EPA

Carrier is proud to introduce its newest water-source heat pump models, the Aquazone™ 50WC, 50WD, and 50WT, which feature lower-Global Warming Potential Puron Advance™ refrigerant. Carrier is a part of Carrier Global Corporation, a pioneer in intelligent climate and energy solutions. The 50WC is available from ½ to 6 nominal tons and has a compact, optimized design in both vertical and horizontal configurations ideal for new construction and replacement applications. 50W-Series heat pump models The 50WT offers the highest level of efficiency in the series with 2-stage operation from 2 to 6 tons The 50WD is available with the same capacity range and offers a higher efficiency level, and 2-stage operation from 2 to 6 tons capacity, for enhanced energy savings. The 50WT offers the highest level of efficiency in the series with 2-stage operation from 2 to 6 tons.  All 50W-Series heat pump models include enhanced serviceability features, a wide variety of factory-installed options and flexible configurations suitable for boiler tower, geothermal and hybrid water loop systems. Intelligent HVAC solutions “The AquaZone heat pump line was created to offer increased efficiency and configurations to match a wide range of applications,” said Alan Youker, Sr. Product Manager, Carrier. “The 50WC is our latest update, providing more options and a smaller footprint and proving once again that Carrier is committed to providing intelligent HVAC solutions to fit the needs of its customers." Use of lower GWP refrigerant Puron Advance is the retail name for R-454B, which Carrier has adopted for its commercial products Youker added: "The 50WD’s and 50WT’s higher efficiency and use of lower GWP refrigerant makes them ideally suited for LEED® certification projects, especially those involving geothermal systems.” Puron Advance is the commercial name for R-454B, which Carrier has adopted for its light commercial and residential products. Reduction from R-410A Its GWP100 of 466, according to the Intergovernmental Panel on Climate Change Fourth Assessment Report, is a 75% reduction from R-410A. GWP is a measure of a substance’s climate warming impact compared to CO2.  That reduction and its non-ozone depleting potential is why Puron Advance was selected as one of the best solutions to minimize environmental impact and provide longevity based on updated government regulations.

Weil-McLain®, a pioneer in hydronic comfort heating solutions, introduces the ECO™ HP Air-to-Water Heat Pump, a cutting-edge electric heat pump designed for residential and light commercial applications. This new system is a key component of the ECO™ Hybrid Dual-Fuel Hydronic System, combining the efficiency of a heat pump with the reliability of a traditional gas boiler to deliver superior energy-efficient gains, consistent comfort, year-round domestic hot water capabilities and reduced carbon emissions. hybrid dual-fuel hydronic system ECO HP operates efficiently in milder temperatures, seamlessly transitioning to the boiler during cold The ECO HP operates efficiently in milder temperatures, seamlessly transitioning to the boiler during extreme cold to ensure consistent warmth, hot water production and reduced energy consumption year-round. “This hybrid dual-fuel hydronic system is engineered to provide the best of both worlds – utilizing the heat pump’s high efficiency and decarbonization potential while leveraging the boiler’s dependability as a backup when needed,” said Elliott Willey, Director of Product Management & Climate Conscious with Weil-McLain. “By integrating this hybrid system, homeowners can reduce their carbon footprint and increase their overall system efficiency to support a more sustainable future.” integrating the ECO HP within a traditional gas boiler The ECO Hybrid System redefines home heating by integrating the ECO HP within a traditional gas boiler hydronic heating system, providing an adaptable, dual-fuel solution. This setup ensures homes remain warm even in the coldest climates by leveraging the heat pump’s efficiency during milder temperatures and the boiler’s reliability as a backup. The hybrid approach not only extends the life expectancy of both appliances but also offers significant energy savings, making it a budget-friendly and environmentally conscious choice. The ECO Hybrid System Weil-McLain understands that useful installation is crucial for homeowners and contractors Weil-McLain understands that practical installation is crucial for both homeowners and contractors. The ECO Hybrid System is designed for flexibility, allowing for phased installation, which is especially beneficial when replacing a failed boiler in the cold of winter. “We designed the ECO Hybrid System for phased installation, allowing contractors to quickly restore heat with a heat-pump-ready boiler during winter, and add the outdoor heat pump in warmer months to maximize efficiency without interrupting home comfort,” said Willey. Unparalleled Efficiency and Quiet Operation Engineered with noise reduction technology, the ECO HP operates at a quiet sound due to a bionic fan design and enhancements in its twin-rotor compressor. These features make it ideal for residential settings where noise reduction is a priority. Unlike forced-air heating systems that distribute heat through the air, the ECO HP uses hot water in a closed-loop system to provide radiant and convective heat, offering improved indoor air quality by reducing the spread of dust, allergens, and airborne pollutants. This approach enhances comfort and health by maintaining a cleaner indoor environment. Reliable and energy-efficient solution ECO HP is designed to deliver domestic hot water year-round, providing a reliable and energy-efficient In addition to heating, the ECO HP is designed to deliver domestic hot water year-round, providing a reliable and energy-efficient solution for all seasons. This ensures homeowners benefit from a consistent hot water supply while optimizing energy use, even during peak demand periods. As part of the dual-fuel solution, the ECO HP ensures consistent comfort, extends equipment life expectancy and delivers significant energy savings across all climates. Eco-friendly R32 refrigerant The system operates with an eco-friendly R32 refrigerant, offering up to three times greater efficiency compared to traditional heating methods. To optimize these benefits, Weil-McLain has developed the ECO Calc Application Sizing Tool. This innovative tool aids in properly sizing the application by analyzing data on the home’s heating load, heat pump capacity, localized weather data and utility rates and more, ensuring the system performs at its best in every installation.

