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 247 results.

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

  • ( ~ 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 ) 

    This presentation provides an overview of sustainable materials for the bath, including production, performance, maintenance, and frameworks for assessment, and focuses on recycled copper, sustainably made concrete, FSC®-certified bamboo, and reclaimed wood.

  • ( ~ 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 ) 

    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 ) 

    Slate has been used for centuries as a long-lasting building material, and its natural beauty is unsurpassed. Today, rainscreen cladding systems have been developed to adapt natural slate to new architectural demands for sustainable building design approaches. This course explores the energy efficiency and moisture management benefits of a rainscreen system in combination with the durability and versatility of slate. The different designs and fastening systems are reviewed, and case studies demonstrate the advantages and possibilities for sustainable and beautiful slate projects.

  • ( ~ 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.

  • ( ~ 30 minutes ) 

    As synthetic turf systems evolve as functional and aesthetic landscape solutions, conversations about sustainability, particularly environmental impacts, are essential. This course addresses the sustainability of synthetic turf from the triple-bottom-line perspective: profit, people, and planet. Also discussed is how synthetic turf can contribute to achieving certification in LEED® v4.1 Building Design and Construction, Sustainable SITES Initiative® v2, and the WELL Building Standard™ version 2.

  • ( ~ 1 hour ) 

    Retrofitting and replacing roof systems are essential aspects of the construction industry and offer opportunities to reduce a building’s energy consumption. Sustainable retrofitting of roofs with durable, energy-efficient materials helps reduce waste and conserve resources while promoting ecofriendly building practices. This course gives an overview of expanded polystyrene (EPS) insulation and innovative roof systems that are designed to enhance building efficiency.

  • ( ~ 1 hour, 15 minutes ) 

    Concrete is one of the most widely used building materials throughout the world, and as such, it is in everyone’s best interest to consider more sustainable options. This course provides an overview of the properties of slag cement. Discussion topics include benefits, effects on plastics and hardened concrete, environmental profile including life cycle analysis (LCA) and environmental product declarations (EPDs), and various slag cement applications.

  • ( ~ 2 hours, 30 minutes ) 

    The magnitude and negative impacts of solid waste have become increasingly apparent, especially in regard to plastics and their presence in the oceans. As a result, there have been many approaches to rethinking what constitutes waste and how it can be avoided or used/managed in a more sustainable manner. This course explores these emerging approaches to waste management planning and illustrates them with current examples of solid waste management plans and initiatives from various countries around the globe. In the first part of this course, we’ll dig into the impact of our growing waste problem and some methods for rethinking this waste. In the second, we’ll provide guidance for the design of a sustainable community waste management plan.

  • ( ~ 1 hour ) 

    Building a stronger connection with nature is critical for humans to maintain health and well-being. Composite wood decking is a durable, environmentally sustainable product that can help build links with nature through applications including home outdoor rooms, roof gardens, healing spaces, and public boardwalks in green spaces.

  • ( ~ 1 hour, 30 minutes ) 

    The parking component of a development is typically considered a “necessity,” but have you considered how much the first and last impressions count? This course shows how automated technology turns parking into an all-around winning proposition through increased ROI, unsurpassed safety for drivers and vehicles, sustainable design with a drastically reduced environmental footprint, and a premium valet experience.

  • ( ~ 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 ) 

    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 ) 

    Concrete is an essential part of modern buildings. As net zero energy buildings become more common, it is crucial to find ways to reduce concrete’s carbon footprint without losing the performance characteristics that make it valuable to the building team. This course explains the sources of concrete’s carbon footprint and explores strategies for reducing embodied carbon and operational carbon in precast sandwich wall panels and insulated architectural cladding.

  • ( ~ 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 ) 

    In today’s building designs, considering the environmental impact of construction projects is of utmost importance. As a result, factors such as durability, installation speed, cost reduction, and long-term value have become crucial aspects of building designs. This course addresses these concerns in the context of nonresidential building renovations, focusing specifically on using state-of-the-art acoustical ceiling coatings as an alternative to removal and replacement with new materials. The course also examines how acoustical ceiling coatings may apply to several credits and features in the LEED® v4.1 Building Design and Construction rating system and the WELL Building Standard™ version 2.

  • ( ~ 1 hour ) 

    Paint in its various forms is an older material whose composition has constantly evolved, even in modern times. This evolution has included the identification and removal of certain hazardous ingredients. Similarly, paint removers have also evolved and improved their ability to deal with a wide range of old and new paint formulas while remaining safe for the occupant, the worker, and the environment at large. This course examines state-of-the-art nontoxic paint removers that are effective in removing as many as thirty coats of paint in one safe and efficient operation.

  • ( ~ 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 ) 

    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 ) 

    Lack of secure bicycle parking and storage is one of the top barriers to increased bicycle ridership. However, there is much more to selecting functional and appropriate bike storage than installing a few racks at the building sidewalk. This course examines best practices for bicycle racks and shelters for indoor and outdoor bicycle parking and storage, including typical municipal guidelines and regulations, incentives, guidance on shelters, and rack planning and design.

  • ( ~ 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 ) 

    With the ever-increasing focus on the sustainable built environment, building owners, architects, engineers, and contractors are incorporating structural steel into their designs. Presented here is a comprehensive view of the cradle-to-cradle structural steel supply chain from a sustainability perspective. Also discussed are steel production and design, steel’s potential contribution to LEED v4 credits, thermal capacity, and the environmental and life cycle benefits of prefabricated fireproof steel columns.

  • ( ~ 1 hour ) 

    Provides an overview of the noise issues associated with floor/ceiling assemblies of multifamily dwellings, as well as the factors that affect acoustical performance. Also presented is a review of the acoustical solutions that are available with a focus on sound mats with poured underlayment (SMPU) systems.

  • ( ~ 1 hour ) 

    As urban areas become denser, land values increase, and the demand for space becomes more challenging, developers are seeking alternative, innovative approaches to parking cars that allow a project to proceed while meeting all parking and sustainability requirements. Automated parking systems, parking lifts, and multilevel car stackers provide multiple benefits for developments, car parking operations, and vehicle storage facilities. High-density parking systems can help to maximize ROI with a reduced parking footprint and better building flow; reduce construction costs and operational overheads; and improve safety, security, and sustainability. This course explains the types of high-density parking systems, their sustainable advantages, and design considerations.

Displaying 1 - 25 of 247 results.

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