Category: THERMAL AND MOISTURE PROTECTION

Displaying 1 - 25 of 182 results.

FIRST [1-25] [26-50] [51-75] [76-100] [101-125] NEXT LAST

  • ( ~ 1 hour ) 

    With the ever-increasing focus on the sustainable built environment, building owners, architects, engineers, and contractors are incorporating structural steel into their designs. Presented here is a comprehensive view of the cradle-to-cradle structural steel supply chain from a sustainability perspective. Also discussed are steel production and design, steel’s potential contribution to LEED v4 credits, thermal capacity, and the environmental and life cycle benefits of prefabricated fireproof steel columns.

  • ( ~ 1 hour ) 

    With the increasing prominence of glass in new buildings and retrofits, the use of window film can raise the style, performance, and safety of today’s building projects. This course examines the use of various types of window film (decorative, solar control, and safety/security) and their role in improving occupant comfort and safety, lowering energy costs, and enhancing privacy.

  • ( ~ 1 hour ) 

    Urban warming negatively impacts human health and quality of life, energy use, air quality, social equity, and economic prosperity. This course describes how solar reflective cool roof and wall materials help protect individuals and communities from the impacts of extreme heat and discusses the factors that influence energy savings and performance. The course also notes various climate resilience initiatives, green building programs, and energy codes that require or promote the use of cool roofs or walls and concludes by explaining the important role of third-party product ratings and the educational resources available online.

  • ( ~ 1 hour ) 

    Understanding the performance of building materials in real-world conditions is key to a successful building design. Recent studies have shown that the commonly reported R-values of polyisocyanurate foams at room temperature may overstate their real-world performance in cooler temperatures, potentially resulting in gaps in designed building enclosure assembly performance and quality. Through a theoretical framework and empirical data, this course shows that optimized polyisocyanurate foam insulation results in better performance, leading to improved energy savings and reduced potential for condensation. Participants are encouraged to explore innovative insulation materials, understand differences between them, and match optimal materials to specific applications while meeting modern construction codes and regulations. By matching the right insulation materials to the application, architects can contribute to energy-efficient and cost-conscious construction practices and help buildings reduce their impact on the environment.

  • ( ~ 1 hour ) 

    Exterior wall systems are the dividing line between the exterior and the interior and must address several fundamental performance goals of the building envelope. This course reviews traditional rainscreen design and examines why, with its single-component construction, an insulated composite backup wall system is a vast improvement over traditional multicomponent building technology.

  • ( ~ 1 hour, 15 minutes ) 

    Protected roof membrane assemblies (PRMAs), and vegetative roof assemblies (VRAs) in particular, place extreme requirements on the components below the surface, from waterproofing to insulation and everything in between. Each element must meet specific standards for energy efficiency and durability. This course reviews the benefits and design considerations of VRAs. It also describes the high-performance attributes of VRA components and defines the building code/performance standards and best specification practices for optimal fire, wind, thermal, and moisture performance.

  • ( ~ 1 hour ) 

    A naturally occurring radioactive gas, radon is a silent danger to our health. Colorless and odorless, it enters homes and structures through openings in the foundation and below-grade walls, becoming trapped in basements and other poorly ventilated areas. This course looks at methods of controlling radon, how it is addressed in building codes, the advantages of closed-cell spray polyurethane foam (ccSPF) over other insulation materials, and proper installation techniques.

  • ( ~ 1 hour, 15 minutes ) 

    There are a multitude of building envelope products used and a variety of methods taken for achieving energy and building code requirements. Understanding the different roles a product plays in the envelope simplifies its design. In this course, we take a look at the code requirements for buildings classified as IBC Types I–IV, paths to achieving compliance, and the number of roles polyisocyanurate insulation plays in meeting these requirements.

  • ( ~ 1 hour, 15 minutes ) 

    As part of a well-designed rainscreen system, single-skin metal panels offer unique aesthetic options combined with the assurance that the building envelope will withstand the effects of long-term exposure to the elements. This course compares common cladding types; presents single-skin metal panel materials, coatings, finishes, and design options; and examines using single-skin metal panels with a single-component barrier wall to form a complete rainscreen assembly. This course is one of two identical courses titled Single-Skin Metal Panel Building Envelope Solutions . You will receive credit for taking only one of these courses.

  • ( ~ 1 hour, 30 minutes ) 

    Insulating concrete form (ICF) products use a cost-effective and robust structural material option (reinforced concrete) to turn a building envelope into a high-performing thermal, moisture, and air enclosure with disaster resistance and built-in compliance with energy code requirements. As a result of ICF performance, building owners can complete a whole structure with ICFs and reinforced concrete, including intermediate suspended floors, rooftops, and multistory designs. This course examines the advancements in ICF technology and discusses the potential contribution of ICFs to supporting improved sustainability and resilience.

  • ( ~ 1 hour ) 

    Roofing is one of the most common renovation projects on commercial buildings. Upgrading a roof assembly to meet current building standards provides an opportunity to save energy and maintain the necessary fire and structural performance. This course reviews the code requirements for commercial reroofing and discusses how reroofing can improve a building’s energy efficiency.

  • ( ~ 1 hour, 15 minutes ) 

    Critical to concrete waterproofing are the products used in combination to create a system that ensures complete control of moisture migration. Presented here are effective concrete waterproofing technologies and how they improve the durability and lifespan of structures. Discussions include water penetration, system selection, membrane protection, and cementitious waterproofing.