A cutting-edge new Sustainable Home Center, from the UK’s pioneering heat pump manufacturer, Daikin, has officially launched in Wembley in collaboration with Infinity Energy Organization. The grand opening of the center was celebrated with a launch event on Friday, 7th February. The opening underlines Daikin’s commitment to upskill engineers on low-carbon heating solutions. low-carbon home heating Local installers are also welcome to bring along customers to educate and introduce them on products These centers help to educate homeowners in the area on the benefits of sustainable and low-carbon home heating, supporting anyone considering the transition. Local installers are also welcome to bring along customers to educate and introduce them on products. The center is a collaborative effort between Daikin and Infinity Energy Organization, a company that provides innovative technologies and services, including energy-efficient products, training hubs, and expert consultancy. Additionally, the company assists clients in accessing government grants and schemes, making the transition to sustainable energy solutions more affordable. Climate change and reduce energy consumption Manoj Patel, Managing Director of Infinity Energy Organization, commented: “What you see in the showroom today is a vision I had 10 years ago while working in the energy efficiency industry. Many people face constraints when it comes to making their homes more energy efficient." "However, it’s crucial to embrace these solutions to help combat climate change and reduce energy consumption. With the support of Daikin, we can raise awareness and promote energy efficiency, making a real difference for the future.” Daikin’s Sustainable Home Network Daikin’s nationwide Sustainable Home Network provides localized support and resources to anyone Daikin’s nationwide Sustainable Home Network provides localized support and resources to anyone considering the transition. The centers offer incentives to local engineers via access to complimentary training courses, enhancing their skills and knowledge at no cost. The event was attended by Dawn Butler, MP for Brent East, and Daikin UK’s Managing Director Tomoji Miki, to mark the centre's official opening. Future of homes  Dawn Butler, MP for Brent East, stated: “Nothing makes me happier than seeing local businesses grow the way you have – for the benefit of our community. You started this business with just £2,000 in a downstairs space, and now you own this incredible building, creating opportunities for people to experience the future of our homes firsthand." "This is the kind of growth we want to see in our country – businesses thriving and expanding. I hope we can extend apprenticeship programs into schools because that’s the kind of future I want to support.” EV charging points and solar panels Daikin found that 81 percent of respondents believe that environmentally friendly features Low-carbon features are increasingly seen as an integral part of a home. As part of its recent Modern Home Must Haves campaign, fronted by Laurence Llewellyn-Bowen, Daikin found that 81 percent of respondents believe that environmentally friendly features such as a heat pump, an EV charging point and solar panels are now a modern home must have, rather than a nice to have.  A whopping 81 percent wish their current home was more environmentally friendly but have no idea where to start to rectify it. Range of sustainable home solutions Homeowners have the opportunity to see, touch, and experience a range of sustainable home solutions, including heat pumps, EV chargers, and solar panels, at the Infinity Energy Organization showroom.  This showroom serves as a great starting point for anyone looking to learn more about sustainable living, offering valuable insights and information on various eco-friendly home technologies. Daikin’s latest heat pump technology The center aims to certify installers to embrace renewable heating and to enable them to return a boiler To address this issue, visitors to the Sustainable Home Center will be able to experience Daikin’s latest heat pump technology and meet experts in the field.  The center aims to empower installers to embrace renewable heating and to encourage them to replace a boiler, old heat pump, or any other heat source with the Daikin Altherma HHT to receive £500 cashback or credit with Daikin. Transitioning from a fossil fuel boiler Commercial Manager of Heating & Renewables at Daikin UK, Iain Bevan, commented: “Heat pumps hold immense potential for slashing energy consumption and home bills." "Over their 15-year lifespan, transitioning from a fossil fuel boiler to an air source heat pump could yield savings exceeding £3,000 compared to gas boilers, over £6,000 compared to oil, and surpassing £9,000 compared to LPG." Government’s Boiler Upgrade Scheme Bevan added: “Our studies reveal that a staggering 68% of homeowners are unaware of the significantly higher energy efficiency of heat pumps over gas boilers. While gas boilers operate at 70-90% efficiency, heat pumps soar between 300-400%." "There’s an essential need to educate homeowners about heat pump technology, and our Sustainable Home Centers, like Infinity Energy Organization Wembley, offer the ideal platform for such endeavors. Furthermore, with substantial funding of £7,500 accessible through the Government’s Boiler Upgrade Scheme, homeowners have the remarkable opportunity to undertake green energy efficiency enhancements.”

“If you don’t like the weather in New England, just wait a few minutes.” To this day, Mark Twain’s quote is used to describe quickly changing weather conditions in regions throughout the United States, United Kingdom, and elsewhere. However, in contrast to the weather, the climate change being experienced globally is creating nontraditional conditions that are much more permanent. Consequently, HVACR systems are being subjected to a new set of conditions that, if not addressed properly, may significantly impact performance, efficiency, and lifespan.  Report from Climate Central 75% of the Earth’s land has become permanently drier over the last three decades Consider a few examples. According to a recent report from Climate Central, as a result of climate change, Michigan has nine fewer subfreezing days in winter. The European Union’s Copernicus Climate Change Service reported that the average temperature in the summer of 2024 in Europe was 1.54 C above the average between 1991 and 2020.  According to the United Nations Convention to Combat Desertification, 75% of the Earth’s land has become permanently drier over the last three decades, caused in part by declining humidity in some regions. Climate change impacts such as these have made it increasingly important for HVACR contractors to understand the ways new weather-related factors can challenge equipment performance and durability—and to help customers optimize the resiliency of their systems. Three main challenges To follow are insights and tips that can help contractors successfully “weather” three main challenges driven by climate change: extreme heat, high or low humidity, and extreme weather events.  As this information demonstrates, no matter how hot, dry, wet, or stormy your region has become, being proactive in system checks and maintenance can help customers’ systems run effectively, minimize repair costs, and ensure equipment operates through its expected lifecycle.  Climate-change impact one: extreme heat In extreme heat, parts such as compressors and condensers undergo more than the standard wear From potential leaks to higher energy bills, the need for air conditioners to run longer and harder to achieve desired cooling temperatures as temperatures rise can be literally and figuratively costly to your customer, a building’s occupants, and the environment. In extreme heat, components such as compressors and condensers undergo more than the standard wear and tear. If not properly maintained to meet rigorous demands, equipment may not be able to cool a space adequately. This means it will potentially consume more energy and increase energy bills. Equipment could also overheat, break down, require costly repairs, and reach end of life more quickly. In addition, higher temperatures, longer run times, and increased condensing pressure may lead to more leaks. Take these steps to help HVACR system owners overcome the challenges of extreme heat: Check air filters frequently and replace them as needed. Dust and debris can accumulate quickly in hot, dry weather. Perform comprehensive regular maintenance. This should include cleaning condenser coils and maintaining proper refrigerant levels. Optimize settings. Raising the thermostat slightly when daily temperatures peak can help reduce energy consumption and wear and tear on components. Work with facility managers to ensure proper building insulation. This can reduce heat gain and lessen the burden on air conditioning systems. Create shade for outdoor units and keep them clear of debris. Protection from direct sunlight can help maintain cooler operating temperatures. Climate-change impact two: humidity Indoor comfort and HVACR system performance depend on keeping the right humidity balance Indoor comfort and HVACR system performance depend on maintaining the right humidity balance. When humidity is too low, air is dry and static, leading to discomfort for occupants and potential issues with air quality and system operation. However, if humidity is too high, systems will have to work harder to remove moisture from the air while simultaneously providing the desired level of cooling. Take these steps in high-humidity situations: Keep tabs on moisture buildup and perform regular cleaning of components such as ducts, filters, and evaporator coils. Identifying and removing moisture accumulation can prevent damage from mold or corrosion. Ensure proper insulation of ductwork to help mitigate moisture buildup. Enhance dehumidification systems and make sure they are properly sized to handle specific humidity levels. Check air filters, blowers, condensate drains, and ductwork to ensure proper airflow. In low-humidity situations: Install humidifiers. Consider humidifiers that can be integrated with the heating/cooling system to achieve a consistent level of approximately 30% to 50% relative humidity. Perform regular humidifier maintenance, including cleaning and replacing filters, checking for mineral deposits, and ensuring all lines are clear. Ensure proper insulation of ductwork and seal any leaks. Perform regular maintenance checks of HVACR systems as noted above Climate-change impact three: extreme weather events It’s not unusual for extreme weather events—including intense thunderstorms, snowstorms, and windstorms—to cause power outages and surges, flooding, or high winds, all of which can physically damage HVACR equipment. To avoid system problems or, possibly, total system failure it’s important to assess damage as quickly and thoroughly as possible then implement the necessary repairs or replacements. Be sure in these situations to always prioritize technician safety and, where applicable, to obtain clearance from emergency responders.  Take these steps to support system resilience during extreme weather events: Conduct routine maintenance as noted in factors one and two above. Work with facility managers to ensure buildings have proper insulation and weatherproofing. Have emergency backup power sources in place. Ensuring continual operation during power outages is especially important for mission-critical systems. Best practices for routine equipment checkups One final point to consider on this topic is that employing the practices above can help reduce further contributions to the global warming that drives climate change. One example is taking steps to prevent refrigerant leaks. Another is energy conservation that can be achieved by systems that run at optimized efficiency. Even efforts to prolong the lifespan of systems can help decrease the waste of resources and other materials.  While “waiting a few minutes” may prevent someone from unnecessarily canceling a ballgame or picnic on account of rain, the HVACR industry needs to address the challenges of climate change “without delay” and for the foreseeable future. Continuing best practices for routine equipment checkups and maintenance, increasing system checks in climates that have become hotter, drier, wetter, or stormier than usual; and employing some new techniques can all work together to ensure resilient systems, satisfied customers, and a healthier planet.

