The American Institute of Architects (AIA) Committee on the Environment (COTE) is the oldest U.S. program dedicated to sustainable design. In 1997, COTE introduced its annual Top Ten Awards, “the profession's best known recognition program for sustainable design excellence” (AIA), to celebrate exemplary projects and give the industry guidance on how to integrate green building principles. In 2015, to mark its 25th anniversary, COTE embarked on a landmark research initiative to study the first two decades of Top Ten, published in 2016 as Lessons from the Leading Edge. Part of the research was to revisit the program’s criteria of evaluation, known as the COTE Measures of Sustainable Design. The result of this effort was to overhaul the program with a completely new set of principles and metrics. The 2017 Top Ten Awards are the first year to use new criteria such as economic impact and more robust metrics for health and resilience. In this presentation, three members of the COTE Advisory Group will present the new criteria and engage the audience in a lively discussion about what defines sustainable design.
This course will provide learners with an understanding of how land use codes impact resiliency through barriers and incentives. It will help you gain an understanding of the positive impact on health and productivity from codes promoting resiliency, review case studies detailing principals of natural ventilation, daylighting and onsite energy production.
Few building materials have been used for centuries and offer the strength and versatility of concrete. Waterproofing concrete is critical for a functional, reputable and long-lasting structure. This educational unit will identify the consequences of non-waterproofed concrete. In addition, the course will explore how traditional waterproofing methods are used to protect concrete. Finally, the course will examine integral crystalline waterproofing methods, as well as some case study applications.
Designing with wood offers architects the flexibility to design projects with increased insulation. From a thermal perspective, wood-frame building enclosures are inherently more efficient than steel-frame, concrete, or masonry construction. This course will provide an understanding of how wood can help contribute to significant energy savings in the built environment.
Increasingly, building owners and design professionals are turning to wood construction to satisfy all of these industry, market, and regulatory demands and challenges. Long valued as a building material for its performance and cost advantages, today’s building owners are choosing wood to satisfy these and other value propositions, from environmental sustainability and resilience to creating distinctive buildings that appeal to the next generation of employees and apartment dwellers, all while meeting tight budgets and construction timelines. This course looks at how wood construction can contribute to process efficiency, sustainability, and marketability.
Increasingly, designers, builders, and building owners are turning to one of our oldest building materials: wood. Valued for its versatility, low carbon footprint, and aesthetic qualities, not to mention its cost performance, wood has long been a preferred choice for constructing durable structures that are resilient in the face of hazardous conditions. This course will look at how recent innovations and subsequent code changes are expanding the use of structural wood in nonresidential buildings.
In the materials selection process,
builders seek to balance numerous product performance attributes, including
durability, aesthetics and health, safety and environmental impacts.
Transparency and life cycle thinking are central components of a robust materials
selection process, one that enables builders to choose the most appropriate
materials for their project.
The U.S. Green Building Council now offers an innovative LEED pilot credit, Integrative Analysis of Building Materials, to encourage building project teams to evaluate products and materials using available life cycle information to identify those that have positive environmental, health and safety impacts. The credit informs project team decisions by providing access to information shared by building materials manufacturers on their product’s life cycle impacts.
There are many advantages to using welded wire reinforcement in cast-in-place concrete construction. By using welded wire reinforcement on a project, contractors can save significantly on reinforcement placement time and costs associated with labor force allocation without compromising the designer’s structural intent. By the end of this course, you will understand the value of welded wire reinforcement in cast-in-place concrete construction and how to bring it into the design process effectively. This information will provide you with a keen understanding of the downstream detailing methodology leveraged by the fabricator.
This course will discuss the benefits of specifying high-performance architectural glass to improve the energy efficiency of buildings while reducing their operating costs and carbon emissions. An understanding of solar energy spectrum and common glass performance measures, in addition to the manufacturing processes for pyrolytic and magnetron sputter vacuum disposition low e-coating. The course will help learners to differentiate between passive and solar control low-e coatings and different glass performance measures. Finally, the course will analyze how low-e coatings can improve energy efficiency and assist with earning LEED credit contributions.
Over the past several decades, there has been a continuous increase in human and economic loss from disaster events. The rise in disasters and their consequences is related to a rise in people’s vulnerability, induced by human development. However, examples of resiliency planning and more stringent building code requirements still lag. This article will offer a view on emerging risks and opportunities as human and economic losses from disasters increase, with the overarching goal of supporting and advancing resilience in future construction of buildings and critical infrastructure.