Zonda - Resource Library

Consumers are increasingly interested in understanding the environmental impact of the products they use. This course will help you understand how the choice of building materials can have profound impacts on local and global ecosystems, as well as on consumer preferences. “Green building” practices have expanded beyond operational energy efficiency to include factors such as minimizing the embodied carbon impact of a built structure along the supply chain.

As a result, wood’s role as a sustainable building material has become increasingly important. Compared to nonrenewable materials such as steel and concrete, wood is renewable and stores carbon throughout the lifetime of the material. Wood also uses less fossil fuel than substitutable materials (e.g., steel and concrete) across the supply chain, from harvest to manufacturing, transport, installation, maintenance, and disposal or recycling. Procurement of wood building materials from sustainably managed forests creates a sustainably built environment and also supports forest biodiversity, soil and water health, wildlife habitat, social and economic goals, etc.

This course will demonstrate how using wood as a building material contributes to forest sustainability, especially in the context of climate change mitigation and adaptation.

Resilience is a key component of building design when addressing both seismic and wind design. Properly designed and constructed wood structures that comply with building code requirements are resilient, performing with minimal damage while protecting occupants during both seismic and high wind events.

This course will look at how wood-frame Lateral Force Resisting Systems (LFRS), that resist wind and seismic loads, can contribute to resistance in the built environment.

This course offers insight into the environmental performance of Redwood Lumber. The details and results of a Life Cycle Assessment (LCA) comparing Redwood and plastic/composite decking options will be shared as will information about Redwood’s Environmental Product Declaration (EPD).

The course also provides comparisons between Redwood Lumber and other wood species, as well as details about the sustainability of modern Redwood forestry management practices.

Finally, this course provides details on important product attributes of Redwood Lumber including grades, fire performance, strength, and finishing options among others.

This course offers an in-depth exploration of the design and construction of all-wood buildings, with a focus on Waechter Architecture’s innovative Mississippi Building in Portland, Oregon. The course highlights the flexible "6-Rooms" approach, structural systems using mass timber products, and the integration of mechanical, electrical, and plumbing (MEP) systems. Participants will also gain insights from post-occupancy evaluations of air quality, acoustics, and thermal performance. The course will also discuss a matrix of design options developed by Waechter Architecture, offering a range of scalable and adaptable strategies for future all-wood building projects. Supported by research and learnings from completed projects, this course equips architects and design professionals with practical tools and knowledge to design and implement mass timber solutions in future building projects.

This course explores the innovative applications of softwood lumber, particularly western red cedar (WRC), in contemporary residential architecture across North America. Through detailed project case studies, three acclaimed architects—Raylene Hill (RAD Architects, Nova Scotia), Laura Marion (Flight Architecture, Colorado), and Jake Weber (GII Scout and Weber, Oregon)—share their design philosophies, construction strategies, and aesthetic decisions involving softwood lumber products. The course highlights the structural and sensory benefits of WRC, including its natural weathering, cost-effectiveness, sustainability, and biophilic appeal, both on building exteriors and interiors.

This course provides evidence that Redwood Timbers are a safe, strong, and sustainable option for exterior and interior building projects where natural wood is desired. It will explore the use of Redwood Timbers for post and beam construction, decorative elements, deck posts, and outdoor living structures such as arbors, pergolas, and gazebos.

The course also provides information about Redwood’s insulation properties and Class B flame spread, as well as details about modern redwood forestry management practices that ensure Redwood will remain a renewable natural resource into the future.

Finally, this course provides details on the product attributes of Redwood Timbers including grades, dimensions, fasteners, finishing options, and strength among others.

This course offers detailed information about modern Redwood timberland management approaches that contribute to the species’ long-term sustainability as a building material.

The course also provides insight into how third-party certification helps the Redwood industry communicate environmental stewardship.

The course details how wood is created through the process of photosynthesis and how carbon is sequestered long-term in wood products, drawing a connection between sustainably sourced Redwood lumber products and the ability to achieve carbon-neutral standards.

Lastly, the course defines Redwood grades and performance characteristics and describes how these properties achieve building code acceptance..

In this course, you’ll explore foundational concepts of prefabricated construction, along with its potential advantages. Materials cover the unique benefits of prefabricated light wood-frame and mass timber construction, including types of prefabricated timber systems, assemblies, and wood products used in offsite manufacturing.

Case studies throughout demonstrate a wide range of sustainable prefabricated building examples using advanced light-frame and mass timber construction.

In this course, you’ll learn about the 2021 International Building Code (IBC) changes related to tall wood construction, including three new building types that allow for wood buildings up to 18 stories and even taller using an Alternate Materials and Methods Requests (AMMR). Rigorous fire testing was conducted as part of these code changes to validate the safety of tall mass timber construction. Along with advancements in tall mass timber construction, the course explores design tactics and relevant code applications used to boost the density of light-frame wood construction.

Finally, this course will review the science related to wood’s embodied carbon and life cycle assessment in the context of curbing a building's impact on climate change, including a growing body of research demonstrating how building with timber represents an opportunity to increase the long-term storage of carbon in today’s built environment.

This On Demand CEU is a recorded presentation with ARCHITECT's Editor in Chief. Specifying wood in building design has a multitude of benefits, including elevating the design of the project, enhancing sustainable initiatives, and incorporating mixed materials for innovative buildings.

In this session, ARCHITECT explores the work and research of several firms using wood for innovative designs.