It’s often said the only constant in life is change. In the HVACR industry, that phrase has been especially true. We saw another year of transitions in 2024 that included evolving efficiency and refrigerant regulations, changing corporate net zero targets, the continued emergence of advanced heat pumps, and the impact of artificial intelligence (AI) in building management.  Smart and sustainable Throughout these transformations, the industry continues to overcome challenges and innovate as we transform the places where people live, work, and play into smarter, healthier, and more sustainable spaces.    As we look toward 2025, we can expect to see a continued, industrywide focus on decarbonization, heat pump development, A2L refrigerants, and AI as regulations expand and new technologies emerge.    Decarbonization  Decarbonization continues to be a very high priority for both the residential and commercial sectors Decarbonization continues to be a very high priority for both the residential and commercial sectors. This focus has transformed the way we design and install HVAC equipment and has created tremendous opportunities for those who invest in educating themselves on the evolving technologies, regulations, and incentives. Today’s building professionals and homeowners have an unprecedented number of incentives available at the federal, state, and utility levels encouraging decarbonization transitions.  Digital and net zero services For example, tax credits such as 25C for consumers and 179D for commercial building owners were expanded under the Inflation Reduction Act (IRA) and can significantly reduce the upfront costs of high-efficiency equipment, creating a compelling offer to replace less efficient systems. In commercial buildings, combining high-efficiency HVAC equipment like electric heat pumps with digital technologies and net zero services can help empower organizations to optimize their buildings and subsystems for both the short- and long-term. Heat pumps  Heat pump technology has advanced significantly in recent years, providing an electrified, high-efficiency HVAC option for nearly all applications – even those operating within colder climates. The Department of Energy’s (DOE) Residential Cold Climate Heat Pump (CCHP) Technology Challenge has propelled the successful introduction of heat pump prototypes that can withstand subfreezing weather. Similarly, the DOE’s Commercial Building Rooftop Heat Pump Accelerator program has helped drive packaged heat pump performance toward greater efficiency for commercial and light commercial buildings located in colder climate zones.  Water-to-water heat pumps Water-to-water heat pumps can replace legacy chiller and boiler combinations without the need for major changes Innovations in commercial water-to-water compound centrifugal heat pumps are also accelerating decarbonization within building retrofits. For facilities that require simultaneous heating and cooling, such as hospitals and universities, water-to-water heat pumps can replace legacy chiller and boiler combinations without the need for major changes to the existing HVAC infrastructure. This partial decarbonization approach can help building operators achieve their decarbonization goals while also lowering operational expenses (OpEx). In many instances, this reduction in OpEx also provides a path to funding additional decarbonization strategies.      A2L refrigerants   The EPA continues to make strides in reducing the consumption and production of hydrofluorocarbons (HFCs) under the American Innovation and Manufacturing (AIM) Act. As part of the AIM Act, the Technology Transitions Program will usher in sector-based regulations beginning January 1, 2025, prohibiting the manufacturing of equipment using refrigerants with a GWP higher than 700.  New protocols As a result, new equipment will continue to hit the market throughout 2025. In tandem, many contractors and technicians will begin working with A2L refrigerants for the first time. Because these refrigerants are classified by ASHRAE as mildly flammable, new protocols for safe refrigerant servicing, storage, and transportation, and refrigerant leak detection (RDS) requirements will be necessary for some applications.   ACCA A2L refrigerant training Contractors should complete ACCA A2L refrigerant training and EPA section 608 certification With these changes, it is important to become familiar with updated codes, including UL 60335-2-40, 3rd and 4th editions, ASHRAE 15 and 15.,2, and the AHRI Safe Refrigerant Transition Task Force (SRTTF), as well as local and state regulations. Contractors should also complete ACCA A2L refrigerant training and EPA section 608 certification. Additionally, new digital tools such as RDS calculators can help contractors navigate A2L leak detection requirements and mitigation strategies while in the field.    AI and controls   AI is positioned to continue to make a huge impact in HVAC. We’re seeing more service techs using generative AI and co-pilots for troubleshooting rather than paging through manuals. At the same time, AI technology can predict if connected HVAC units may have issues, making it possible for service techs to address potential issues in their earliest stages or prevent them from happening altogether. Both of these use cases can help technicians service equipment more quickly, efficiently, and accurately, which can increase equipment longevity and reliability while reducing downtime and total cost of ownership.   Building performance AI-powered building controls can provide a holistic view into contextualized, full-building performance More HVAC systems are being equipped with AI-enhanced controls and reporting. The capabilities these tools provide can give building owners greater opportunities to optimize building performance, improve occupant comfort and well-being, and more easily reach sustainability targets. From a building management perspective, AI-powered building controls can provide a holistic view into contextualized, full-building performance, occupant experience, and sustainability. Openness and flexibility As AI becomes more commonplace, AI-centric building standards, such as ASHRAE Guideline 36, will also continue to emerge that balance sustainability with occupant comfort, health, and safety.    As we move into 2025, we can expect to see another year of equipment innovations, technology advancements, and evolving regulations. As an industry, we continue to face change with openness and flexibility. And it’s this mindset that empowers us to meet, and exceed, expectations – now and in the year to come.

