Sustainable Design Courses

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Displaying 126 - 150 of 417 results.

FIRST PREV [76-100] [101-125] [126-150] [151-175] [176-200] NEXT LAST

  • ( ~ 1 hour ) 

    Architectural glazing systems are vital to building performance, influencing energy efficiency, structural integrity, and aesthetics. This course compares storefront and curtain wall systems, explores performance optimization strategies, and examines their contribution to sustainability. Participants will gain the technical knowledge needed to develop effective product specifications.

  • ( ~ 1 hour ) 

    One of the more complicated issues today in building science is addressing moisture movement, since moisture can penetrate a building in several different ways and result in material degradation, air quality issues, and failure of the building enclosure. This course examines the ways moisture can enter a structure and discusses the role of different moisture control layers that, when correctly placed and installed, can prevent unwanted moisture infiltration.

  • ( ~ 1 hour, 15 minutes ) 

    The trend toward more sustainable, healthy, and energy-conserving enclosures has brought building science and moisture management to the forefront of daily conversation for professionals in the construction industry. In this course, we delve into the science behind current practices and explore the role of building envelopes, optimal wall assemblies, and enclosures in vapor, water, air, and thermal control.

  • ( ~ 1 hour ) 

    Daylight is an essential part of our health and well-being, but it needs management. Shading strives to maximize daylight without compromising building occupant comfort and well-being. This course explores the role daylight has within the built environment and its impact on occupants and energy usage, with a focus on how to better specify shadecloth based on factors such as project type, solar optical properties, shadecloth composition, and environmental factors.

  • ( ~ 1 hour ) 

    The look of wood adds warmth and aesthetic appeal to building designs that other materials, such as masonry, metals, and glass, cannot replicate. However, since natural wood may not be suitable for Class 1—3 commercial projects, innovative composite and synthetic materials have been developed to overcome the limitations of real wood. This course provides a comprehensive examination of eight wood-inspired design technologies that mimic the appearance of natural wood while meeting fire performance standards. The role of wood-plastic composite (WPC) hybrid products in fulfilling the requirements of the LEED® v5 Building Design and Construction (BD+C) rating system is also reviewed.

  • ( ~ 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 ) 

    The use of sustainable materials and products during building design will become the standard within the construction industry, and environmental product declarations (EPDs) and Health Product Declarations (HPDs) help architects and owners make informed decisions for their projects. Insulated metal panels— a prime example of a sustainable product—are one of the most cost-effective solutions to reduce energy and greenhouse gases.

  • ( ~ 1 hour ) 

    The intent of the Americans with Disabilities Act (ADA) is to ensure that individuals with disabilities have the same rights and opportunities as everyone else and are afforded equal access to the built environment. This course discusses the need for compliance with accessibility regulations and how businesses can benefit from it. It explores the ADA, criteria for perimeter and interior access, accessible design requirements for door and doorway components, and relevant codes, standards, and design guidelines.

  • ( ~ 1 hour ) 

    The growing global population is creating an increased demand for resources. As a result, there is a need to replace fossil-based, nonrenewable building materials with more bio-based materials, such as bamboo. This course describes the properties of bamboo that make it a more sustainable choice, including its fast growth and CO2 saving and storing potential. It also discusses how active bamboo reforestation and the use of durable bamboo products can lead to CO2 reduction across many industries.

  • ( ~ 1 hour, 15 minutes ) 

    Today’s buildings are evolving from independently functioning structures to intelligent buildings that interact with occupants and surrounding buildings. This trend has impacted the design, operation, and maintenance of data centers around the globe due to the increased demand for data and digital communication and has resulted in more high-performance data centers. This presentation addresses the specific needs of data centers and presents high-performance design solutions that support sustainable design.

  • ( ~ 1 hour, 15 minutes ) 

    Stone has long been valued for its durability, reliability, and beauty. Today, natural thin stone veneer offers these benefits with reduced weight, cost, and environmental impact. This course explores its applications in commercial and residential settings, covering aesthetics, performance, and key specification standards. It also examines the sustainability profile of thin stone veneer compared to full natural and manufactured stone, highlighting an industry-wide LCA, responsible quarrying and processing, and how collaboration with fabricators can reduce environmental impact while preserving quality and design integrity.

  • ( ~ 1 hour ) 

    Architectural metal fabric is a dynamic interior and exterior material used to create beautiful and functional façades, balustrades, and screening for a wide variety of commercial and public structures. This course discusses applications for metal fabric and its performance benefits, including safety, security, solar management, and sustainability. It also discusses how coatings and graphics technologies can be incorporated into metal fabrics to enhance branding and visual identity.

  • ( ~ 1 hour ) 

    Industrial-strength ladders must provide functional safety for users in varied and demanding building environments. Aluminum ladders are up to the challenge of virtually any application thanks to aluminum’s high strength-to-weight ratio, durability, and corrosion resistance. This course reviews ladder types and safety considerations and discusses how the sustainability benefits of aluminum along with its other attributes make it an ideal material for heavy-duty ladders.

