Whether the teams behind these designs cite ease of construction, economy of material, or the sustainable sequestration of carbon as motivating factors in their use of wood, virtually every winner embraces wood’s characteristic warmth as an essential design element.

Taken together, these 22 solutions suggest a distinct contemporary aesthetic based on wood’s natural advantages in the 21st century.

Nanotronics Smart Factory
Photo credit: Albert Vecerka

Winner of Commercial Wood Design – Mid-Rise Mississippi Workshop

Portland, Oregon

Developer/Owner: Waechter Architecture
Architect: Waechter Architecture
Structural Engineer: KPFF Consulting Engineers
Contractors: Waechter Architecture | Owen Gabbert, LLC | Cutwater PDX

  • Mississippi Workshop
    Photo credit: Lara Swimmer
  • Mississippi Workshop
    Photo credit: Lara Swimmer
  • Mississippi Workshop
    Photo credit: David Papazian

Winner of Commercial Wood Design – Low-Rise High Tech Client Campus

Mountain View, California

Architect: WRNS Studio
Structural Engineer: Holmes
Contractor: Rudolph and Sletten

  • High Tech Client Campus
    Photo credit: Bruce Damonte
  • High Tech Client Campus
    Photo credit: Bruce Damonte
  • High Tech Client Campus
    Photo credit: Bruce Damonte

Winner of Wood in Schools – Low-Rise San Jacinto College Anderson-Ball Classroom Building

Pasadena, Texas

Developer/Owner: San Jacinto College
Architect: Kirksey Architecture
Structural Engineer: Walter P Moore
Contractor: Tellepsen

  • San Jacinto College Anderson-Ball Classroom Building
    Photo credit: Joe Aker
  • San Jacinto College Anderson-Ball Classroom Building
    Photo credit: Joe Aker
  • San Jacinto College Anderson-Ball Classroom Building
    Photo credit: Joe Aker

Winner of Multi-Family Wood Design Central Lofts

Portland, Oregon

Developer/Owner: BlackRock Development and Real Estate
Architect: Jones Architecture
Structural Engineer: Froelich Engineers
Contractor: R&H Construction

  • Central Lofts
    Photo credit: David Papazian
  • Central Lofts
    Photo credit: David Papazian
  • Central Lofts
    Photo credit: David Papazian

Winner of Wood in Government Buildings Winthrop Library

Winthrop, Washington

Developer/Owner: Friends of the Winthrop Library
Architects: Johnston Architects, Prentiss Balance Wickline
(associate architect)
Structural Engineer: Methow Engineering
Contractor: Impel Construction

  • Winthrop Library
    Photo credit: Benjamin Drummond
  • Winthrop Library
    Photo credit: Benjamin Drummond
  • WInthrop Library
    Photo credit: Benjamin Drummond

Winner of Institutional Wood Design Locust Grove Event Pavilion

Louisville, Kentucky

Developer/Owner: Locust Grove
Architect: de Leon & Primmer Architecture Workshop
Structural Engineer: Structural Services
Contractor: Woodbine Construction

  • Locust Grove
    Photo credit: de Leon & Primmer Architecture Workshop
  • Locust Grove
    Photo credit: de Leon & Primmer Architecture Workshop
  • Locust Grove
    Photo credit: de Leon & Primmer Architecture Workshop

Winner of Sustainable Wood Design The Ecology School

Saco, Maine

Developer/Owner: The Ecology School
Architects: Simons Architects | Kaplan Thompson | Briburn Architecture
Structural Engineer: Thornton Tomasetti
Contractor: Zachau Construction

  • The Ecology School
    Photo credit: Trent Bell
  • The Ecology School
    Photo credit: Trent Bell

Winner of Beauty of Wood Patricia Reser Center for the Arts

Beaverton, Oregon

Developer/Owner: City of Beaverton
Architect: Opsis Architecture
Structural Engineer: KPFF Consulting Engineers
Contractor: Skanska

  • Patricia Reser Center for the Arts
    Photo credit: Josh Partee
  • Patricia Reser Center for the Arts
    Photo credit: Josh Partee
  • Patricia Reser Center for the Arts
    Photo credit: Josh Partee

