This article provides a comprehensive overview of the historical evolution, energy efficiency challenges, and advancements in sliding door technology. The reader will learn about the origins, different materials, and mechanisms of sliding doors, and how electronic and automatic sliding doors have evolved. The article also discusses the energy efficiency challenges, such as air leakage and thermal bridging, as well as improvement opportunities in insulation and sealing.
Furthermore, the development of materials and mechanisms to enhance these energy-efficient features will be explored. The integration of smart technologies, such as IoT-enabled energy management systems and AI-driven door activation, will be discussed, along with the various standards, certifications, and best practices in the industry. The article concludes with various case studies and success stories that illustrate the impact of energy-efficient sliding door technology in both commercial and residential applications.
Historical Evolution of Sliding Door Technology
Origins of sliding doors
Sliding doors are known for their space-saving and convenient properties, having been used for centuries across the globe. The earliest evidence of sliding doors dates back to Roman and Greek architecture. However, the traditional form of sliding doors that we are familiar with today has its roots in Japanese culture.
Japan’s fondness for sliding doors – known as “fusuma” – can be traced back to the 8th century; characterized by their lightweight, paper-covered doors. These Fusuma were designed to maximize space and flexibility, mainly in Japan’s traditional shoji-style homes. Shoji-style architecture emphasizes natural materials, harmony with nature, and the use of light, both natural and artificial. The fusuma’s lightweight structure and smooth sliding panels fit the aesthetic preference seamlessly.
During the later years in Asian regions, specifically China and Korea, the sliding doors graced the entrances of important palaces, temples, and traditional homes. These doors were often adorned with intricate carvings and artwork to showcase the status and culture of the dwelling occupants.
While some European architects experimented with sliding doors in the 12th and 13th centuries, the technology was not widely adopted until the 18th century. The industrial revolution contributed to the popularization of sliding doors in Western architecture. This advancement allowed for the mass production of rails and pulleys necessary for doors to slide smoothly.
Evolution of materials and mechanisms
As materials and manufacturing evolved, so too did sliding door technology. Early sliding doors, such as the fusuma, relied on the use of lightweight materials like paper and wood, which lacked proper insulation and longevity. The invention of new materials, such as iron and glass, increased the durability and longevity of sliding doors by making them significantly more robust and weather-resistant.
The advancement of door designs and mechanisms also made sliding doors more suitable for commercial and residential applications. In the 19th century, the invention of the “pocket door” system allowed for a sliding door to be concealed within the wall. This innovation contributed to the increasing popularity of sliding doors in Europe and the United States.
Similarly, the development of the “barn door” style sliding door combined both aesthetic appeal and functionality. These doors utilized heavy-duty iron hardware and often featured striking wood construction, making them an ideal option for rustic and industrial interior design styles.
With the expansion of sliding doors from strictly residential use to commercial storefronts and industrial applications, more heavy-duty systems and materials, such as aluminum and steel, were developed. The inclusion of reinforced glass allowed for the creation of sliding patio doors, providing additional natural light and enhanced views in homes and businesses.
The rise of electronic and automatic sliding doors
The advancements in the 20th century further impacted the development of sliding door technology with the introduction of electronic and automatic sliding doors. The rise of automation led to the invention of the first automated sliding door by American inventor, Lew Hewitt, and the first fully-automatic sliding door was presented by Horace H. Raymond and Sheldon S. Roby in 1954.
These automatic sliding doors heightened ease of use and energy efficiency, making them the perfect choice for commercial applications, such as in retail stores, hotels, airports, and hospitals. Additional electronic and safety features, like infrared sensors, electronic locks, and security mechanisms, were also integrated into sliding door systems. Developments in sound and fire-resistant materials helped sliding doors gain even more widespread acceptance in commercial settings.
In recent decades, the demand for energy efficiency, safety, and innovative designs has driven the evolution of sliding door technology even further. Today, sliding doors are utilized in various applications, including residential, commercial, and industrial, thanks to the continuous improvement in materials, mechanisms, and electronic components. The historical evolution of sliding doors highlights the enduring appeal of this versatile and efficient architectural feature.
Energy Efficiency Challenges in Sliding Doors
Sliding doors have become increasingly popular in modern architecture, providing an elegant solution for space-saving and easy access between indoor and outdoor environments. However, they often come with a series of energy efficiency challenges that can increase energy consumption and hinder a sustainable lifestyle. In this article, we will discuss the main issues associated with sliding doors and propose possible solutions to improve their performance.
