Green Building Certification Inc.

The "GBCI CE" mark indicates that the course, as described in the application and materials submitted by the provider to USGBC, holds a General CE designation and meets the General CE conditions set out in the USGBC Education Partner Program course guidelines.

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Displaying 1 - 25 of 245 results.

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

  • ( ~ 1 hour ) 

    This course examines how inclusive outdoor environments and well-designed site furnishings can promote health, safety, and well-being for all individuals. While everyone can benefit from being outdoors, many people experience exclusion due to design barriers in public spaces. Learners will explore strategies and furniture specifications, including layout and materials, that support accessible and inclusive design and contribute to LEED® v5 Building Design and Construction (BD+C), WELL Building Standard™ v2, and SITES® v2 goals. Case studies highlight real-world applications in communities, school campuses, and public spaces. 

  • ( ~ 1 hour ) 

    Recycled rubber flooring is an environmentally responsible material that outlasts many types of traditional commercial flooring products when exposed to normal foot traffic stress. Interior and exterior recycled rubber surfacing products are explored in terms of their sustainable design benefits and applications. The program includes discussions on rubber manufacturing, postconsumer tires, and green building certification systems.

  • ( ~ 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 ) 

    Bamboo is a versatile, strong material with a warm aesthetic that suits an array of interior design styles. This course looks at how bamboo is sustainably sourced to produce low-VOC products such as flooring, cladding, and three-ply architectural wall and ceiling panels. Project examples highlight a CNC routing method that produces panels with eye-catching patterns of varying depths and levels of intricacy. The course also examines how bamboo products may apply to several credits and features in the LEED® v4.1 Building Design and Construction and Interior Design and Construction rating systems and the WELL Building Standard™ version 2.

  • ( ~ 1 hour ) 

    Designers, building users, and managers are increasingly focused on building and occupant health as well as energy conservation. This course explores how mixed-mode (hybrid) ventilation systems address all these issues by improving the ratio of fresh air introduced into buildings while reducing energy needs and costs. It describes the benefits, elements, and workings of these systems and provides design guidance and illustrative case studies.

  • ( ~ 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 ) 

    This presentation celebrates the value of incorporating artisanal, handcrafted fixtures and furnishings into a building’s design. Not only are these products unique, functional, and aesthetically appealing, but they can also establish a sense of connection with their maker. Many artisanal, handcrafted products are made using traditional techniques that have been passed down over time, often from generation to generation. And because many of these products are made from sustainable, recycled, or reclaimed materials that are locally available, they can help reduce the environmental impact of a new build. This course illustrates how sourcing artisan-made products for their projects can allow designers and builders to effect social, economic, and environmental change.

  • ( ~ 1 hour ) 

    Water management is a complex and significant process affecting all levels of planning and building design and is tasked with solving a number of new and emerging issues. This course reviews current stormwater and wastewater management issues and current practices and then takes a look at a number of new and emerging issues that water management plans need to address.

  • ( ~ 1 hour ) 

    It is an expectation that today’s buildings have to be more than just aesthetically pleasing: they have to provide measurable environmental benefits. This course outlines how insulated concrete forms (ICFs) help meet sustainable design objectives and examines the advantages that ICFs and ICF technology have over conventional construction materials for building envelopes in all building types.

  • ( ~ 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 ) 

    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 ) 

    Structural HDPE plastic lumber offers strength, durability, and design versatility and is a sustainable alternative to traditional building materials. This course examines the types of structural HDPE plastic lumber and their manufacturing processes and provides technical information on performance attributes, suitable applications, installation considerations, and design guidelines. Comparisons are made to wood and wood-plastic composite lumber. Also presented is how recycled HDPE plastic lumber may help meet credit requirements in the Sustainable SITES Initiative® (SITES® v2) and LEED® v4.1 Building Design and Construction (BD+C) and Residential BD+C rating systems. Case studies demonstrate the exemplary performance of structural HDPE plastic lumber in aggressive environmental conditions.

  • ( ~ 1 hour ) 

    Concrete is a very versatile and fundamental building material; however, because it is porous and wicks water through its matrix, concrete has water-related design challenges. This program examines the sustainable benefits of integral concrete waterproofing and analyzes traditional waterproofing methods as compared to integral methods in terms of performance, durability, risk, cost, and construction timeline.

  • ( ~ 1 hour ) 

    This program introduces building retrofits as a method to achieve green building standards by adapting existing structures. While a building retrofit may have several types of interventions, effective air sealing improves the durability of the structure and occupant comfort, health, and safety. This course includes a detailed look at sources of air leakage and the various methods available to address this infiltration. Several real-world examples demonstrate the importance of identifying the source of air leakage, investigating existing conditions, and proper detailing.

  • ( ~ 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 ) 

    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 ) 

    Interest in metal cladding is continually growing because of its sustainable features: durability, long life span, recyclability, and contribution to cool roofs. Manufacturers provide a wide range of panel profiles, materials, and colors to meet the increased demand. This course examines the performance characteristics and attributes of metal roofing and cladding, different aesthetic options, and best installation practices, as well as how they contribute to more energy-efficient buildings.

  • ( ~ 1 hour ) 

    This course explores insulating concrete forms (ICFs) as part of a sustainable construction system by covering their benefits, applications, and design considerations. The course delves into the structural properties, energy efficiency, and environmental impact of ICFs. Also presented are best practices for integrating ICFs into various architectural projects and a concise overview of installation steps.

  • ( ~ 1 hour ) 

    With the demand for sustainable power on the rise, building owners and homeowners alike are turning to solar power as a supplemental power generator. Choosing the right platform for the solar panels is a critical step in the design process and can have a significant impact on both initial and long-term costs. This course discusses the basics of photovoltaic systems, including the components and rooftop applications. Comparisons between traditional roofing and standing seam metal roofing platforms are examined, and the benefits of a nonpenetrating clamping system are discussed.

  • ( ~ 1 hour ) 

    Exterior shading devices offer a number of advantages that contribute to a more sustainable building, including minimizing cooling costs, reducing peak electricity demand, and controlling glare. These benefits result in greater occupant comfort and improved productivity. This course provides a review of exterior aluminum shading device systems, including the components, finishes, and design and engineering considerations, as well as a discussion of how shading strategies contribute to LEED® certification.

  • ( ~ 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.

  • ( ~ 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, 30 minutes ) 

    Continuous insulation is part of building standards and state and energy codes due to its ability to reduce thermal bridging and the associated heat loss and energy consumption. This course looks at the use of polyisocyanurate as a continuous insulation in Type V and residential construction and its use as a multifunctional envelope component—air barrier, weather-resistive barrier, and vapor retarder—by reviewing code requirements for the building envelope.

  • ( ~ 1 hour ) 

    The facade is one of the most significant contributors to the energy consumption and comfort parameters of any building. This course explores high-performance building envelopes and the use of advanced insulated metal panel systems featuring integrated daylighting and ventilation components that combine to provide weathertightness and maximum thermal performance.

  • ( ~ 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.

Displaying 1 - 25 of 245 results.

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