  • ( ~ 1 hour, 15 minutes ) 

    A metal roof combines performance and aesthetics to give commercial and residential buildings strength, longevity, and character. This course examines the features and benefits of standing seam metal roofing and explains the factors to consider when selecting a project-specific metal roofing system.

  • ( ~ 1 hour ) 

    Thermally controlled environments such as cold storage freezers and coolers, and food processing and packaging facilities take many different forms. Their performance and functionality depend on their project-specific requirements and can be affected by the conditions the materials and systems are subjected to. This course discusses how insulated metal panels (IMPs) perform the necessary functions to provide an effective energy-efficient building envelope and why they are suitable for use within temperature-controlled hygienic environments—where performance is critical.

  • ( ~ 1 hour ) 

    Multiwall polycarbonate is an extremely versatile glazing material with high impact strength, excellent thermal insulation, and long-term light transmission. Compared to glass, it is much lighter and easier to handle, offering considerable savings in transportation, labor, and building costs. This course examines how multiwall polycarbonate systems can improve thermal energy efficiency and increase daylighting within a space, enhancing occupant productivity, health, and well-being.

  • ( ~ 1 hour ) 

    Biophilic design is a methodology for designing buildings and landscapes that improve human health and well-being while fostering a deeper appreciation for the natural world. This course provides an overview of biophilic design and its frameworks and how it can help projects earn certification through LEED® v4.1 Building Design and Construction (BD+C): New Construction, WELL Building Standard™ version 2, Sustainable SITES Initiative® v2, and the Living Building Challenge (LBC).

  • ( ~ 1 hour ) 

    Although known for being a strong and versatile building material, there are a number of factors that affect the sustainability of concrete, and a variety of measures that can be taken to increase its durability and extend its service life, thus protecting the health, safety, and welfare of the users. This course discusses the environmental impact of concrete and some of the main causes of concrete deterioration, and examines how crystalline waterproofing technology can be employed to increase the durability and sustainability of concrete.

  • ( ~ 1 hour ) 

    Natural and artificial lighting surrounds us at all times. Light helps us to work safely, enhances design, creates atmosphere, and influences our well-being. This course discusses the circadian rhythm, occupant health, and lighting color temperature, and it examines LED lighting requirements and options for lighting-integrated bathroom mirrors and cabinets.

  • ( ~ 1 hour ) 

    As technology advances, lighting and power are becoming increasingly vital in enhancing user experience and building performance in healthcare environments. In this course, you’ll discover how flexible lighting solutions and their control features can transform both indoor and outdoor spaces, boosting health and productivity. You will also explore best practices for power and energy management, along with strategies for achieving safety compliance. Elevate your skills and learn how to create safe, tech-integrated spaces that support health and functionality.

  • ( ~ 1 hour ) 

    Deck railing systems provide the finishing touch to an outdoor area, as well as safety and improved accessibility. Choosing a system that suits a deck project’s needs depends on a variety of factors, including cost, durability, style, customization, maintenance, and eco-friendliness. This course explores the many railing materials that are available, with a focus on aluminum, composite, and aluminum and composite railing systems, whose characteristics are ideal for most projects. 

  • ( ~ 1 hour ) 

    In the last couple of decades, houses have become progressively more airtight due to energy efficiency and cost concerns. While air infiltration and exfiltration rates have been significantly reduced, the need for an efficient ventilation system has become extremely important. This course evaluates different types of mechanical ventilation systems and discusses why heat recovery ventilation (HRV) and energy recovery ventilation (ERV) systems are characterized by a high level of energy efficiency and as an effective means for improving indoor air quality.

  • ( ~ 1 hour ) 

    The building envelope is the physical separator between the conditioned and unconditioned environment of a building and provides resistance to air, water, heat, light, and noise transfer. As a thermal barrier, spray polyurethane foam (SPF) offers numerous opportunities to contribute to building envelope performance and indoor air quality in several project types. This course presents the sustainable aspects of SPF, SPF fire and strength testing, and the benefits of SPF in below- and above-grade and rooftop applications.

  • ( ~ 1 hour ) 

    As concrete is a carbon-intensive building material, design and construction professionals are encouraged to make informed, low-carbon design decisions. This course explores the evolving path toward low-carbon concrete solutions. Discussions include mix design optimization and trade-offs, exposure class, benchmarks, environmental product declarations (EPDs), and potential contributions toward LEED® v5 Building Design and Construction credits. Structural design strategies, performance-based specifications, and project-level carbon budgets are presented as means to support project and sustainability goals and performance requirements.

  • ( ~ 1 hour ) 

    Redwood lumber and timbers from sustainably managed and harvested forests offer warmth, durability, and strength in indoor and outdoor projects. This course covers the performance characteristics, environmental benefits, and applications of Redwood, including several case studies that highlight the beauty and versatility of Redwood products. Details are presented on differentiating the grades of Redwood, specifying the right grade for the project type, and the specification resources that are available.

Displaying 126 - 150 of 417 results.

FIRST PREV [76-100] [101-125] [126-150] [151-175] [176-200] NEXT LAST