Winner of Durable and Adaptable Wood Structures Maclac Building D

San Francisco, California

Developer/Owner: Comstock Realty Partners
Architects: Marcy Wong Donn Logan Architects | Peter Logan Architecture and Design (PLAD)
Structural Engineer: Gregory P. Luth & Associates
Contractor: Rod Heisler Construction

  • Maclac Building D
    Photo credit: Billy Hustace
  • Maclac Building D
    Photo credit: Billy Hustace

Winner of Innovation Ascent

Milwaukee, Wisconsin

Developer/Owners: New Land Enterprises | Weichmann Enterprises
Architect: Korb + Associates Architects
Structural Engineer: Thornton Tomasetti
Contractors: C.D. Smith Construction | Catalyst Construction

  • Ascent
    Photo credit: C.D. Smith Construction
  • Ascent
    Photo credit: Korb + Associates Architects
  • Ascent
    Photo credit: VRX Media Group

Regional Excellence Winners

  • Intro

    Intro

    Cleveland, Ohio

    Developer/Owner: Harbor Bay Ventures
    Architect: Hartshorne Plunkard Architecture
    Structural Engineer: Forefront Structural Engineers
    Contractor: Panzica Construction

    View the gallery
  • Idaho Central Credit Union Arena

    Moscow, Idaho

    Developer/Owner: University of Idaho
    Architect: Opsis Architecture | Hastings+Chivetta Architects (sports architect)
    Structural Engineer: KPFF Consulting Engineers (base building) | StructureCraft (roof structure)
    Contractor: Hoffman Construction

    View the gallery
  • 1030 Music Row

    Nashville, Tennessee

    Developer/Owner: Panattoni Development Company
    Architect: Anecdote Architectural Experiences
    Structural Engineer: StructureCraft
    Contractor: Turner Construction

    View the gallery
  • 80 M Street

    Washington, D.C.

    Developer/Owner: Columbia Property Trust
    Architect: Hickok Cole
    Structural Engineer: Arup
    Contractor: James G. Davis Construction

    View the gallery
  • Chemeketa Community College Agricultural Complex

    Salem, Oregon

    Developer/Owner: Chemeketa Community College
    Architect: FFA Architecture and Interiors
    Structural Engineer: KPFF Consulting Engineers
    Contractor: Swinerton Builders

    View the gallery
  • Wellesley College Science Complex

    Wellesley, Massachusetts

    Developer/Owner: Wellesley College
    Architect: Skidmore, Owings & Merrill
    Structural Engineer: Le Messurier
    Contractor: Turner Construction

    View the gallery
  • Kansas City Current Training Facility

    Riverside, Missouri

    Developer/Owner: Kansas City Current
    Architect: Generator Studio
    Structural Engineer: Apex Engineers
    Contractor: Monarch Build

    View the gallery
  • Nanotronics Smart Factory

    Brooklyn, New York

    Developer/Owner: Nanotronics Imaging
    Architect: Rogers Partners
    Structural Engineer: Silman
    Contractor: Eurostruct

    View the gallery
  • Houston Endowment Headquarters

    Houston, Texas

    Developer/Owner: Houston Endowment
    Architect: Kevin Daly Architects with Productura
    Structural Engineer: Arup
    Contractor: WS Bellows

    View the gallery
  • Ellis Golf Course Clubhouse

    Cedar Rapids, Iowa

    Developer/Owner: City of Cedar Rapids
    Architect: OPN Architects
    Structural Engineer: Structural Design Group
    Contractor: Septagon Construction

    View the gallery
  • Crested Butte Center for the Arts

    Crested Butte, Colorado

    Developer/Owner: Center for the Arts
    Architect: Steinberg Hart with Andrew Hadley Architect
    Structural Engineer: Resource Engineering Group
    Contractor: Black Dragon Development

    View the gallery
  • 316 12th Street

    Oakland, California

    Developer/Owner: oWOW
    Architect: oWOW Design
    Structural Engineer: Altos Structural Engineering
    Contractor: oWOW Construction

    View the gallery
1
Low Carbon Construction
Cutting Carbon with Mass Timber and Passive House Design


To lower a building’s carbon footprint, an increasing number of design teams are turning to timber because it is less carbon-intensive than other structural materials. Such is the case with Terra at 11 E Lenox Street, a 7-story, 34-unit multifamily project in Boston, MA, that combines the thermal benefits of mass timber construction and Passive House design to create an incredibly energy-efficient and low carbon building.


