Sustainable Design Courses

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Displaying 1 - 25 of 422 results.

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

  • ( ~ 1 hour ) 

    In response to a stronger emphasis on natural resources, building efficiencies, and occupant welfare, manufacturers continue to improve design service offerings, product performance, and installation solutions. Fiberglass fenestration meets these demands for residential and commercial design in the built environment. This course explores the performance attributes of fiberglass fenestration, energy efficiency and structural benefits, testing and verification processes, and contributions to healthy building occupancy.

  • ( ~ 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, 15 minutes ) 

    The need to evaluate thermal bridging in a building’s design and performance has become more prevalent because of the increasing requirements for more energy-efficient buildings. This course provides an introduction to thermal bridging, energy code requirements, and the use of thermal break solutions designed to improve energy efficiency in the building envelope.

  • ( ~ 1 hour ) 

    Designing to accommodate thermal movement is just one of the many critical details for the long-term success of a metal roof installation. This course covers the design and specification considerations and architectural details that impact project requirements, as well as the components and the energy-efficient features of metal roofing assemblies.

  • ( ~ 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 ) 

    As more companies invest in solar to generate clean power for their operations, meet environmental goals, or save money on electrical bills, architects and building owners may need to be prepared to accommodate rooftop photovoltaic (PV) systems in both existing and new buildings. This course provides an introduction to rooftop PV systems, including a discussion of modules, components, and attachments, and best practices for a durable roof and PV system.

  • ( ~ 1 hour ) 

    Rapidly changing trends in our society, such as urbanization and a modern lifestyle, have resulted in the isolation of humans from experiences within nature. Research has shown that the psychological effects of biophilic design on noise perception have a significant influence on the well-being and health of humans. In this course, we review the science of sound, identify the potential problems associated with noise, and introduce the range of acoustic solutions formed from polyethylene terephthalate (PET) felt designed to provide sound-dampening benefits for busy commercial, educational, and healthcare facilities.

  • ( ~ 1 hour ) 

    Concrete structures often face some of the most challenging environments, where chemical reactions can rapidly cause erosion and reduced service life. This course explores how acid attack, microbially induced corrosion (MIC), and carbonation compromise the structural integrity of concrete. It covers the origins and damaging effects of these processes, such as cracking, spalling, and corrosion. Learners will discover waterproofing strategies that prevent deterioration through performance-based admixtures that combine antimicrobial and crystalline technologies, along with a visual detection system for on-site verification. Designers will be better equipped to specify protective measures that extend the service life of concrete structures, reduce long-term maintenance, and lower the project’s carbon footprint.

  • ( ~ 1 hour ) 

    Natural fibers have been used for over 2,000 years as a method to strengthen building materials. Cellulose fiber provides an excellent alternative to traditional secondary reinforcement, reducing plastic shrinkage cracks and improving durability, impact resistance, shatter resistance, and freeze/thaw resistance without compromising the appearance or finishability of a concrete surface. This course covers the evolution of fiber, its benefits, and why it is a sustainable material.

  • ( ~ 1 hour ) 

    What is wastewater energy recovery and how does it apply to the future of energy efficiency and decarbonization? In this course, we will explore how this previously overlooked source of energy loss from buildings can be utilized to endlessly recover and recycle energy within projects ranging from individual multifamily residential buildings to commercial and industrial applications and even to district energy networks. Wastewater heat recovery and transfer technologies used in small- and large-scale applications are also discussed, with case studies showcasing the practical applications and garnered benefits.

  • ( ~ 1 hour ) 

    Authorities having jurisdiction all over the world, including in all 50 US states, have mandated photoluminescent egress path markings to support safe evacuation of high-rise buildings in the case of total power failure. This course reviews photoluminescent egress path marking requirements in the model International Building Code® and International Fire Code® (2015, 2018, 2021) and identifies compliant photoluminescent path marking products. The course also discusses recommended best practices that exceed code requirements, which will reduce building operation costs and improve occupant and first responder safety.

  • ( ~ 1 hour ) 

    Incorporating sustainable building materials into design practices is essential for creating environmentally responsible, healthy, and resilient built environments. Thermal modification is a tested and proven chemical-free process for increasing the dimensional stability and long-term performance of wood while preserving its natural beauty. Presented are the thermal modification process, the attributes, applications, and favorable environmental impacts of thermally modified wood, and how thermally modified wood can contribute to achieving certification in LEED® v4.1 Building Design and Construction and Interior Design and Construction, Sustainable SITES Initiative® v2, the WELL Building Standard™ version 2, and the Living Building Challenge (LBC).