Air leakage and thermal bridging issues
One of the primary energy efficiency challenges associated with sliding doors is air infiltration. Air leakage occurs when the door is not adequately sealed, allowing external air to enter the building and conditioned air to escape, which leads to higher heating and cooling costs. In most cases, air leakage is more prominent in sliding doors due to the gaps formed between the door panels and the frame when closed.
Thermal bridging is another issue that affects the energy performance of sliding doors. It is the thermal connection of materials between the indoor and outdoor environments, allowing heat to be transferred through the structure. This process results in heat loss during cold weather, forcing the heating system to work harder to maintain desirable indoor temperatures.
Thermal bridging is typically more significant in sliding doors due to their large surface areas in contact with outdoor air and the use of metal frames that provide little insulation value. This phenomenon diminishes the energy performance of the building, increasing heating and cooling costs, and making it harder to achieve a comfortable indoor environment.
Increased energy consumption due to opening mechanisms
Sliding doors can contribute to increased energy consumption due to their opening mechanisms, which rely on electric motors and sensors. Automatic sliding doors operate using sensors, which signal the motors to open and close the doors when someone approaches. These electric components consume energy and can also cause the loss of conditioned air whenever the door opens, increasing the building’s heating and cooling energy consumption.
Moreover, manual sliding doors often require frequent opening and closing, allowing external air to enter the building and conditioned air to escape. This situation worsens in high-traffic areas where people continuously use the doors, leading to increased energy consumption to maintain the desired indoor conditions.
Improvement opportunities for insulation and sealing
There are several ways to enhance the energy efficiency of sliding doors, starting with improving the insulation and sealing of the structure. To tackle air leakage issues, it is essential to ensure that the sliding door is correctly installed, always providing a snug fit with the frame. Using weatherstripping materials around the door’s perimeter can also reduce air infiltration, maintaining the desired indoor temperature more effectively.
To minimize thermal bridging, incorporating thermally-broken frames in sliding door design can help. These frames have incorporated insulating materials that prevent the transfer of heat through the metal surface, drastically reducing heat loss during cold periods. Additionally, selecting high-performance glass can significantly improve a sliding door’s energy efficiency. Double or triple-glazed glass with low-emission coatings can reduce the transfer of heat in and out of a space, providing better insulation and energy performance.
Lastly, maintaining proper door functioning is critical to ensure energy efficiency. Regularly cleaning and adjusting the sliding door mechanisms can help maintain their integrity and prevent gaps from forming that can lead to air leakage. With these measures in place, it is possible to enjoy the benefits of sliding doors without compromising on energy efficiency and comfort.
Advancements in Sliding Door Materials
Over the years, there have been significant advancements in the materials used in sliding doors. As energy efficiency and sustainability concerns have become increasingly important, manufacturers have adopted new technologies to meet these demands. Let’s discover some of the major advancements in glazing, framing materials, and sealing solutions that have contributed to more energy-efficient and durable sliding doors.
Energy-efficient glazing technologies
Glass plays a critical role in the efficiency and aesthetics of sliding doors. Thanks to advancements in glazing technologies, today’s doors perform better in terms of insulation, energy efficiency, and safety.
- Low-E (Low-emissivity) Glass: One of the most significant advancements in glazing technology is low-emissivity (Low-E) glass. This type of glazing has a thin, metallic coating applied to the glass surface, which reduces the amount of heat transfer into and out of your home. This helps lower energy consumption and keeps your home more comfortable year-round.
- Double or Triple Glazing: Double glazing consists of two panes of glass separated by a layer of insulating gas, typically argon or krypton. Triple glazing features three layers of glass with two separate gas-filled spaces. The extra layers of glass and gas help to reduce heat transfer, significantly improving the energy efficiency of the doors.
- Laminated Glass: Laminated glass features multiple layers of glass separated by a layer of polyvinyl butyral (PVB) or ethylene-vinyl acetate (EVA). This construction improves the safety and security of sliding doors, while also providing sound insulation and UV protection.
- Thermally Improved Glass: Research in recent years has led to the development of thermally improved glass, which offers better energy efficiency than ordinary clear glass. This type of glass is treated with a special coating to reduce the rate of heat transfer through the glass, keeping your home more comfortable throughout the year.