As environmental regulations become increasingly stringent, the HVAC/R industry is turning to sustainable refrigerants to minimize environmental impact. A3 refrigerants—flammable gases with low global warming potential (GWP)—are emerging as a preferred choice. However, their adoption introduces additional regulatory requirements. EPA regulations To address these challenges, the industry is leveraging innovative solutions like enhanced small-diameter copper tubes, which enable compliance with EPA guidelines while maintaining performance and safety standards. In this article, we’ll explore key EPA regulations for A3 refrigerants and how small-diameter copper tubes play a vital role in optimizing system performance, ensuring safety, and achieving regulatory compliance.  Understanding A3 Refrigerants A3 refrigerants help HVAC/R systems align with current and upcoming environmental regulations A3 refrigerants are characterized by their low GWP and flammability, making them a sustainable alternative to traditional high-GWP refrigerants. Common examples include propane (R-290) and isobutane (R-600a). By reducing greenhouse gas emissions, A3 refrigerants help HVAC/R systems align with current and upcoming environmental regulations. Their benefits go beyond regulatory compliance. energy efficiency A3 refrigerants improve energy efficiency, enabling systems to operate more effectively while consuming less energy. This dual advantage of sustainability and operational efficiency reduces both carbon footprints and operating costs. As global regulations continue to phase out high-GWP refrigerants, A3 options stand out as a viable solution that balances environmental responsibility with system performance. Their efficiency and compliance capabilities position A3 refrigerants as a key player in the future of HVAC/R system design.  Advantages of Small-Diameter Copper Tubes 1. Meeting EPA Charge Limits  Small-diameter copper tubes offer a significant advantage in adhering to EPA refrigerant charge limits. With their reduced internal volume, these tubes require less refrigerant to maintain optimal performance. This feature is particularly beneficial when working with A3 refrigerants, as the EPA enforces strict charge limits to mitigate flammability risks while upholding efficiency.  2. Boosting System Efficiency with Enhanced Heat Transfer  When enhanced with internal grooves, small-diameter copper tubes maximize surface area contact with refrigerants Copper’s exceptional thermal conductivity, even with smaller tube diameters, ensures effective heat transfer. When enhanced with internal grooves, small-diameter copper tubes maximize surface area contact with refrigerants, further increasing heat transfer efficiency. This improvement translates to lower energy consumption and reduced operating costs, all while delivering reliable cooling performance.  3. Durability, Safety, and Ease of Installation  Using small-diameter copper tubes reduces the refrigerant charge required within a system, enhancing safety. Copper’s lightweight and flexible properties, especially when annealed, simplify installation, particularly in compact systems with complex configurations. Its natural corrosion resistance also ensures durability and long-term reliability, minimizing maintenance needs over the equipment’s lifespan.  Innovating for a Sustainable Future  As the HVAC/R industry transitions to A3 refrigerants, adapting to stricter EPA regulations requires innovative system designs that address safety, efficiency, and performance challenges. Small-diameter copper tubes provide a practical solution by reducing refrigerant charges, enhancing heat transfer, and delivering reliable, durable performance.  reducing environmental impact These copper innovations are especially valuable for compact, high-performance systems that demand precision and compliance with environmental standards. By embracing these advancements, the HVAC/R industry can ensure systems are future-ready, capable of meeting evolving regulations while maintaining efficiency and safety. Small-diameter copper tubes are paving the way for a more sustainable HVAC/R landscape, helping businesses succeed in reducing their environmental impact while achieving regulatory compliance. 