According to project architect Monte French Design Studio (MFDS), this winning combo helps cut operational energy consumption with a mix of passive and active systems and the use of eco-friendly materials—including mass timber. As a result, the project team curbed energy use by more than 80%, earning PHIUS+ PreCertification.

The building’s wood structural system will store 844 tons of CO2 throughout the building lifecycle and offset 327 tons of CO2 when compared to conventional steel or concrete alternatives. 11 E Lenox Street is expected to be completed later this year.

11 E Lenox
Photo credit: Monte French Design Studio
2
Affordable Housing
Boosting Affordability with Factory-Built Wood Construction


In the Greater Seattle area, design firms Mithun and Aspect Structural Engineers have been working with non-profit Forterra on the development of a Modular CLT Prototype for multifamily construction with planned deployment on sites across Western Washington and nationally. The project achieves its cost-cutting, time-saving volumetric factory production by leveraging integrated and multidisciplinary design for its architectural, structural, MEP, fire and acoustic solutions. The prototype is comprised of three prefabricated modules to create a two-bedroom, one-bathroom unit measuring approximately 1,165 square feet. The design allows for units to be stacked up to seven stories. Four all-CLT large-scale multifamily modular projects using this prototype are currently underway.

Modular CLT Prototype
Photo credit: Mithun
Prefabricated construction technology innovation is pivotal in addressing the compounding crisis of climate change and housing shortages. Now more than ever, clients are asking, ‘What does it take to go modular?’
Mithun
Forterra Modular CLT Prototype

The modules will be fabricated at the Darrington Wood Innovation Center (DWIC), a 94-acre campus that will house the next generation of high-tech wood product companies.

Designed by Mithun, the first phase of DWIC includes a small high-efficiency sawmill and kiln facility; a CLT and glulam manufacturing plant; and the modular fabrication and assembly facility.

Modular CLT Prototype
Photo credit: Mithun
3
Prefab + Modular Construction
Merits of Modular: Increase Efficiency While Reducing Impact


Brooklyn-based firm Garrison Architects turned to factory-built timber construction for their recently completed boutique hotel and spa,The Piaule Landscape Retreat, located on a remote 50-acre site in the Catskill Mountains in southeastern New York State.

Twenty-four prefabricated wooden units are perched on stilts surrounding a sleek, modern central timber lodge. The units’ floor-to-ceiling windows slide open to reveal the sights, sounds, and sensations of the natural surroundings. The elevated standalone modules vary in size from 375 to 975 square feet. Prefabricated modules can not only reduce onsite construction but also limit environmental impact on remote locations like the Catskills.

Accessed via a quiet, tree-lined road, the lodge features cedar cladding, a butterfly wooden roof, and floor-to-ceiling windows that provide vistas of the surrounding mountains.

Interiors are constructed from locally-sourced materials to enhance the feeling of bringing the outdoors in; walls and ceilings are paneled with cedar and white oak.

The Piaule Landscape Retreat
Photo credit: Sean Davidson
4
Mass Timber
Mass Timber Moves Mainstream


One sign that mass timber is becoming mainstream is its wider adoption by an increasing number of influential Fortune 500 companies. From Google and Microsoft, to Adidas and McDonald’s, big brands are using mass timber to construct a growing number of corporate facilities. This includes retail giant Walmart whose new corporate campus is currently the largest mass timber corporate campus project under construction worldwide by square footage, and is set to use 1.7 million cubic feet of regionally-sourced lumber for the structures.

Mass timber will help institutional investors work closer to their ESG goals and modular construction will allow developers to try to mitigate labor issues in construction.
Survey Respondent
2022 Timber Trends Survey

Dispersed over 350 acres of native seeded greenery and 10 acres of lakes, Walmart’s new Home Office will be comprised of more than 2 million square feet of mass timber construction spread over 11 office buildings.

To supply the project, Canadian-based Structurlam opened a manufacturing facility in Conway, Arkansas in 2021. The new home office campus is anticipated to open in phases through 2025.