High-performance framing materials
The framing materials used in sliding doors have also evolved over time, with manufacturers trialing various options to improve thermal performance and durability.
- Vinyl (uPVC) Frames: Vinyl or uPVC (unplasticized polyvinyl chloride) has risen in popularity in recent years due to its excellent insulation properties, durability, and low maintenance. Vinyl frames are typically filled with insulating foam, which further improves thermal performance.
- Fiberglass Frames: Fiberglass is another modern framing material that offers excellent insulating properties, durability, and low maintenance requirements. Since fiberglass is an excellent insulator, it enhances the overall energy efficiency of the sliding doors, while also providing a robust, low-maintenance option.
- Aluminum Frames: Although aluminum is an excellent structural material for sliding doors due to its strength and lightweight properties, it is not as energy-efficient as other framing materials due to its high thermal conductivity. To rectify this shortcoming, thermal breaks are often incorporated into aluminum frames to reduce heat transfer, which improves insulation and boosts overall energy efficiency.
Advanced weatherstripping and sealing solutions
Weatherstripping and sealing solutions have significantly evolved to meet the demands of modern sliding doors.
- Compression seals: Compression seals, made from materials like silicone, EPDM rubber, and polyurethane foam, offer enhanced resistance to weather elements while providing superior insulation.
- Adhesive-backed foam tape:Adhesive-backed foam tape weatherstripping is a versatile solution that is easily applied to door frames to create an effective air and moisture barrier.
- Interlocking metal channels: For additional protection against air, water, and noise infiltration, interlocking metal channel systems can be used at the meeting rail of sliding doors. This design creates a tight seal between the panels and prevents drafts and water leaks.
Thanks to these advancements in glazing, framing materials, and sealing solutions, today’s sliding doors offer better energy efficiency, durability, and comfort for homeowners. The continued evolution of sliding door materials promises further improvements in their performance and function in the years to come.
Developments in Sliding Door Mechanisms
The sliding door industry has rapidly advanced in recent years, with many innovations and developments making these doors more efficient, convenient, and sustainable. In this article, we will explore advancements in sliding door mechanisms specifically focusing on enhanced automatic door sensors and controls, low-energy opening and closing devices, and solar-powered sliding door technology.
Enhanced automatic door sensors and controls
The advent of intelligent automatic door sensors and controls has greatly improved the functionality of sliding doors. These sensors can detect motion, ensuring the door opens when a person approaches it and closes once the person has passed through. Enhancements in automatic door sensors and controls have led to increased sensitivity, higher reliability, and improved energy efficiency.
One of the primary developments in automatic door sensors is the incorporation of microwave and infrared sensor technology. Microwave sensors emit microwaves that bounce off approaching objects and trigger the door to open when the sensor detects a change in the reflected waves. Meanwhile, infrared sensors use emitted or reflected infrared light to detect the presence of a person, ensuring the door opens only when necessary.
Another notable advancement in door sensor technology is the integration of artificial intelligence (AI), enabling doors to learn from past experiences and make smart decisions based on the context. These sensors can detect patterns of human behavior and differentiate between various objects, such as people and carts, to ensure optimal door opening and closing times.
In addition to advanced sensors, control systems have also evolved with more sophisticated technology. Modern sliding door control systems are highly configurable and often include microprocessors, enabling numerous customizable parameters to optimize door performance. These features may include adjustable opening and closing speed, hold-open time, and the ability to interface with access control systems.
Low-energy opening and closing devices
Energy efficiency has become a major focal point in the development of new technologies, and sliding door mechanisms are no exception. Low-energy sliding door technologies minimize energy consumption while maintaining functionality and user-friendliness.
Electric sliding door operators are a popular choice for their low-energy capabilities. These operators utilize small electric motors to open and close the door, consuming minimal power while maintaining a smooth and quiet operation. Additionally, many low-energy electric door operators are equipped with highly efficient motor controls, contributing to the system’s eco-friendliness.
Another development in low-energy door technology is the use of high-quality door seals that minimize air infiltration, helping to regulate temperature and lower energy costs. By preventing drafts, these door seals contribute to the overall energy efficiency of the building in which the sliding door is installed.
Finally, low-energy sliding door systems often incorporate regenerative drive technology. This advanced feature allows the energy generated from door movement to be captured and converted back into electrical power, reducing energy consumption and minimizing the door’s environmental impact.
