Sustainable Design Courses

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Displaying 101 - 125 of 419 results.

FIRST PREV [51-75] [76-100] [101-125] [126-150] [151-175] NEXT LAST

  • ( ~ 1 hour ) 

    Extreme weather events of all sorts are becoming increasingly frequent and ferocious. Wood stick-framed structures struggle to withstand them. As climate behavior shifts and worsens, building damage and destruction increase, building codes evolve, and insurance premiums skyrocket or simply become unavailable for certain building types in some locations. Architects must now utilize stronger, more resilient, noncombustible building approaches to address this situation. In addition, mounting pressures related to labor shortages, rising material costs, stringent building codes, and environmental volatility are pushing architects, developers, and engineers to reimagine their approaches to structural design and material selection. This course explores how an innovative, scalable, and economical cold-formed steel column and composite beam framing system can and does address these issues to create faster and deliver stronger, more cost-effective, and sustainable projects. This well-proven, code compliant system reduces dependencies on multiple trades and minimizes the number of handoffs, positively impacting schedule compression, which then translates directly into earlier openings, faster revenue generation, and reduced labor costs. The system is applicable to a range of housing, hotel, and commercial midrise projects in all climates. The course begins by exploring the limitations of traditional wood and metal framing systems. It then describes this prefabricated cold-formed steel (CFS) column and beam framing system and its details, erection methodology, advantages, environmental and sustainability benefits, accreditations, and certifications. It concludes with some representative examples of real-life projects.

  • ( ~ 1 hour, 30 minutes ) 

    Healthcare environments require high-performance, durable, and sustainable materials to meet the ever-increasing demands for the health and safety of patients and staff. Vinyl provides a reliable and proven solution that supports infection control measures, the need for long-lasting products, and the replacement of infrastructure that supports health and wellness, clean water, reduced carbon footprint, and long product service life. Vinyl is a material of choice for interiors as well as the core and shell of healthcare buildings. Chemistry and formulations are part of successful product performance; utilizing life cycle approaches to product selection, meeting owner project requirements, and supporting criteria within green building certifications are all part of the vinyl story.

  • ( ~ 1 hour ) 

    Concrete-faced insulated products are composite prefinished panels that are used to construct walls and roofing assemblies to maximize the energy efficiency, durability, and performance of a building envelope. This course discusses the design criteria used in designing energy-efficient buildings using concrete-faced continuous insulation systems for low-slope roofing, walls, and foundations. The functional and physical features of protective membrane roof (PMR) systems, concrete-faced insulated panels for walls and foundations, and concrete structural insulated panels (CSIPs) are evaluated.

  • ( ~ 1 hour ) 

    Protected membrane roof (PMR) assemblies have been widely adopted in low-slope commercial buildings since the late 1960s. Also known as inverted or upside-down roofs, PMR assemblies move the waterproofing membrane from the top of the roof assembly to the surface of the structural deck. This course explores how PMR assemblies provide several advantages over conventional roof assemblies, offering superior protection against water penetration and enhanced energy efficiency. The course also shows how PMR assemblies allow for the creation of green roofs or blue roof systems. With a proven record of reliability, PMR assemblies present a compelling solution for architects seeking innovative, sustainable, and efficient roofing options.

  • ( ~ 1 hour ) 

    The enhanced need for water conservation and a decrease of harmful runoff resulting from lawn maintenance has pushed the demand for environmentally-friendly alternatives for landscaping and recreational areas. Explored in this course are the uses, benefits, and specification and installation considerations of artificial turf products that replicate a natural grass look and feel in any environment

  • ( ~ 1 hour ) 

    With buildings accounting for nearly 40% of global carbon emissions, the push for greener construction has never been more critical. Sustainable building initiatives are taking center stage as the world strives to reduce emissions. The industry is moving toward adaptive and net-zero buildings, emphasizing energy efficiency and environmental awareness across sectors. Broaden your expertise in energy-efficient and adaptive building design by exploring the role of high-volume, low-speed (HVLS) fans in enhancing thermal comfort. This course shows why and how to specify HVLS fans as part of initial airflow designs to support sustainable building goals. Learners will discover how to optimize multiuse spaces for greater comfort through effective air distribution, temperature control strategies, and energy savings. By the end of the course, learners will have a solid understanding of HVAC efficiency challenges and solutions that align with LEED® v5 Building Design and Construction (BD+C), LEED v5 Interior Design and Construction (ID+C), WELL Building Standard™ version 2, ASHRAE, and OSHA standards. This course equips architects and engineers with practical strategies for integrating sustainable, cost-effective airflow solutions into their designs.