Walmart Home Office
Photo credit: Gensler
5
Hybrid Construction
Game Changer for Stadium Design


The recently completed Idaho Central Credit Union Arena at the University of Idaho is one example of creative ingenuity with hybrid timber construction. The stadium’s undulating roof, engineered and built by StructureCraft, is constructed from a doubly curved plywood diaphragm supported by hybrid glulam timber/steel trusses, carefully proportioned for both aesthetics and structural efficiency. The king post trusses span over 150 feet across the main arena and the timber/steel portal frame spans 120 feet to allow for viewing from the secondary seating.

Prefabrication and preassembly on-site streamlined construction and enhanced safety by reducing the amount of work required at extreme heights. Complex timber engineering was required to design the thrust connection between beam and column, effectively transferring over 450,000 pounds of compression.

With the use of new wood and connector systems technology, clear-span mass timber construction for sports and recreational facilities like this is becoming a competitive alternative to conventional concrete and steel techniques. The overall result is a warm yet awe-inspiring experience for both spectators and athletes.

Idaho Central Credit Union Arena
Photo credit: Courtesy of the University of Idaho | © LARA SWIMMER PHOTOGRAPHY

Get the full report and survey results.

1
Designing Beneficial Spaces for Living, Working and Well-being
Occupant health and well-being is more important than ever. In the face of a global pandemic, building professionals have improved how we design, use, and occupy buildings. And these improvements are here to stay: touchless entries, better ventilation systems, and facilities that promote hygiene and safety. But these advancements go beyond occupant safety—designers are looking for ways to enhance the user experience and provide flexible, versatile, and more open, adaptive spaces. In this course, you’ll learn how you can boost well-being on your next project and deliver unique design solutions that can better service and delight occupants in a rapidly changing world.
Learn More
2
The Role of Wood Products in Green Building
Material choice can have a big impact on the sustainability of buildings, both during construction and throughout the building’s lifecycle. Wood is a renewable, durable building material that can be used in almost any building application—and typically requires less energy to produce than other building materials. In this CEU you’ll learn about green building standards and their recognition of wood’s contribution to improved energy and environmental performance. You’ll gain a better understanding of all the related terminology and the tools used to assess green building certifications.
Learn More
3
MultiFamily Mid-Rise Wood Buildings: A Code-Compliant, Cost-Effective and Sustainable Choice
Demand for affordable and sustainable multifamily housing continues to play an important role in the overall U.S. construction market. In this CEU, you’ll identify the sustainability and economic benefits of using wood construction for mid-rise multifamily or mixed-use buildings. You’ll learn about building code requirements and design best practices through practical examples and in-depth case studies. Upon completing this course, you’ll expand your knowledge of framing solutions that address issues such as shrinkage, fire protection, and seismic requirements while minimizing a building’s carbon footprint.
Learn More
4
Architecting Change: Design Strategies for a Healthy, Resilient, Climate Smart Future
Over the past decade, the architectural, construction, and engineering (AEC) sector has grappled with big technological and socioeconomic changes along with an unprecedented confluence of challenges to the health of our communities, our cities, and our planet. While these challenges are daunting, industry thought leaders increasingly see an opportunity to be at the forefront of change. In this course you’ll learn from design teams who are embracing new strategies and delivering unique solutions that begin to address some of the most urgent global issues of our times.
Learn More
5
How to Calculate the Wood Carbon Footprint of a Building
Buildings consume nearly half the energy produced in the United States, use three-quarters of the electricity and account for nearly half of all carbon dioxide (CO2) emissions. Measuring carbon impacts is a critical tool in the fight against climate change and harmful greenhouse gases (GhG). This course explains the principal methods and tools that are used to assess the carbon footprint of building materials. You’ll gain a better understanding of product terminology, including life cycle assessment (LCA), environmental product declarations (EPDs), carbon footprint, embodied carbon, and whole building LCA (WBLCA) tools.
Learn More
6
The Impact of Wood Use on North American Forests
Building professionals are looking for ways to increase their use of eco-friendly, low carbon materials, particularly when it comes to a building's primary structure. Increasingly, wood from sustainably managed forests is viewed as a responsible choice. This course will demonstrate how specifying and building with wood can contribute to the sustainability of forests, while reducing embodied energy emissions. You’ll learn more about forest sustainability measures such as biodiversity, soil and water quality, and harvest vs. net growth—and why increasing the use of wood in buildings provides an incentive for landowners to keep forests healthy and helps stave off urban development.
Learn More
7
Opportunities for Wood in Low-Rise Commercial Buildings
Building professionals are increasingly turning to wood for low-rise commercial buildings. This course provides practical information that can be applied to such projects—covering code-related topics, cost implications of construction type, opportunities for achieving unlimited area, and implications of multi-tenant occupancies. It provides an overview of wood wall and roof systems commonly used in commercial buildings, and highlights key design considerations.
Learn More
8
Designing Sustainable, Prefabricated Buildings
Factory-built, prefabricated technologies—using both light-frame and mass timber—are offering a nimbler, quicker, and more integrated way to construct today’s buildings. In this course you’ll learn how prefabricated wood components can help solve many design and engineering challenges and deliver material and process efficiency, environmental performance, and life safety benefits. You’ll achieve a better understanding of prefabricated wood buildings and how they can be designed like a kit-of-parts made, delivered, and assembled on site, much like life-sized Lego.
Learn More
9
Wood and Evolving Codes: The 2018 IBC and Emerging Wood Technologies
Valued for its versatility, low carbon footprint, aesthetic qualities, and cost performance, both light-frame and mass timber construction offer new design options for architects and building owners. And in recent years building codes have evolved allowing for taller wood construction. In this course you’ll learn more about these changes and how the International Building Code (IBC) ensures that wood buildings provide a proven and trusted level of safety. You’ll develop a better understanding of techniques that make it safe for designers to increase heights and areas of building projects beyond IBC base limits.
Learn More
10
Exceeding Thermal Performance Goals by Choosing Wood
The benefits of choosing wood in commercial and nonresidential projects are many. Both light-frame and mass timber structural systems offer flexibility in design options. They also are economical and relatively easy to construct, providing ease of use on the job site. Yet one important benefit that should not be overlooked is the thermal performance that wood can provide. Thermal performance contributes to a range of important goals for most projects, including energy efficiency, comfort, durability, code compliance, structural integrity, and sustainable outcomes. Designing with wood not only meets performance requirements for commercial and nonresidential buildings—it can also exceed goals.
Learn More

