Sustainable Design Courses

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Displaying 376 - 400 of 419 results.

FIRST PREV [301-325] [326-350] [351-375] [376-400] [401-419] NEXT LAST

  • ( ~ 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 ) 

    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 ) 

    This course introduces acetylated wood as a sustainable building material, exploring its origin, modification process, and environmental benefits. Participants will learn how acetylation enhances wood durability, stability, and resistance to decay—extending its service life and reducing maintenance. The course highlights how acetylated wood supports green building goals through renewable sourcing and nontoxic treatment and may help meet credit requirements in the LEED® v5 Building Design and Construction and Interior Design and Construction rating systems, the WELL Building Standard™ version 2, and the Sustainable SITES Initiative® v2. Real-world case studies demonstrate its use in architectural and preservation projects, offering practical insights into sustainable design applications.

  • ( ~ 1 hour ) 

    Automated-shading systems are designed to maximize natural daylight, increase building energy efficiency, and ensure occupants have a comfortable environment with views to the outside. This course will explain how an automated shading system predicts, monitors, and responds to the daily microclimate surrounding a building to effectively manage daylight, solar-heat gain, occupant comfort levels, and energy use demands.

  • ( ~ 1 hour, 15 minutes ) 

    Uncorrected thermal bridging can account for 20—70% of heat flow through a building's envelope. Improving details to mitigate both point and linear thermal bridges will significantly improve energy performance. This course reviews types of thermal bridges, examines how they appear in codes and standards, and explores some mitigation concepts and principles. Calculation methods to account for thermal bridging in your projects are introduced, and a sample design project is used to demonstrate code compliance.

  • ( ~ 1 hour ) 

    Buildings need protection from cyber as well as physical threats. Building shielding offers several architectural solutions that contribute to the security of both building occupants and wireless systems. These solutions also help reduce unwanted solar heat and glare while providing protection from the elements and people seeking to cause harm. This course presents the security and performance benefits of shielding technology that can improve wireless performance, energy efficiency, and occupant comfort, satisfaction, and safety

  • ( ~ 1 hour, 15 minutes ) 

    Synthetic (artificial) grass or turf has improved steadily since its first installation half a century ago, and it is now a sophisticated surfacing system that can be customized to suit specific purposes. This course reviews that development and then focuses on the specifics of synthetic grass suitable for use on playgrounds. This focus includes a detailed examination of its construction, installation, and maintenance, and a number of sample installations.

  • ( ~ 15 minutes ) 

    The first course of this series from the Carbon Leadership Forum provides a high-level overview of embodied carbon: how it is defined, its significance in the global climate crisis, and how it is impacted by the construction industry. In addition, the course examines procurement policies as an embodied carbon reduction strategy—in particular, the Buy Clean policies, their uptake in the US, and their key elements.

  • ( ~ 1 hour, 15 minutes ) 

    An air curtain, also known as an air door, employs a controlled stream of air aimed across an opening to create an air seal. This seal separates different environments while allowing a smooth, unhindered flow of traffic and unobstructed vision through the opening. This course discusses how air curtains work and why they can contribute to occupant comfort, energy efficiency, and indoor air quality when the door is open. It also reviews how air curtains improve whole-building energy efficiency versus conventional methods.

  • ( ~ 1 hour ) 

    Sustainable design has become a key responsibility in building practices. The decisions that architects, designers, and landscape professionals make at the early stages of design extend far beyond aesthetics and structure. They shape environmental performance, material life-cycle costs, and occupant comfort. This course explores sustainable design strategies focusing on specialty metals and gratings, with a strong emphasis on performance, life-cycle benefits, specification insights, applicable codes and standards, and real-world results. Specialty metals and gratings are also examined for their structural integrity and appearance, resource efficiency, longevity, and performance attributes that contribute to sustainable architectural outcomes.