  • ( ~ 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 ) 

    Undesirable acoustics in educational spaces have long been considered averse to our goals to effectively teach, create, collaborate, listen, and learn. Now, in the wake of implementing pandemic protocols, our acoustic comfort in these spaces is greatly challenged. This course examines the impacts of poor soundscapes in educational facilities and introduces innovative solutions for improving acoustics in these areas while keeping us comfortable and safe from exposure to emerging viruses.

  • ( ~ 1 hour ) 

    Sustainable building envelopes demand high performance from and proper installation of continuous insulation and air, water, and vapor control layers. What happens when thousands of holes are made in these materials as they are installed with blind fasteners, one layer on top of another by different subcontractors? Sequencing issues can generally not be avoided; instead, this course focuses on self-sealing fasteners as a solution to avoid damage and thermal bridging in insulation and control layers. Various fasteners and anchors are described, and recommendations are presented for how to specify and what testing data to look for.

  • ( ~ 1 hour ) 

    Energy creation, distribution, and consumption are all in a period of transition. Understanding this transition and its benefits is critical to sustainable transitional energy planning (STEP). This course reviews the nature of the transition, the forces driving it, emerging energy systems and sources, and international and national examples. It details the process required for STEP and provides a comprehensive overview of the many renewable energy options now viable for community energy systems. It concludes with a series of illustrated sample plans and projects.

  • ( ~ 1 hour ) 

    A rooftop solar photovoltaic system offers myriad benefits to both building owners and the environment; to maximize the benefits, however, it is important to be aware of the potential causes and effects of problems with rooftop installations. This course presents the issues to consider to prevent damaging the roof, voiding the roofing warranty, and incurring additional costs. Solar system mounting options are explored in terms of how they can help eliminate concerns around rooftop installations.

  • ( ~ 1 hour, 30 minutes ) 

    Masonry is an ideal sustainable building construction material as it is extremely durable, recyclable, and reusable. It allows for extraordinary design versatility, so it can meet both aesthetic and functional requirements. This course looks at the design elements, components, and construction techniques that characterize sustainable masonry cavity wall building envelopes.

  • ( ~ 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 ) 

    Material transparency is a growing initiative in the green and healthy building arena. This course reviews legislation that provides the baseline for healthy and sustainable materials and discusses the limitations of those regulations. It also explores the predominant green building programs and how material transparency can help achieve certification. Learners will leave this course with an understanding of how to access, analyze, and apply material transparency to their projects and leverage initiatives to support a healthier, more sustainable building industry.

  • ( ~ 1 hour ) 

    This course examines the design and benefits of pre-engineered trench drains in a sustainable wastewater management system. Discover how they effectively manage water runoff, prevent ponding, and enhance safety in transportation, industrial facilities, and public spaces while supporting sustainable practices. Explore system types, maintenance strategies, and performance optimization, along with guidance on funding and compliance. Gain the knowledge to implement smarter, safer, and more efficient water management solutions in your next project.

  • ( ~ 1 hour ) 

    A properly designed roof is a building’s primary shield, safeguarding everything beneath it. Presented are metal roofing substrates, their advantages and drawbacks, and material compatibility. Also discussed are metal roofing configurations, finishes and coatings, and roofing system components. Design considerations, including expansion and contraction, fasteners, climate/regional weather, fire resistance, cool roof designs, and structural weight, are reviewed.

  • ( ~ 1 hour ) 

    With the advent of “cool” single-ply roofs featuring heat-reflective exterior surfaces and the use of mechanical attachment, new questions have emerged concerning the internal forces at play within the roofing system, especially in regard to vapor movement and the potential for moisture condensation within the roof. This course reviews the fundamentals of vapor movement in roofing systems, current roof condensation research and the tools available to assess roof condensation. It also provides the building design professional with strategies to deal effectively with moisture movement within the roofing system.