Looking for more? Be sure to check out our e-learning platform, The Wood Institute. It provides free, on-demand content from Think Wood, WoodWorks, and the American Wood Council, including 100+ CEU courses accredited by AIA, ICC, GBCI, and others.

What is Participatory Design?

 

Participatory design is the idea of directly engaging users in a design process. An article on regenerating public spaces defines it as: “ the model of direct involvement of different social groups in the design from functional tools to environments, social institutions and businesses.”

Design choices can have big impacts on community wellness—a well-designed building or public space can foster a sense of belonging by creating third places between work and home that invite social connection and interaction.  In particular, participatory design invites community engagement and responsibility. By centering the community at the heart of the design process, participatory design, can foster community ownership and pride.

PARTICIPATORY DESIGN IN ACTION

La Borda

La Borda Cooperative Housing is a building designed by the community, for the community. A co-operative housing project in Barcelona, Spain, La Borda featured a lengthy community engagement process as part of the project’s development. Each resident served as a working group member, contributing to elements of the building’s design, function and management. Active participation from building residents was crucial to La Borda’s co-design process, aimed at maximizing human connection.

The process aligns with La Borda’s values: “active participation, collective ownership, affordability, and sustainability.” Just as each member of La Borda’s collective serves a purpose and a role, so too do the architectural elements. At its heart, a central courtyard unifies the building, creating a flexible meeting area that invites residents to gather, connect and socialize. Shared spaces like the laundry room and kitchen-cum-dining room allow residents to mingle and connect during the rhythms of daily life. Above them, the polycarbonate roof draws energy from the sun during winter and increases ventilation during summer.

La Borda
Photo credit: Lluc Miralles

The Spanish cross-laminated timber is striking, infusing the building with a natural and organic ambience.

Cristina Gamboa, a cooperative member, explains that they “tried to have a more global understanding of the implications of this material decision,” with mass timber offering a climate-friendly alternative to more energy intensive materials.