Solar-powered sliding door technology
Capitalizing on the increasing demand for sustainable, eco-friendly solutions, the sliding door industry has started to explore solar-powered sliding door technology. These systems utilize solar panels to convert sunlight into electricity, which is then used to power the door’s operation.
Solar-powered sliding doors offer a green, off-grid solution for locations with limited access to conventional power sources. This technology not only minimizes the door’s energy consumption but also helps reduce reliance on non-renewable energy sources.
In addition to being eco-friendly, solar-powered sliding door systems can also provide cost savings, as they require less energy to operate and may even qualify for tax incentives or rebates in certain regions.
While still in the early stages of development, solar-powered sliding doors may become a standard feature in future sustainable construction projects, contributing to energy efficiency and reducing the environmental impact of buildings.
In summary, the sliding door industry has witnessed numerous advancements in recent years, including enhanced automatic door sensors and controls, the development of low-energy opening and closing devices, and the rise of solar-powered sliding door technology. As these innovations continue to advance, sliding doors will become increasingly efficient, convenient, and eco-friendly, revolutionizing the way we access and interact with the spaces around us.
Integration of Smart Technologies
As technology continues to develop rapidly, the integration of smart technologies in various industries becomes more important for improved efficiency, user experience, and sustainability. In the context of buildings and energy management, integrating smart technologies such as Internet of Things (IoT), real-time monitoring, and artificial intelligence (AI) can significantly enhance energy optimization, security, and overall building operations.
IoT-enabled energy management systems
The Internet of Things (IoT) refers to the interconnection of physical devices, vehicles, buildings, and other objects equipped with sensors, software, and network connectivity, enabling them to collect and exchange data. In the case of buildings, IoT-enabled energy management systems (EMS) can help monitor and control energy usage, improve overall efficiency and reduce operating costs.
One notable application of IoT-based EMS is in the management of Heating, Ventilation, and Air Conditioning (HVAC) systems. By installing IoT-enabled sensors that collect and analyze data, such as temperature, humidity, and occupancy, the EMS can automate the control of HVAC equipment for optimal performance. Moreover, IoT-based EMS can be customized to account for factors like building layout, occupancy patterns, and weather forecasts, further enhancing energy efficiency.
Apart from HVAC systems, IoT-enabled EMS can also integrate lighting systems, security systems, and other building equipment, resulting in smarter buildings that adapt to the needs of the people in them. For instance, smart lighting systems can be programmed to turn on and off as people enter and leave rooms, or even adjust according to the amount of natural light available.
Real-time monitoring and analytics
Real-time monitoring and analytics are critical elements of smart building technology, enabling officials to make data-driven decisions, respond to changing conditions, and identify inefficiencies. With the help of IoT devices, building managers can continuously monitor various aspects of the building, including energy consumption, equipment performance, and environmental conditions, to ensure optimal performance and occupant comfort.
Real-time analytics can also help identify trends, pinpoint inefficiencies, and predict future energy requirements. For example, by monitoring energy consumption over time, a building manager may identify patterns of waste or excessive use, such as equipment being left on overnight or during non-business hours. This information can then be used to implement energy-saving measures, such as scheduling equipment shutdowns or adjusting temperature setpoints.
Furthermore, real-time monitoring of equipment performance can help building managers identify maintenance issues before they become critical, reducing the risk of costly repairs or downtime. By analyzing data on equipment usage, wear, and operating efficiency, maintenance teams can prioritize and schedule necessary maintenance and replacements more effectively.
AI-driven door activation and energy optimization
Artificial intelligence (AI) is another cutting-edge technology that plays an essential role in smart building management. AI algorithms can be applied to a wide range of building systems, from access control to energy optimization.
For example, advanced AI-driven door activation systems can improve building security and energy efficiency by restricting access to authorized personnel, reducing the amount of energy wasted by keeping doors open or ajar. In addition, AI-driven access control systems can incorporate biometric technology, such as facial recognition, to enhance security even further.
AI can also contribute significantly to energy optimization within a building. By analyzing large amounts of data gathered from IoT devices, AI algorithms can help building managers make more informed decisions about energy usage, equipment performance, and maintenance scheduling. This may include optimizing the scheduling of HVAC systems to avoid peak energy demand periods or continually adjusting temperature setpoints based on real-time occupancy data to maximize occupant comfort while conserving energy.
