfolio of HVAC products that use refrigerants to be compatible with next generation refrigerants well before phase-out dates to offer customers choices without compromising safety, reliability and efficiency.

We have expanded our chiller portfolio significantly in the last 18 months to address the increasing customer demand for climate-friendly systems. Our promise to customers has always been to deliver right product with the right refrigerant at the right time, ensuring that products meet all regulatory requirements.

The EcoWise™ portfolio was created by Ingersoll Rand® as part of our company’s Climate Commitment to reduce greenhouse gas emissions from its products and operations by 2030. Trane products within the EcoWise portfolio meet the following requirements:

      • Are available with next-generation, lower-GWP refrigerants
      • Reduce greenhouse gas (GHG) emissions
      • Maintain safety and energy efficiency through innovative design
      • Meet or exceed emissions regulations

The following products have earned the EcoWise endorsement:

Trane® CenTraVac™ centrifugal chillers for large buildings and industrial applications can operate with either R-123 or next-generation refrigerants R-514A or R-1233zd(E) — both featuring an ultra-low GWP of less than 2.  

Trane Series S™ CenTraVac chillers deliver the highest full and part-load efficiencies on the market today, offering customers a choice of either R-123 or the next generation refrigerant R-514A that has an ultra-low GWP of less than two.

Trane Series R® RTWD water-cooled chiller and Trane Sintesis™ air-cooled chillers can operate with a choice of R-134a or Opteon™ XP10 (R-513A), a next-generation, low-GWP refrigerant.

Is the industry expecting any disruptions?

As standards and codes continue to change, there are many factors to consider as the industry works to find the best balance between minimizing environmental impacts, maintaining safety, and managing product costs.

The HVACR industry will likely have to adjust product refrigerant charge sizes in most direct expansion applications to meet the standards. The establishment of the new 2L sub-classification for refrigerant flammability addresses new next-generation refrigerants that have lower flammability characteristics. The HVACR industry is actively investigating the safety of flammable refrigerants for indoor and outdoor use, and determining the risks of flammable refrigerants by understanding the probability of potential occurrences and severity of events in various application situations including servicing and handling. Some direct refrigerant expansion applications where refrigerant charge sizes are quite large, such as large splits, VRF systems, and large distributed commercial refrigeration systems, may not be available in their current form in the future because of flammability requirements.

The HVAC industry has worked very closely with the US EPA to ensure that the phase down timelines allow an appropriate amount of time for manufacturers to develop product with next generation solutions.  Ingersoll Rand® intends to have products available in all market segments with next generation solutions ahead of the required transition dates.

Are there tradeoffs with the new refrigerants?

Refrigerant selection is a balancing act. While the HVACR industry evaluates next-generation refrigerant alternatives, the challenge is to balance environmental benefits with safety, sustainability and design requirements. It’s likely that tradeoffs between GWP, flammability and efficiency will be needed to be made in selecting refrigerants.

When considering refrigerant alternatives for the future, policy makers, the public and manufacturers must select refrigerants with the best balance of the following:

  • Environmental performance (direct environmental impact such as reduced GWP)
  • Safety for consumers (flammability and toxicity)
  • Energy efficiency (indirect environmental impacts such as reduced CO2 emissions)
  • Intellectual property considerations
  • Transition costs (impact on industry and consumers)
  • Product sustainability (long operational life, reliability, maximizing recyclable content and repurposing components)

One of the most important environmental impacts to consider when transitioning to new refrigerants is energy efficiency.  We believe that there will be a great opportunity for the industry to improve energy efficiency with next-generation solutions.  R-410A replacements are currently being developed which could see significant efficiency improvements. For large tonnage centrifugal chillers, we are seeing the industry looking toward more efficient low pressure solutions (like R-514A and R-1233zd(E)) that are better in efficiency than medium pressure R-134a.

U.S. Environmental Protection Agency, 2015, Federal Register, Vol.80, No.138, p.42870-42959.

U.S. Environmental Protection Agency, 2016, Federal Register, Vol.81, No.231, p.86778-86895.

U.S. Environmental Protection Agency, 2016, Federal Register, Vol.81, No.223, p.82272-82395.