  • ( ~ 1 hour ) 

    Undesirable acoustics in educational spaces adversely affect the learning and teaching processes. The impact on students’ academic achievement, social adaptation, and mental health can be profound and long lasting. This course examines the impact of different sound problems and presents solutions that create synergy between the architecture and the classroom environment to optimize student learning and engagement and teacher retention.

  • ( ~ 1 hour ) 

    Incorporating nature into the built environment through biophilic design increases occupant well-being, productivity, and health and is an integral component of an ecologically healthy and sustainable community. Presented here is an overview of biophilic design, its relationship to sustainability, and its positive human, environmental, and economic outcomes. Case studies demonstrate how rooftop deck systems can contribute to biophilic and sustainable design objectives.

  • ( ~ 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, 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 ) 

    Infrared patio heaters sustainably increase safety and comfort in outdoor entertaining areas. There are many variables in creating ambient warmth, and the effectiveness and cost of heating an outdoor space depend on the design of the selected heating option. This course looks at the available outdoor heating options and their sustainability profiles, focusing on the types, color choices, mounting methods, and control options of electric infrared heaters. It includes a review of the steps required to select the best solution.

  • ( ~ 1 hour ) 

    Not only is standing seam metal roofing (SSMR) robust and durable, but the seam itself also provides a convenient anchorage point for the mounting of rooftop equipment. This course reviews the features and advantages of SSMR in terms of durability and sustainability, and the appropriate attachment solutions for mounting equipment. The course focuses on nonpenetrating roof seam clamps and design considerations for their use with snow retention and solar panel systems.

  • ( ~ 1 hour ) 

    Daylighting has traditionally been considered a functional way to bring natural light into building design. This course explores innovative applications of daylighting using various methods to deliver natural light into spaces and create visually appealing natural lighting as part of an overall design. It also examines daylighting strategies, considerations, and material options for successful project planning. By incorporating daylighting into projects, architects can create innovative environments that meet the sustainability goals of the building and the health, safety, and welfare needs of its occupants. Applicable credits and features in the LEED® v4.1 Building Design and Construction rating system and the WELL Building Standard™ version 2 are noted.

  • ( ~ 1 hour ) 

    Rooftop deck systems offer the design flexibility to create adaptable, sustainable outdoor spaces that provide myriad environmental, social, economic, and aesthetic benefits. This course presents the three pillars of sustainability and how building products, materials, and systems can contribute to sustainable design. It outlines forest management objectives and practices and the responsible sourcing of wood for rooftop deck tiles. Case studies exemplify how rooftop deck systems can contribute to sustainable design objectives.

  • ( ~ 1 hour ) 

    Third-party environmental product declarations (EPDs), using a life-cycle analysis (LCA) approach, provide a comprehensive analysis and quantification of a product’s sustainability. This course examines how EPDs can inform sustainable site furniture selection and how the use of sustainable site furniture can contribute to meeting various credit requirements of LEED® v4.1 Building Design and Construction, Sustainable SITES Initiative® v2, and the WELL Building Standard™ version 2.

  • ( ~ 1 hour ) 

    From pitched to low-slope roofing, a myriad of designs are possible. Conventional roofing with the waterproofing membrane located weather-side and protected membrane roofing with the waterproofing membrane located at the deck can be used on buildings of various end uses. Roofs can be low or high albedo to impact solar gain; add to this vegetative roof assemblies (green roofs), roofs with solar arrays, and blue roofs (stormwater management), and no two roofs are alike. Join us to review the modern roof taxonomies and associated benefits and drawbacks, learn about the latest options in roof construction, and reflect on performance differences.

  • ( ~ 1 hour ) 

    New technology and improvements in masonry veneer installation can help your team save time and money in the construction process while providing superior results. In this course, you'll learn how cutting-edge technology is helping masons move beyond traditional lath and scratch and be introduced to the principles behind enhanced masonry veneer installation systems (EMVIS). Learn how to create permanent, high-strength installations for residential, commercial, and industrial applications using EMVIS with fortified mortars and innovative waterproofing barrier membranes that protect against air and water penetration.

  • ( ~ 1 hour ) 

    This course introduces expanded polystyrene (EPS) underslab insulation and examines its role in energy performance, moisture management, thermal control, vapor management, radon mitigation, and hydronic heating in residential and commercial buildings. The course supports project teams working toward LEED® v5 Building Design and Construction (BD+C) or Interior Design and Construction (ID+C) requirements by outlining how underslab insulation decisions influence compliance with thermal envelope provisions, energy modeling pathways, and material considerations within the rating systems.

  • ( ~ 1 hour ) 

    This course explores how to use coil and extrusion coatings in the built environment and how innovative coatings contribute to sustainability initiatives.

Displaying 1 - 25 of 422 results.

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