Ultimately, the integration of smart technologies like IoT, real-time monitoring, and AI has the potential to revolutionize building management, leading to more efficient, sustainable, and secure buildings that can intelligently respond to the needs of their occupants.
Standards, Certifications, and Best Practices
Installing energy-efficient sliding doors can have several benefits, including reduced energy consumption, lower utility bills, and a healthier environment. Consumers should be familiar with standards, certifications, and best practices that can help them make informed decisions about the products they buy or the services they use.
Energy Star ratings for sliding doors
Energy Star is a program run by the U.S. Environmental Protection Agency (EPA) and the U.S. Department of Energy (DOE) that promotes energy efficiency. The Energy Star label can be found on a wide range of products, including windows and doors like sliding doors. Products that carry the Energy Star label are independently certified to meet strict performance, quality, and energy efficiency criteria.
The Energy Star ratings for sliding doors take into account factors such as thermal performance, air leakage, and visible transmittance. Doors with higher ratings are more energy-efficient, and manufacturers are required to display the ratings on the doors to help consumers make informed decisions about the products they buy.
Energy Star-rated sliding doors can help homeowners save money on energy bills and improve the comfort of their homes. Choosing these energy-efficient doors can also reduce greenhouse gas emissions, which contribute to climate change.
LEED and other green building certifications
LEED (Leadership in Energy and Environmental Design) is another popular green building certification system developed by the U.S. Green Building Council (USGBC). It is an internationally recognized green building certification system that focuses on sustainable development and environmentally-friendly practices.
LEED-certified buildings are required to meet specific prerequisites and achieve certain environmental sustainability credits across different categories, such as sustainable sites, water efficiency, energy and atmosphere, materials and resources, and indoor environmental quality. Sliding doors can contribute to a building’s LEED certification, especially if they meet energy efficiency and material requirements.
In addition to LEED, there are other green building certifications that include sliding door efficiency standards, such as the Green Building Initiative’s Green Globes and the International Living Future Institute’s Living Building Challenge. These certifications also aim to promote environmentally responsible design and construction practices that can help minimize the negative impacts of buildings on the environment and human health.
Role of government incentives and regulations
Governments around the world have recognized the importance of energy efficiency and have implemented various incentives and regulations to encourage the adoption of energy-efficient products and practices.
In the United States, for example, federal tax credits are available for homeowners who purchase energy-efficient products like Energy Star-qualified doors, windows, and skylights. These tax credits can help reduce the cost of purchasing energy-efficient products, making energy efficiency improvements more accessible to homeowners.
Other incentives provided by governments include grant programs, low-interest loans, and rebates for energy-efficient home improvements. These programs can further motivate homeowners and builders to adopt energy-efficient practices in their homes and buildings.
In addition to incentives, governments also implement regulations to mandate energy efficiency standards for buildings and appliances. Building codes often include minimum energy efficiency requirements for doors, windows, and other building components. These regulations serve to ensure that builders and manufacturers adhere to best practices in energy efficiency, ultimately benefiting consumers and the environment.
In conclusion, being aware of standards, certifications, and best practices related to energy-efficient sliding doors can help consumers make informed decisions about the products they buy and the services they use. By choosing energy-efficient products, like Energy-Star-rated sliding doors, consumers can reduce energy consumption, save on utility bills, and contribute to environmental sustainability. Furthermore, understanding green building certifications like LEED and the role of government incentives and regulations can ensure that energy-efficient best practices remain at the forefront of building and renovation projects.
Case Studies and Success Stories in Energy-efficient Sliding Door Technology
Energy-efficient sliding door technology has made significant advancements in recent years. As a result, architects, building developers, and consumers are increasingly adopting this technology, recognizing the many benefits that energy-efficient sliding doors offer compared to conventional options. In this article, we will discuss some case studies and success stories highlighting the use of energy-efficient sliding door technology for commercial and residential applications, the impact on energy savings and comfort, and lessons learned for future implementation.
Commercial and residential applications
One of the most notable success stories in energy-efficient sliding door technology comes from Germany. In an attempt to reduce energy consumption in public buildings, the city of Dortmund partnered with the company GEZE to retrofit existing buildings with energy-saving sliding door systems. Over 70 buildings in the city have been upgraded with this technology, improving energy efficiency and saving up to 30% in heating and cooling costs.