  • ( ~ 1 hour, 30 minutes ) 

    The key to an energy-efficient metal building is the implementation of a continuous insulation system that virtually eliminates thermal bridging and prevents condensation. This course discusses how using thermal spacer blocks and metal building insulation in the building envelope increases energy performance, protects against condensation, and meets stringent energy code requirements.

  • ( ~ 1 hour ) 

    Cellulose insulation has been used successfully by builders and designers for hundreds of years to provide comfort and warmth. Today, builders and designers also consider sustainability principles, climate change, occupant health and wellness issues, energy conservation, and carbon sequestration. Advanced cellulose insulation addresses all those areas as well. This course explains its environmental benefits, including its carbon capture ability, how it improves occupant health and well-being, and its numerous high-performance thermal, acoustic, and fire-resistant attributes.

  • ( ~ 1 hour, 15 minutes ) 

    White roofs made of PVC (vinyl) can reflect three-quarters or more of the sun's rays and emit 70% or more of the solar radiation absorbed by the building envelope. Despite protecting and keeping buildings cool in all climates around the world for decades, misconceptions about the energy impact of cool roofs still exist. This course uses the fundamental science behind cool roofs to address alleged issues concerning the performance of cool roof products.

  • ( ~ 1 hour ) 

    Architectural insulated metal panels (IMPs) are an increasingly popular choice for building developers and architects, presenting a compelling solution that combines functionality, efficiency, and aesthetic appeal. This course reviews the architectural IMP, its applications and benefits, and comparisons to other materials. It explores current trends and developments that are paving the way for increased aesthetic possibilities and building envelope performance.

  • ( ~ 1 hour ) 

    Outdoor decks are commonly desired by homeowners and commercial property owners for both new and existing properties. Wood has long been the structural choice for outdoor deck materials. However, wood has disadvantages that can be mitigated with steel deck framing structural construction. In this course, we will discover that light-gauge steel (LGS) is lighter in weight than structural wood, is less susceptible to deterioration due to the elements and pests, requires less maintenance over time, is a sustainable material, and offers unparalleled safety features for dead loads, live loads, and environmental loads such as snow, earthquakes, and wind. Steel deck framing is quick to erect and provides for longer spans than wood of similar cross-sectional size. Structural materials can be easily lifted, and waste is reduced.

  • ( ~ 1 hour ) 

    Understanding building physics is critical to proper building envelope design. Examined here are practical concepts for the building designer, including how cladding systems perform across different climate zones and applications. Environmental control layers and hygrothermal loads are reviewed, as is the concept of perfect/universal wall design. The course focuses on how single-component insulated metal panels (IMPs) function as a perfect/universal wall, simplifying wall system design and installation.

  • ( ~ 1 hour ) 

    Water and moisture intrusion can affect everything from a building’s structural durability to its indoor air quality. Understanding the material options, installation, and testing criteria for high-performing weather-resistant barriers (WRBs) can help specifiers manage present and future moisture concerns.

  • ( ~ 1 hour ) 

    Outdoor living space has become an important residential design consideration in the last several years. Decks create welcoming spaces to relax and entertain with family and friends, and a well-built deck can add more living space and value to a home. This course discusses deck surfaces, maintenance, and costs and explores porcelain tile as an alternative to wood and composite deck surfaces that is well suited to exterior environments. Also discussed is how porcelain tile can be used with a new pultruded fiberglass and composite underlayment, called structural ribbed self-supporting boards, and the sustainable features of this technology.

  • ( ~ 1 hour ) 

    Provides an overview of the types, features, and benefits of designing with cellular PVC trim, including a discussion on the installation guidelines and manufacturing processes.

  • ( ~ 1 hour ) 

    Bamboo is a versatile building material that brings warmth and character to indoor applications such as flooring, furniture, and wall and ceiling panels; an innovative process also allows bamboo to be used outdoors in decks, soffits, and siding. This course reviews the material technologies that make bamboo products with reduced environmental impacts and better performance than traditional materials and discusses their potential to meet requirements of the LEED® v4.1 Building Design and Construction and Interior Design and Construction rating systems and the WELL Building Standard™ version 2.

  • ( ~ 1 hour ) 

    In the fight against climate change, efforts intensify against the planet’s number one enemy—carbon dioxide. The building industry will play a significant role in these efforts. Embodied carbon—the global greenhouse gas emissions generated from sourcing raw material and processing, manufacturing, transporting, and installing building materials—will be the target over the next decade. This course will define embodied carbon, its impact on greenhouse gas emissions, the construction industry's impact, and the methods and tools that building designers can employ to limit embodied carbon.

  • ( ~ 1 hour ) 

    Concrete is an essential part of modern buildings. As net zero energy buildings become more common, it is crucial to find ways to reduce concrete’s carbon footprint without losing the performance characteristics that make it valuable to the building team. This course explains the sources of concrete’s carbon footprint and explores strategies for reducing embodied carbon and operational carbon in precast sandwich wall panels and insulated architectural cladding.

  • ( ~ 1 hour ) 

    The increase in building energy efficiency requirements has led to the use of exterior continuous insulation (CI) to improve the performance of the building envelope. This presentation reviews the benefits of polyiso continuous insulation and then examines in detail the NFPA 285 test standard and fire safety requirements of the 2021 International Building Code for the use of polyisocyanurate insulation in exterior walls of commercial buildings (Construction Types I–IV).

Displaying 1 - 25 of 182 results.

FIRST [1-25] [26-50] [51-75] [76-100] [101-125] NEXT LAST