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 272 results.

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

  • ( ~ 1 hour, 15 minutes ) 

    Today’s buildings are evolving from independently functioning structures to intelligent buildings that interact with occupants and surrounding buildings. This trend has impacted the design, operation, and maintenance of data centers around the globe due to the increased demand for data and digital communication and has resulted in more high-performance data centers. This presentation addresses the specific needs of data centers and presents high-performance design solutions that support sustainable design.

  • ( ~ 1 hour ) 

    This course explores what issues a luxury kitchen designer must address to create a sustainable kitchen. We’ll discuss how manufacturers design and fabricate sustainable, high-end kitchen appliances and how designers can make choices that improve energy efficiency, decarbonize their designs, and support the circular economy while creating a high-end aesthetic.

  • ( ~ 1 hour ) 

    Building systems can be enhanced by incorporating reflective insulation or radiant barriers into the building envelope. With effective insulation, heat transfer is reduced, resulting in less summer heat gain, and less winter heat loss. This course explains common and effective uses for reflective insulation and radiant barriers in a wide range of construction and building applications and demonstrates how these systems reduce energy usage, increase the lifespan of the mechanical equipment for heating and cooling, and reduce maintenance requirements and frequency of replacement.

  • ( ~ 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 ) 

    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 ) 

    The strength, versatility, local availability, and ease of use of concrete help make it the most consumed manufactured substance in the world. Concrete also offers sustainability and resilience benefits: a long lifespan, low maintenance needs, durability against natural disasters, high-albedo surfaces, smoother and stiffer pavement, carbon sequestration capabilities, and increased building energy efficiency. This course describes some of the new technologies that continue to evolve to produce concrete with the same performance and benefits as traditional concrete but with a lower carbon footprint. Also discussed is how to specify low-carbon concrete using EPDs, a carbon budget, and performance-based specifications and how it can contribute to the Building Design and Construction rating systems of LEED® v4.1 and the upcoming LEED v5.

  • ( ~ 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 ) 

    As the market continues to transform the way sustainable buildings are designed, single-skin metal roof and siding products are at the forefront of contributing to healthier built environments. This course breaks down the material inputs and sustainable attributes of single-skin metal roof and siding panels and includes an overview of how the panels can contribute toward earning several LEED ® for Building Design and Construction credits in v4.1.

  • ( ~ 1 hour ) 

    This course examines the fundamentals of building envelope design, with a particular focus on fastener penetrations through water, air, and thermal control layers and their effect on overall performance. It explores various attachment solutions, including tube-seal fasteners, that reduce thermal bridging and support the continuity of the air- and weather-resistive barrier (AWRB) and exterior insulation, contributing to LEED® v5 Building Design and Construction and WELL Building Standard™ v2 goals. The course also reviews testing procedures for evaluating moisture penetration and fire resilience and demonstrates how selecting assemblies through a systematic approach can improve design efficiency while reducing errors and omissions. Throughout the course, a mass timber structure serves as a case study to illustrate best practices in building envelope detailing.

  • ( ~ 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, 15 minutes ) 

    While frequently chosen for aesthetics and durability, clay brick is not often considered when energy efficiency is a primary concern, even though it historically played a significant role in occupant comfort before the widespread use of HVAC systems. This course discusses the basics of heat transfer, relevant energy code provisions for walls, and how current research by the National Brick Research Center demonstrates the role that brick veneer can play in meeting or exceeding energy requirements in modern wall assemblies.

  • ( ~ 1 hour ) 

    This course examines the relationship between ventilation strategies, energy efficiency, and indoor air quality in commercial buildings. The course compares ASHRAE Standard 62.1's ventilation rate procedure (VRP) and indoor air quality procedure (IAQP), exploring their strengths, limitations, and compliance requirements. The course also explores how IAQP-based strategies may align with sustainability and occupant health goals reflected in the LEED® v5 Building Design and Construction (BD+C) and Interior Design and Construction (ID+C) rating systems and the WELL Building Standard™ v2.