In residential applications, energy-efficient sliding doors are quickly becoming a popular choice among homeowners. One notable example comes from a sustainable housing project in Stockholm, Sweden. The developer incorporated energy-efficient sliding doors in every unit of the complex, resulting in significant energy savings for residents. These doors have the ability to save up to 50% in energy costs compared to traditional sliding doors. Additionally, they contribute to creating a comfortable living environment with natural daylight and ventilation.
Impact on energy savings and comfort
The use of energy-efficient sliding doors can have a significant impact on energy savings and overall building comfort. According to a study conducted by the Fraunhofer Institute for Building Physics, energy-efficient sliding door systems can reduce a building’s heating energy use by up to 49% and cooling energy use by up to 35%. This translates to considerable cost savings for building owners and occupants.
Moreover, energy-efficient sliding doors promote occupant comfort by offering increased access to natural daylight, improved indoor air quality, and better thermal comfort. Studies have shown that access to natural daylight can improve occupant productivity and well-being, while better indoor air quality can result in reduced sick days and improved indoor environmental quality.
Another significant benefit of energy-efficient sliding doors is their ability to provide a barrier against external noise. This can be especially beneficial in urban areas where traffic and other noise sources can greatly impact occupant comfort. By using energy-efficient sliding doors, building occupants can enjoy a quieter and more comfortable indoor environment.
Lessons learned for future implementation
The success stories outlined above provide valuable insights into the benefits and potential for broader adoption of energy-efficient sliding door technology. Here are some key lessons learned for commercial and residential projects considering implementing energy-efficient sliding doors:
- Proper installation and maintenance are critical to achieving the full benefits of energy-efficient sliding door systems. Professionals should be consulted to ensure proper installation techniques are followed, and regular maintenance checks should be conducted to maintain optimal performance.
- Customized solutions may be necessary to cater to specific building requirements and design preferences. When selecting energy-efficient sliding doors, it is important to consider factors such as climate conditions, building orientation, and occupant needs.
- Education and awareness among building professionals and consumers are essential in promoting the adoption of energy-efficient sliding door technology. By highlighting the energy-saving benefits and improved comfort offered by these solutions, decision-makers can better understand the long-term value and sustainability of investing in energy-efficient sliding doors.
In summary, the increased adoption of energy-efficient sliding door technology has the potential to make a significant impact on reducing energy consumption in commercial and residential buildings while simultaneously improving occupant comfort. By examining successful case studies and learning from their experiences, we can continue to promote the widespread adoption of this innovative technology in the construction industry, ultimately contributing to global sustainability efforts.
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FAQs on The Development of Energy-Efficient Sliding Door Technology
1. What have been the recent advancements in energy-efficient sliding door technology?
Recent advancements in energy-efficient sliding door technology include the use of insulated glass units, thermally broken frames, low-emissivity coatings, and automatic door technology to improve insulation and reduce heat transfer (Lawrence Berkeley National Laboratory, 2021).
2. How do energy-efficient sliding doors support environmental sustainability?
Energy-efficient sliding doors contribute to environmental sustainability by reducing energy consumption for heating and cooling, lowering greenhouse gas emissions from buildings, and potentially reducing the need for non-renewable energy resources (U.S. Department of Energy, 2020).
3. What factors should one consider when selecting energy-efficient sliding doors for a building project?
When selecting energy-efficient sliding doors, consider factors such as the door’s energy performance ratings, insulation properties, type of glass used, and potential energy savings to ensure optimal energy efficiency and cost-effectiveness (National Fenestration Rating Council, 2021).
4. What are the benefits of incorporating automatic sliding door systems in energy-efficient buildings?
Automatic sliding door systems offer benefits for energy-efficient buildings, such as improved climate control, reduced air infiltration, and lower energy consumption for heating and cooling due to the doors’ ability to open and close quickly (Anderson et al., 2021).
5. Are there any incentives or grants available for implementing energy-efficient sliding doors?
Incentives and grants for implementing energy-efficient sliding doors may be available through local, state, or federal energy efficiency programs such as tax credits, rebates, and low-interest loans (Database of State Incentives for Renewables & Efficiency, 2021).
6. How do low-emissivity coatings on energy-efficient sliding doors work to reduce energy consumption?
Low-emissivity (low-e) coatings on energy-efficient sliding doors help reduce energy consumption by reflecting infrared energy, keeping heat inside during colder months and reducing heat gain from the sun during warmer months (International Glazing Database, 2021).