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.
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.
Offsite construction can be an entry point for innovation that simplifies onsite assembly, provides cost savings, and offers superior performance. The sector has already implemented just-in-time job site production, reduced cycle time and inventory, and optimized vendor-managed processes. Offsite construction will evolve to increasingly integrated assemblies to further reduce site labor and utilize advanced automation. Significant innovation in offsite construction is finally pushing a large portion of the construction process from the jobsite into manufacturing plants. This course will cover what that innovation is and why the construction industry is ripe for change.
This course will provide an overview of the history and role of welded wire reinforcement in concrete construction. It will help architects and designers understand the benefits of WWR in creating high-performance buildings and will explore best practices in specifying WWR to realize cost and time savings in construction that ultimately benefit the owner and all project stakeholders.
Floor and wall surfacing, both inside and outside, present a variety of challenges with regard to aesthetics, performance and longevity. Waterproofness, durability and safety are also important factors when considering the right surfacing material for your application. This course will explore conventional methods for surfacing a variety of building applications. It will then compare these systems with advanced seamless stone in the categories of bond strength, resurfacing, waterproofing, moisture management, crack remediation, ADA compliance, aesthetics, longevity and sustainability.
The Balanced Design Approach to Fire Safety: How Concrete Building Systems Can Help Reduce Risk (Print Course)
Structure fires and wildfires result in significant loss of life and property in the U.S. each year. In addition to the direct losses of fighting fires, relocating residents and rebuilding, large fire events can cause substantial indirect losses to communities. There has been an increase in single-family and multifamily structure fire losses, partly due to increased use of combustible construction methods. This article investigates the causes of these fires and provide balanced design recommendations using both active and passive fire protection strategies. It will suggest several noncombustible concrete building systems to help reduce the risk of fire loss in buildings.
Prefabricated wood buildings should be considered when designing and building both multi-family and commercial buildings, as prefabrication is an efficient and sustainable building practice. Prefabricated wood components can help to solve many design and engineering challenges such as material and process efficiency, environmental performance and life safety. This course will demonstrate the advantages of prefabrication, specifically how it relates to both light wood frame and mass timber construction.