  • ( ~ 1 hour ) 

    Wood is not only visually appealing; it plays a vital role in shaping acoustics. This course examines the acoustic properties of wood and its applications in wood-based architectural solutions, focusing on how acoustic wood products can help control noise in commercial and residential environments. Also reviewed is how these products support sustainable design objectives, including their role in meeting the criteria of the LEED® v5 Building Design and Construction and Interior Design and Construction rating systems, as well as the WELL Building Standard™ v2. The presentation features design strategies and case studies that illustrate the effectiveness of acoustic wood products in achieving superior performance.

  • ( ~ 1 hour, 15 minutes ) 

    White roofs made of PVC (vinyl) can reflect three-quarters or more of the sun's rays and emit 70% or more of the solar radiation absorbed by the building envelope. Despite protecting and keeping buildings cool in all climates around the world for decades, misconceptions about the energy impact of cool roofs still exist. This course uses the fundamental science behind cool roofs to address alleged issues concerning the performance of cool roof products.

  • ( ~ 1 hour, 15 minutes ) 

    Architects and designers have many options for specifying site furniture products for their projects. Selecting materials and finishes is an integral part of this process, yet making material selections has become more and more complex. The course examines conditions and constraints of outdoor environments; evaluates materials commonly used in outdoor applications; discusses using green building standards and rating systems, and the role of suppliers as resources for material selection; and provides examples of products that adhere to a higher environmental standard.

  • ( ~ 1 hour ) 

    An energy recovery ventilator (ERV) system provides occupants with filtered, balanced, and tempered air within their living space. Airborne contaminants can be greatly reduced with ERV systems. This course provides knowledge about the need, use, design, and installation of ERVs in the modern dwelling unit and when retrofitting existing structures. The course also addresses the environmental advantages of sustainable and healthy solutions for indoor air quality.

  • ( ~ 1 hour ) 

    Selecting a countertop surface today, whether for a break lounge or a reception desk, means weighing the relative sustainability of the choices while considering whether the material meets the design objectives of the space. This course will help you decide whether quartz surfacing does that. We will review its performance characteristics and environmental and human health impacts, compare it to other options, and guide selection and design.

  • ( ~ 1 hour ) 

    Electric heating systems have been in use for over a century, and in that period, they have significantly advanced in terms of their efficiency, cost effectiveness, safety, versatility, and appearance. Recently, electricity production itself has become more and more environmentally friendly and economically viable. This course explores how the wide range of contemporary electric heating options can efficiently and economically address virtually every heating need in every building type and thus capitalize on the steadily increasing benefits of electricity to create the most environmentally responsible and economically viable heating solutions.

  • ( ~ 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 ) 

    Architects and designers are responsible for planning the provision of drinking water in commercial and residential facilities, yet this essential element is often overlooked in sustainable design. This course covers the main water delivery methods (tap, bottled, and filtration systems) and their impacts on the health of people and the environment. Additionally, the course examines multifunctional taps equipped with three-in-one filtration that promote sustainable water delivery and help meet credit requirements in the LEED® v5 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 ) 

    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 ) 

    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 ) 

    Energy creation, distribution, and consumption are all in a period of transition. Understanding this transition and its various aspects is critical to sustainable transitional energy planning (STEP). This course delves into the reasoning behind the STEP approach and its contributions to creating resilient communities and explores available exhaustible and renewable energy resources and innovations in the energy sector that can be leveraged by STEP.

  • ( ~ 1 hour ) 

    The thermal and dual modification of wood are processes used to improve wood’s profile in terms of durability, dimensional stability, overall performance, and inherent resilience and sustainability. The resulting products can be utilized in many building applications, from decking and siding to pergolas and nonstructural beams, as well as paneling, soffits, and interior trim applications. This course explores the science behind the thermal and dual modification of wood. Examples of modified wood and case studies are also reviewed.  

Displaying 1 - 25 of 272 results.

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