Certifications are official documents given by professional organizations that confirm a staff member has the necessary knowledge and skills needed to do a specific job. In the HVAC industry, certifications provide multiple benefits for various stakeholders. For technicians, certifications can demonstrate enhanced skills and knowledge, increase earning potential, improve job security, and promote greater credibility and professionalism. Certified technicians In the long run, using certified technicians boosts customer satisfaction, enhances brand image For installing companies, using certified technicians is more likely to ensure correct and efficient installations with fewer errors, callbacks, and/or warranty claims. In the long run, using certified technicians boosts customer satisfaction, enhances brand image, and provides a competitive advantage.  For manufacturers, certified technicians ensure proper installation for better product performance and longevity. For customers, employing certified technicians provides peace of mind. Proper installation ensures optimal product performance and longevity, maximizing the return on investment for customers. Certified technicians are less likely to make a mistake. Customers can have greater confidence in an installation's quality and reliability. Certification programs in the HVAC market Let’s take a look at several of the certification programs in the HVAC market. EPA 608 Certification is required by law for technicians to ensure the safe handling of refrigerants. Technicians are required to pass an EPA-approved test to earn Section 608 Technician Certification. Tests must be administered by an EPA-approved certifying organization. The U.S. Environmental Protection Agency (EPA) has a list of approved organizations on its website. Certification levels are Type I (small appliances), Type II (high-pressure appliances), Type III (low-pressure appliances), and universal (all levels) NATE Certification (North American Technician Excellence) ensures expertise in specific areas of HVACR systems, such as air conditioning, heat pumps, gas furnaces, etc. NATE is the largest non-profit certification organization for HVACR technicians in the United States and is considered the industry's gold standard. NATE certification proves that a technician has the knowledge and skills to properly install, maintain, and service HVACR systems. Technicians must pass a series of challenging exams, covering a range of topics, to become NATE-certified. HVAC Excellence Certification (provided by the ESCO Group) covers various aspects of HVAC systems, from installation to troubleshooting, validating technicians' proficiency and commitment to industry standards. ESCO Group is an organization focused on improving technical competency within the HVACR industry; they use the 'HVAC Excellence' label to denote their certification programs. HVAC Excellence’s series of certifications build upon each other, allowing technicians to progress through various levels of expertise. The organization validates educational programs, tracks content mastery at each stage of an individual’s career and provides educators with valuable resources to help them become more effective in their roles. Refrigeration Service Engineers Society (RSES) certification emphasizes fundamental principles, troubleshooting, and safety. The society offers a variety of certifications and training programs designed to enhance the skills and knowledge of HVACR professionals, including comprehensive training courses in essential HVACR disciplines, such as refrigeration, heating, electricity, and controls. After completing the relevant training, participants take exams to validate their knowledge. RSES is approved to administer EPA Section 608 Certification Testing, and Section 609 certification through the ESCO Group (focusing on motor vehicle air conditioning (MVAC) systems.) ASHRAE range of certification programs The American Society of Heating, Refrigerating, and Air-Conditioning Engineers (ASHRAE) offers a range of certification programs designed to recognize and validate the expertise of professionals in the built environment. Certifications include: Building Energy Assessment Professional (BEAP), focusing on the knowledge and skills needed to conduct comprehensive building energy assessments, analyze energy use, and recommend improvements.   Building Energy Modeling Professional (BEMP), which certifies individuals who can effectively use building energy modeling software to analyze building performance and design energy-efficient systems. Building Commissioning Professional (BCxP), for professionals who lead, plan, and execute the commissioning process to ensure that building systems operate as intended and meet the owner's project requirements.   Healthcare Facility Design Professional (HFDP), which focuses on the design of HVAC systems for healthcare facilities.   High-Performance Building Design Professional (HBDP), a certification focusing on professionals who can design and integrate high-performance building systems to achieve energy efficiency, sustainability, and occupant well-being. Operations and Performance Management Professional (OPMP), which certifies individuals who can effectively manage and optimize the operation and maintenance of building systems to ensure energy efficiency, occupant comfort, and system reliability. Latest technologies and best practices Certifications make the HVAC market more professional by standardizing knowledge and skills and increasing credibility and trust. Certifications ensure that HVAC professionals have a baseline understanding that ensures more consistent and reliable service. Certification demonstrates a commitment to the profession and a desire to stay updated with the latest technologies and best practices. Many employers prefer or require certification, giving certified technicians a competitive edge in the job market and potentially leading to higher pay. {##Poll1738306775 - What is the biggest benefit of HVAC certifications for technicians?##}

Hydronics systems rely on water, steam, or water solutions to distribute heating and cooling throughout a building. They are inherently more eco-friendly than conventional alternatives. First and foremost, using water as a temperature regulation method is a natural choice. There is no carbon footprint involved in its creation, and there is no inherent danger in exposure to water in the event of a system failure. Water is more efficient at carrying heating and cooling loads than other technologies. Other benefits include a wider range of maintenance flexibility and longer system life expectancy. overall efficiency of hydronics  “A misconception about hydronics is that it's more expensive compared to other HVAC systems,” says Jim Nolan, market development manager, Xylem. “While hydronic systems may require a larger upfront investment, lifecycle costs are significantly lower due to the overall efficiency of hydronics.” Flexibility in Cold and Warm Climates Hydronics offers a wider range of flexibility for components, operation, and maintenance Compared to other systems, hydronics offers a wider range of flexibility for components, operation, and maintenance. That flexibility also extends to extreme climate conditions, says Nolan. Hydronics perform reliably at very cold and very warm temperatures for improved occupant comfort and reduced energy costs. Additionally, hydronic systems draw on water’s natural thermal storage capabilities, which can substantially offset operating costs during peak demand periods. For over 100 years, Xylem’s Bell & Gossett has been at the forefront of hydronic systems as a manufacturer of pumps, valves, heat exchangers, and accessories — including steam and heat transfer — for plumbing and wastewater applications. Since 1916, the company has made a name for itself through products, industry-pioneering training at the Little Red Schoolhouse, comprehensive solutions, and application expertise, says Nolan. Products and sustainability efforts “Xylem is continuously innovating to advance and embed sustainability holistically into our solutions – from the materials we source, to making them more compact and cutting emissions, to high-efficiency motors,” adds Nolan. Advancing the efficacy and efficiency of their foundational products is what Bell & Gossett is known for, and more broadly, what Xylem is doing to embed “high impact” into all its products and sustainability efforts, says the company. Quantifiable Effect on Decarbonization Smart pump solutions like Xylem’s Hydrovar® X Smart Motor tout ultra-premium efficiency As the built environment increasingly weighs the effects of climate change and decarbonization, products must keep pace to demonstrate quantifiable impact on addressing these challenges. Smart pump solutions like Xylem’s Hydrovar® X Smart Motor tout ultra-premium efficiency, sustainably sourced materials, and compact design, delivering high impact in terms of intelligence and productivity. Built-in condition monitoring empowers customers to leverage data for additional pump protection and optimized performance. Equally essential is continued education and collaboration with industry partners to help commercial building owners navigate the challenges of achieving decarbonization and net-zero goals, says Nolan. That includes training opportunities at Bell & Gossett’s Little Red Schoolhouse to teach industry professionals about sustainable solutions, he adds. Ideal distribution system “Water is considered technology agnostic – no matter what type of technology exists today or in the future, modern hydronic systems can easily adapt to a variety of energy sources,” says Nolan. “As solar and geothermal grow, building owners and designers are recognizing that hydronics provide an ideal distribution system for these alternative technologies to perform.” Hydronic system efficiency is already well-documented in thousands of real-world applications, says Nolan. Hydronics reduces operating costs by using water as a heat transfer medium, which is more effective than air. Efficiency and cost savings are maximized when these systems are powered by renewable energy sources. Overcoming Obstacles to Equipment Reuse In some cases, though, existing HVAC equipment may be too outdated for reuse In some cases, existing HVAC equipment can be reused to achieve sustainable, carbon-neutral systems, says Nolan. Adaptive reuse projects involve repurposing an existing building for new use and reusing as much existing equipment as possible to save costs, conserve resources, and minimize construction-related disruptions. Upgrading existing hydronic systems with smart technology like advanced controls and smart motors can improve performance and efficiency, says Nolan. Another option is to incorporate high-efficiency components like heat pumps. In some cases, though, existing HVAC equipment may be too outdated for reuse. In others, existing building footprints may limit design options. To overcome this, a thorough assessment of current building conditions and performance can provide a better understanding of the original system design. Identify ways to reduce energy consumption Energy audits, building performance evaluations and environmental impact assessments provide valuable insights into an existing building’s energy consumption, resource usage and environmental footprint. The purpose of these tools is to identify ways to reduce energy consumption or operating costs by upgrading to more energy-efficient equipment or by building a better system. “There’s a whole industry built around energy audits—they’re typically conducted by industry professionals who have qualifications or certifications to ensure they have the knowledge and skills to perform thorough and accurate assessments,” says Nolan. Challenges to Deregulation and Achieving Net Zero Deregulation or the elimination of natural gas in existing buildings presents challenges. While hydronic equipment is essentially decarbonized because it runs on electricity, many utilities still rely on fossil fuels. Only when those providers switch to renewable energy and the grid infrastructure is expanded to deliver enough electricity will environmental impact be realized.  Although many areas are moving toward decarbonization and achieving net-zero energy, in regions where energy is cheap, there are few incentives to embrace renewable energy and building electrification. As HVAC equipment becomes more efficient and uses less energy, communities will realize the cost savings and gravitate toward better technology.