  • ( ~ 1 hour ) 

    As the architectural industry shifts toward more sustainable, low-maintenance materials, aluminum has emerged as a preferred choice for its eco-friendly properties, design versatility, and long-lasting performance. This course explores its manufacturing and installation processes, durable finishes, and wide-ranging applications, including cladding, soffits, battens, fencing, gates, screens, and pergolas. Discover how aluminum helps architects elevate design while meeting sustainability goals, particularly those of the LEED® v4.1 Building Design and Construction green building rating system.

  • ( ~ 1 hour ) 

    In this course, we will explore the features and outdoor applications of elevated deck systems that enable architects to optimize outdoor spaces with functionality, sustainability, and aesthetic appeal, creating attractive and safe spaces for occupants. This course covers the system components for practical applications in various settings, offering insights into proprietary pedestal systems.

  • ( ~ 1 hour ) 

    This course introduces the learner to the benefits and design advantages of porcelain surface material for both indoor and outdoor use in residential and commercial projects. Since it is a relatively new material in the US, we will review its components and manufacture and how they result in a product with exceptional characteristics for human health and durability. We'll also show and discuss indoor and outdoor applications, the variations available for vertical and horizontal applications, and the many design options. Finally, we’ll help the learner understand what is needed to design with this material and how to work with a fabricator.

  • ( ~ 1 hour ) 

    Foam plastic insulation materials, such as spray foam and rigid foam board, gained popularity after the 1970s oil crisis as energy‑efficiency solutions. While energy efficiency remains central to building codes, expectations now also include reducing carbon emissions to support building decarbonization. This course examines the embodied carbon of insulation materials and their role in reducing operational energy use, enhancing building resilience, improving community well-being, and supporting sustainable, resource‑efficient design.

  • ( ~ 1 hour ) 

    Adequate water consumption is essential to human health, and many turn to bottled water for convenience or out of concerns about the public drinking water supply. But bottled water presents its own water quality issues along with environmental impacts of disposable plastic bottles. This course explores bottle-filling stations that offer safer, convenient, sustainable hydration in a wide range of applications. Also reviewed are the features, benefits, and installation options of bottle-filling stations and how they contribute to drinking water requirements in the WELL Building Standard™ (WELL™) version 2.

  • ( ~ 1 hour ) 

    Architectural acoustic design focuses on managing airborne and impact sound within indoor and outdoor spaces. This course addresses the acoustic challenges associated with outdoor recreational spaces, focusing on the surge in pickleball popularity. Participants will learn the fundamentals of sound propagation in open-air environments and explore how modern acoustic products can reduce unwanted noise while maintaining functionality and the design intent. Acoustic solutions for indoor spaces requiring noise reduction are also covered, as well as the role of acoustic barriers in meeting the requirements of the LEED® v5 Building Design and Construction and Interior Design and Construction rating systems and the WELL Building Standard™ v2.

  • ( ~ 1 hour ) 

    The planet is currently in a water scarcity crisis, which is significantly affected by toilet water usage. This course examines the current plumbing codes, standards, and regulations that address toilet water usage, the need for and benefits of going beyond current standards, and the goals of a variety of beyond-the-code voluntary standards and rating systems, such as LEED v4 BD+C and ICC 700 National Green Building Standard®. It explains the various types of low-flow and ultra-low-flow toilets, their pros and cons, and their selection criteria. It concludes with a sampling of successful cost- and water-saving installations.

  • ( ~ 1 hour, 15 minutes ) 

    Concrete masonry units (CMUs) are made from dry-cast concrete, which uses less cement and sequesters carbon at a faster and greater rate than wet-cast concrete. This course begins with an overview of concrete products and the differences between dry- and wet-cast concrete, then explores the relationship between concrete and the carbon cycle, recent research into CMU sequestration rates, and the results of mini life-cycle assessments comparing different wall systems. Finally, some practical strategies for further reducing embodied carbon are reviewed.

Displaying 101 - 125 of 419 results.

FIRST PREV [51-75] [76-100] [101-125] [126-150] [151-175] NEXT LAST