  • ( ~ 1 hour ) 

    Architects and other design professionals have a critical role to play in reducing global greenhouse gas emissions through building design and product selection. The urgent need to reduce both operational and embodied carbon means that building designers must be familiar with transparency documents that facilitate low-carbon product selection. In this course, we review the types of carbon of concern, transparency documents that provide critical information, and tools for sourcing embodied carbon information. We also look at the contribution of insulated metal panels to both low embodied and low operational carbon buildings.

  • ( ~ 1 hour ) 

    At this time, there are no national or state codes relating to snow retention for roofing applications, even in the heaviest snow load areas. Consequently, it is very important for building professionals to take extra care when designing a snow retention system for installations in snowy environments. This course provides a review of the problems and solutions associated with roofing in cold climates, including a discussion on the proper engineering of snow retention devices. There are many dangers involved if the appropriate considerations are not made while building and maintaining a roof in an alpine region.

  • ( ~ 1 hour, 15 minutes ) 

    Specifying door products that are durable enough to withstand the rigorous demands of high-traffic applications in the healthcare and hospitality industries is crucial to the long-term success of each installation. This course reviews traditional doorway materials and doorway protection options, and provides design solutions that utilize engineered polyethylene terephthalate (PETG) components that extend the life of the door assembly and minimize health and safety issues for the building occupants.

  • ( ~ 1 hour ) 

    Door systems are an integral part of educational facilities. This course discusses their importance in creating a safe and secure learning environment and explores the different types of doors, frames, and hardware components. Also covered are industry standards, compliance requirements for fire and life safety, accessibility, and security measures that enhance the safety of the door assembly. The course concludes with some practical applications and case studies in educational settings.

  • ( ~ 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 ) 

    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 ) 

    Identifying, salvaging, and reusing stone and brick is a multifaceted strategy that benefits the environment, economy, and society. It represents a practical and visionary approach to building and design that respects the past, enhances the present, and prepares for a more sustainable future. This course reviews the impact of stone and brick reclamation by examining case studies focusing on modern American architecture and interior and exterior design. The course discusses how material repurposing benefits a society increasingly concerned about environmental sustainability.

  • ( ~ 1 hour ) 

    Ventilation grilles influence HVAC system performance but can pose aesthetic challenges for designers. Custom grilles made with modern fabrication techniques employ a variety of materials and finishes to create solutions that enhance and fully integrate with architectural interiors. This course discusses the basic mechanics of effective air distribution in buildings, performance characteristics of grilles, grille types, and custom design options.

  • ( ~ 1 hour ) 

    Rolling doors are used in heavy-duty, medium-duty, and light-duty applications for a wide range of commercial, industrial, and construction environments. This course provides a review of the features, components, options, and applications of various types of commercial rolling door products.

  • ( ~ 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 ) 

    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 ) 

    Main entrance air curtains are used by architects and engineers in commercial, institutional, and industrial settings to both improve energy efficiency and protect occupant comfort and well-being. This course reviews the research that led to air curtains being approved as an alternative to vestibules in ASHRAE 90.1-2019 and other building codes, as well as how air curtains on main entries contribute to sustainability goals around energy conservation, public health, and indoor air quality.

  • ( ~ 1 hour ) 

    This course explores some of the tools at the core of sustainable facility management and how they can enhance indoor environmental quality, reduce environmental impact, and improve occupant well-being. It reviews how operational strategies can support organizational performance and talent attraction and retention in a changing workplace landscape. The course examines emerging trends, new tools and practices, and shifts in certification frameworks such as the LEED® v5 Operations and Maintenance and Building Design and Construction rating systems and the WELL Building Standard™ version 2 that reflect the growing demand for measurable performance and decarbonization efforts.

  • ( ~ 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 ) 

    Air barriers improve the health and comfort of building occupants, improve energy efficiency, and prevent premature degradation of materials, increasing the structure’s life cycle. A successful air and moisture barrier system means under-slab, below-grade, and above-grade systems must work together to provide a continuous barrier. This course looks at above-grade air barrier systems and their types and components. Continuity and compatibility, specification, and installation challenges are also considered.

Displaying 376 - 400 of 419 results.

FIRST PREV [301-325] [326-350] [351-375] [376-400] [401-419] NEXT LAST