SNAP Rule 26 marks an important milestone in the transition from commercial refrigeration to new refrigerants. The rule lists refrigerant substitutes that provide a spectrum of technological solutions to meet required performance, global warming potential (GWP), safety, and environmental standards.  SNAP stands for Significant New Alternatives Policy, a program by the U.S. EPA (Environmental Protection Agency) under the Clean Air Act. In general, the program aims to evaluate and regulate substitutes for ozone-depleting substances, considering their overall risks to both human health and the environment. Impact of SNAP Rule 26 Final SNAP Rule 26, Protection of Stratospheric Ozone, lists acceptable substitutes in commercial and industrial refrigeration. SNAP Rule 26 will be effective July 15, 2024. The incorporation by reference of certain material listed in the rule is approved by the Director of the Federal Register as of July 15, 2024. The incorporation by reference of certain material listed in the rule is approved by the Director of the Federal Register “To date, the SNAP program has provided a very effective framework for evaluation and approval in support of innovation and the transition to new technology,” says Andrew Pansulla, Technical Service Engineer, The Chemours Company, a global chemistry company that provides a range of refrigerant products. We asked Pansulla to elaborate further on the impact of SNAP Rule 26 and what lies ahead. Q: How will the Rule’s finalization impact various commercial refrigeration sectors? Pansulla: The rule’s finalization will impact commercial refrigeration in several ways. Areas, where impact will likely be seen, include providing more acceptable refrigerant options, adherence to updated standards, new equipment design standards, and the exemption of propane from the venting prohibition for refrigerated food processing and dispensing equipment. These impacts could trigger changes in operational, manufacturing, and environmental compliance strategies in the commercial refrigeration sectors. SNAP Rule 26 will enable the adoption of the listed substitutes, including Chemours Opteon™ refrigerants, with global warming potential (GWP) lower than existing refrigerants. This rule does not require any changes to existing equipment and will impact only new equipment that uses the specific substances referenced in the SNAP rule. Q: What is the outlook for additional requirements for safe handling and use of alternative refrigerants? What specific safety standards are expected or appropriate? Pansulla: As part of the comparative risk framework used by the EPA to assess new alternatives, the EPA considers and implements use conditions that will ensure the safe use of products. These use conditions rely upon existing safety standards (e.g., UL and ASHRAE) which are available at the time the rule is finalized. In the case of SNAP Rule 26, many of the use conditions require adherence to UL 60335-2-89 and ASHRAE-15-2022. These standards are reviewed and updated periodically to maintain relevance with the products subject to the standards. Q: What are any limitations of the use of A2L refrigerants under SNAP Rule 26? Pansulla: There are two main categories of limitations under SNAP Rule 26. The first, as mentioned above, is the adherence to specific safety standards that apply to refrigerants that are designated as mildly flammable (A2L). The second is based on the GWP of the refrigerant. In the case of the A2L refrigerants subject to SNAP Rule 26, the EPA imposed conditions on the type of equipment and specific circumstances in which the substitute may be used. For example, the EPA is permitting the use of R-454A in supermarket systems, but only on the high side of a cascade system, or when the refrigerant charge capacity is less than 200 pounds. Q: Which new-generation A2L refrigerants are fit for which commercial refrigeration applications? Pansulla: Under SNAP Rule 26, the EPA deems R-1234yf, R-1234ze(E), R-454C, R-455A, R-457A, and R-516A as acceptable subject-to-use conditions for various commercial refrigeration applications. This selection is primarily driven by these refrigerants having GWPs under 150. However, certain applications necessitate refrigerants with higher GWPs due to unique performance characteristics. For example, R-454B and R-32 were listed for industrial process refrigeration with exiting fluid temperatures below minus 30 degree Celsius because these two specific refrigerants have lower boiling points than the other six less-than-150-GWP alternatives. However, it is critically important to consider the additional use conditions when designing equipment with refrigerants that have a GWP greater than 150. Q: So various equipment needs different refrigerants? Pansulla: The EPA purposefully lists several different refrigerants in each application to allow for equipment manufacturers to consider a variety of different factors that go into refrigerant selection, such as energy efficiency, capacity, normal boiling point, temperature glide, cost, safety, and use conditions. There is no one-size-fits-all solution for the entire commercial refrigeration industry. Q: How can commercial refrigeration businesses achieve a smooth transition to A2Ls? Pansulla: Keys to a smooth transition to A2Ls include understanding what refrigerants the EPA has approved as acceptable substitutes under the SNAP program, the sector-based GWP limits imposed by the Technology Transitions Program under the American Innovation and Manufacturing (AIM) Act, and which refrigerants provide the best combination of technical performance and environmental characteristics. Many resources are available to navigate the regulatory landscape and select the best low-GWP refrigerants to meet the needs of this industry. Working with companies like Chemours, who has nearly a century of refrigerant innovation and experience, is a great first step in the transition process. Q: What is the “staying power” of A2Ls — based on their chemistry, sustainability, and other attributes, combined with regulations such as SNAP Rule 26? Pansulla: The identification, selection, and development of new refrigerants that deliver required performance while meeting increasingly stringent environmental standards is a challenging process. With the identification of certain hydrofluoroolefin-based (HFO) refrigerants as an alternative to meet these criteria came a new safety classification. These HFO-based refrigerants are classified as A2Ls. While slightly more flammable than existing hydrofluorocarbon-base (HFC) refrigerants, HFOs are much less flammable than hydrocarbons, which are classified as A3 (two categories higher on the ASHRAE flammability spectrum). Moreover, such refrigerants offer an excellent alternative to substances with higher toxicity, such as R-717. The listing of A2L refrigerants in SNAP Rule 26 clearly indicates that such refrigerants can be used safely in commercial refrigeration as well as many other applications, which are subject to the SNAP Program, when adhering to the applicable safety standards.

The University of East London (UEL) is extending its strategic partnership with global technology company Siemens in a contract that will see the business design and install a Water Source Heat Pump (WSHP) to help power its net zero campus of the future. The new WSHP is set to be the largest fitted at any university and will power the university’s Docklands Campus Library and Royal Docks Centre for Sustainability buildings, replacing existing gas boilers – and together with campus existing green energy infrastructure, achieve carbon zero in these spaces.  Cost-effective heating system Submerged in the River Thames, the closed-loop system will use a series of pipes to extract natural heat from the water in the Royal Albert Docks, providing a cost-effective heating system which will reduce annual CO2 emissions by 258 tonnes without removing vast quantities of water from the river. The system is scalable to allow the university to extend in the future similar heat pump systems across the Campus and the wider Royal Docks – the only Enterprise Zone in London – and is part of the long-term partnership with Siemens, which is supporting the university’s transition to net zero by 2030. Carbon-producing energy consumption The strategic partnership has already seen Siemens deploy a variety of decarbonization technologies The strategic partnership, which was formed in 2022, has already seen Siemens deploy a variety of decarbonization technologies including solar PV, Building Management Systems and EV charging infrastructure across the university campus. In addition, Siemens is using its Building X technologies and data analytics to allow UEL to better understand its energy consumption and drive research and enterprise programs. UEL has reduced its CO₂ emissions and carbon-producing energy consumption more than any other modern London university already, and by 2026 will achieve the lowest emissions per student in the UK – putting it on track to achieve its 2030 net zero targets. Successful green employability The partnership is providing a clear, replicable blueprint for sustainability. As well as saving the university over £500,000 per year in utility costs and reducing emissions by over 1,000 tonnes annually, the partnership has driven a unique range of successful green employability, enterprise and research initiatives including student internships, MSc sponsorships, hackathons, and the creation of a ‘Living Lab’ for training and research on sustainability. This project directly supports the Mayor of London’s vision for a greener, more sustainable capital, advancing his commitment to cleaner air, renewable energy, and achieving net zero by 2030. Clean energy solutions Mayor of London, Sadiq Khan, said: "London is leading the way in the fight against climate change, and projects like this pioneering partnership between the University of East London and Siemens are key to our city’s transition to a greener, more sustainable future.” “By harnessing the power of the River Thames to heat university buildings, this initiative demonstrates how innovation and collaboration can drive real progress towards net zero. It not only reduces carbon emissions but also sets a powerful example of how London’s institutions can embrace cutting-edge, clean energy solutions to build a better, fairer and greener city for all Londoners." Green energy transition UEL Vice-Chancellor & President, Professor Amanda Broderick, said: “We are committed to driving forward sustainable innovation that not only reduces our environmental impact but also creates a living laboratory for the next generation of climate leaders.” “This Water Source Heat Pump demonstrates how universities can be at the forefront of the green energy transition, harnessing our natural surroundings to drive real change. Through our strategic partnership with Siemens, we are accelerating towards our 2030 net zero targets, delivering cutting-edge solutions that will benefit all the communities we serve, and the planet." Long-term strategic partnership Andrew Smyth, Head of Sustainability for Smart Infrastructure Buildings, Siemens UK and Ireland, said: “Decarbonising heating systems is a critical step towards achieving net zero carbon emissions. The University of East London has a fantastic resource in the Thames, right on its doorstep. Harnessing renewable power from the water allows it to take huge steps towards its net zero goals.” “The investment is underpinned by our long-term strategic partnership. And it demonstrates how data-led insights of buildings and energy consumption provide heightened confidence in deploying large-scale renewables technologies like Water Source Heat Pumps. The program is setting the blueprint for how sustainability can be a catalyst for fantastic collaboration and innovation between businesses and universities.” Building X is Siemens' digital building platform designed to digitalise, manage, and optimise building operations. It aims to enhance user experience, increase performance, and improve sustainability. Building X integrates various applications and services, including energy management, security management, and building automation, to create a unified data environment that enhances accuracy and efficiency.

Trane® – by Trane Technologies, a global climate innovator, announces that energy-saving infrastructure upgrades are underway at the Northern Illinois University (NIU) campus in DeKalb, Ill. Trane, a pioneer in building and energy solutions, is collaborating with the university to develop and implement a comprehensive energy-saving and emissions-reduction program. energy-saving solutions Over the course of the next 18 months, Trane and NIU will upgrade the DeKalb campus with comprehensive energy-saving solutions including LED lighting, water conservation measures, building weatherization improvements, Solar Photovoltaic installations at multiple locations, EV charging stations, Thermal Energy Storage for cooling, high-efficiency heating and cooling system upgrades, and smart HVAC building controls. As a result of these improvements, NIU is projected to achieve over a 26% reduction in energy consumption and an 11% reduction in emissions. energy-saving program This campus-wide initiative supports NIU’s technical, social, environmental, and financial goals The new energy-saving program by Trane will help NIU reduce its carbon footprint and achieve measurable progress toward the university’s goal of reducing emissions by 50% by fiscal year 2030, further solidifying NIU’s commitment to sustainability leadership. This campus-wide initiative supports NIU’s technical, social, environmental, and financial goals, delivering sustainable benefits to the community while integrating sustainability into campus life, strategic planning, and decision-making. Sustainability and Climate Action Plan In 2023 the university established a comprehensive Sustainability and Climate Action Plan, aiming to establish a pioneering position in sustainability education and research. Campus improvements will have an annual greenhouse gas emissions equivalent to removing 6,552 cars from the road or planting 455,169 trees according to the Environmental Protection Agency’s Greenhouse Gas Equivalencies Calculator. Environmental stewardship “In collaboration with Trane, we are excited and thrilled to be pursuing a greener future for Northern Illinois University, our community, and our world,” NIU President Lisa C. Freeman said. “NIU already plays critical roles in education and research related to sustainability, but this effort demonstrates our commitment to modeling sustainable behavior and environmental stewardship.” Energy, and operational savings By leveraging Energy Savings Performance Contracting (ESPC), this budget-neutral approach will enable progress The updates are funded through a combination of federal, state, utility, energy, and operational savings. By leveraging Energy Savings Performance Contracting (ESPC), this budget-neutral approach will enable progress. This allows NIU to reinvest capital against other priorities that align with its vision of being a regional and national model for sustainability. By collaborating with Trane, the university can finance today’s facility upgrades with tomorrow's energy savings, without tapping into capital budgets. Reducing energy consumption “NIU’s commitment to both sustainability and the comfort of students and staff created a strong foundation for this extensive sustainability program,” said Jon Dunlap, Upper Midwest Area Director of Energy Services, Commercial HVAC Americas, Trane Technologies. “We are proud to collaborate and help them achieve their energy efficiency goals. These improvements will help reduce energy consumption and carbon emissions and create more resilient and sustainable learning spaces for students and more comfortable working environments for staff.” on-campus sustainability goals In addition to ambitious on-campus sustainability goals, the Trane and NIU collaboration will incorporate significant social impact elements, including new workforce development opportunities for students through capstone projects, internships, and employment opportunities. The program emphasizes community engagement and uplift around sustainability, energy career paths, and STEM education. These efforts further enhance NIU’s community presence and contribute to the broader community’s economic and social well-being.

Wren is a climate subscription service that helps individuals offset their carbon footprint through monthly contributions. Users can calculate their carbon emissions using Wren’s intuitive calculator and fund various climate projects, including refrigerant destruction. Wren emphasizes transparency by providing regular updates on the impact of contributions, including data, photos, and stories. The platform aims to make climate action simple and effective, ensuring that every dollar contributes to meaningful environmental change.  About A-Gas  A‑Gas is a world pioneer in the supply and lifecycle management of refrigerants and associated products and services. Through the first-class recovery, reclamation, and repurposing processes, we capture refrigerants and fire protection gases for future re-use or safe destruction, preventing harmful release into the atmosphere. For over 30 years, A-Gas has supported clients and partners on their environmental journey by supplying lower global warming gases and actively increasing the circularity of the industries we serve, building a sustainable future.   Challenge  HCFC-22 is a potent greenhouse gas with a global warming potential (GWP) much higher than CO2 The widespread use of refrigerants like HCFC-22 (R22) presents a significant environmental challenge. HCFC-22 is a potent greenhouse gas with a global warming potential (GWP) much higher than CO2 (one molecule of R22 has a global warming impact 1,810 times that of one molecule of CO2). If not properly managed, its release would have a negative impact on the atmosphere. As these refrigerants reach the end of their lifecycle, there is an urgent need for effective solutions to prevent their emissions and minimize their environmental impact.   Solution  To address this challenge, A-Gas recovers refrigerants for reclamation or destruction at A-Gas facilities across the country. By leveraging Wren's platform to mobilize individual contributions and A-Gas' technical expertise in lifecycle refrigerant management, this partnership enabled an environmentally conscious solution for the used refrigerant. It underscores the potential for innovative partnerships that can help to further reduce emissions in the refrigerant industry through its on-site refrigerant recovery service (Rapid Recovery®), refrigerant buyback programs, and wholesale supplier reclaim program (Refri-Claim™). HCFC-22 destruction project The ACR methodology has included HCFC-22 as eligible for destruction-generated offsets since 2017 Wren and A-Gas formed a partnership to provide Wren subscribers with the opportunity to fund an HCFC-22 destruction project through the generation of A-Gas carbon credits to ensure the gas does not escape into the atmosphere. While the ACR (formerly American Carbon Registry) methodology has included HCFC-22 as eligible for destruction-generated offsets since 2017, few have completed such projects because the price of HCFC-22 is so high; it is more profitable for organizations to reclaim this product.  ACR’s methodology As such, this is one of the first HCFC-22 destruction projects utilizing ACR’s methodology. Approved by the International Civil Aviation Organization (ICAO) to provide carbon credits in its Carbon Offsetting and Reduction Scheme for International Aviation (CORSIA), ACR is highly regarded across the world.  Results  The partnership yielded multiple environmental benefits:   Emissions Avoided: The initiative successfully avoided the release of 16,000 tons of CO2-equivalent emissions by destroying HCFC-22. This substantial elimination of greenhouse gas emissions demonstrates the effectiveness of the program.   Subscriber Engagement: Wren provided its subscribers with detailed updates on the impact of their contributions. These updates included data on the quantities of HCFC-22 destroyed and the corresponding emissions reductions. This transparency helped build trust and encouraged ongoing participation in climate action.   Educational Impact: The collaboration raised awareness about the importance of proper lifecycle refrigerant management. Wren and A-Gas educated the public on lesser-known aspects of climate change mitigation by highlighting the environmental benefits of destroying high-GWP substances.   Conclusion  This partnership enabled an environmentally conscious solution for the used refrigerant By leveraging Wren's platform to mobilize individual contributions and A-Gas' technical expertise in lifecycle refrigerant management, this partnership enabled an environmentally conscious solution for the used refrigerant. It underscores the potential for innovative partnerships that can help to further reduce emissions in the refrigerant industry.  refrigerant destruction protocols and technology "We are excited to work with A-Gas to push forward the standard of refrigerant destruction protocols and technology," said Landon Brand, CEO, of Wren. Landon Brand adds, "This is one of the most reliable and impactful project types we have found in our years of funding climate solutions, and we hope our community can keep blazing a trail to eliminate these dangerous refrigerants."

Achieving net-zero emissions will mitigate climate change and prevent the worst impacts of global warming. Net zero is the state in which the total amount of greenhouse gases emitted into the atmosphere is equal to the total amount removed. HVAC systems represent a large opportunity to impact how soon we can achieve net zero. We asked our Expert Panel Roundtable: What is the role of HVAC in achieving net-zero emissions by 2050?

For schools, improving indoor air quality (IAQ) is a basic function of HVAC systems, which also ensures a high comfort level for students, teachers and staff. Schools can be a lucrative market for HVAC systems, but there are challenges, such as long sales cycles and the lingering impact of the COVID-19 pandemic. We asked our Expert Panel Roundtable: What are the challenges for HVAC in serving the education/schools market?

The practice of working from home soared during the coronavirus (COVID-19) pandemic and many observers see a likely continuation of the trend, as infection risks gradually subside. Both environments – home and office – depend on HVAC systems to keep occupants comfortable (and safe!). Therefore, the industry stands to be impacted whichever way the trend plays out. We asked our Expert Panel Roundtable: How will remote working affect residential and commercial HVAC?