Learn about La Borda’s unique design and CLT construction.
Finding Common Ground

Lubber Run

Lubber Run Community Center is an expanse of lush green space that draws you toward the net-zero center at its core. The building emerges organically out of the park and features a living roof adorned with trees and park benches. Initially, local residents were set on plans for a three-to-four-story building, tucked into the background of the surrounding park.

To find common ground, the design team undertook a lengthy participatory design process that lasted an entire year. Jay Fisette, former Arlington County Board Chair, says that “there was lots of community involvement and excitement surrounding the new design and plan. Attention was paid to functionality, energy efficiency, sustainability – and great design. This is truly a community project.”

Lubber Run Community Center
Photo courtesy VMDO Architects
View project

The Grass is Always Greener

Designing a replacement to the original 1950s-era community center presented a challenge for VMDO Architects —community members felt strongly that park space be maximized and building space minimized. Yet, through community engagement, the VMDO team was able to demonstrate how architecture can integrate and blend building and landscape, “ultimately creating public space that is greater and greener for residents.”

Lubber Run’s design focused on promoting equitable access to the center and the park and engaging cross-generational communities and hard-to-reach groups. A series of workshops, meetings, online feedback sessions and on-site engagement activities contributed to the project vision.

 

Nina Comiskey
Architect, VMDO
Lubber Run Community Center
We were able to guide [the people of Arlington] to a better way of getting what they wanted.

The center invites people of all ages and backgrounds to use its multipurpose rooms, whether that be the fitness center, gymnasium, kitchen or the popular preschool program. The building itself is constructed of wood, creating a soft ambience.

Joe Celentano, principal, VMDO Architects, says that “there was never any doubt that we wanted wood for the structure of the building. The building literally grows up out of the ground, and the surrounding forest became a metaphor for our design.”

This must be the place.
Using placemaking to build community.

Placemaking is the art of transforming public spaces into community places. A place is a gathering point—whether that be a bench that invites you to sit and chat, a beautiful garden to meander through, or a fountain to gaze at. A community place is a conversation starter, an eye catcher, a bustling hub or a place to rest weary feet.

The Basics of Place

The principles of placemaking provide tools to transform our public spaces into places. What are some placemaking basics?

  1. The community is the expert—people who frequent public spaces know intimately and intuitively how the area functions; what could be improved; and who uses the space and for what purpose.
  2. Design of the space should facilitate programming, active use, multipurpose functionality and economic opportunity—design is important but shouldn’t supersede functionality.
  3. If you want to know what makes a community place, take some time to observe. For creative city dwellers, a curb can be an excellent meeting place, greeting space—or even a clam cooking hotspot.

Placemaking can revitalize underused urban areas, inviting social connections between diverse citizens and demographics.

The Barn

Located in Sacramento’s once struggling Bridge District, the Barn Pavilion has breathed new life into this previously neglected area next to the Sacramento River. The Barn features a curvilinear design that emerges out of the pavement, welcoming passersby into its shaded nooks. The public plaza below the Barn hosts gatherings, while inside you can shop, wine and dine, or wander, making your way out to the extensive open-air breezeway. The Barn’s multifunctionality and warm organic atmosphere turns this public space into a community place that is both beautiful and functional. Its fluid, sculptural form makes for ambidextrous architecture, adaptive to a multitude of uses.

The Barn underside lit up with gathering of people
The Barn
Photo credit: Chad Davies
View project

'Secret Ingredient'

Another successful community project, the Secret Ingredient 2019 Biennial project at the former Anthony Overton Elementary School, is where participatory design, placemaking, and public space collide. The project asked residents of Chicago’s Bronzeville neighborhood to share their connections between food, friendship and neighborhood identity.

 

Herkes İçin Mimarlık, the Turkish translation for Architecture for All, interviewed Bronzeville residents and archived their stories. Their starting point? Overton Elementary School, a Perkins and Will-designed community landmark and shuttered public school brought alive through art activations.

Gathering residents together at this focal point, Herkes İçin Mimarlık unlocked the secrets of place over conversations about how food can nourish a neighborhood and create shared memory. The project culminated in a mixed-media installation of picnic tables and placemaking shelters on the Overton lawn for residents to gather and connect with each other.

Secret Ingredient 2019 Biennial Project
Photo credit: Sandra Steinbrecher

Grassroots Placemaking With Wood

The Secret Ingredient project is an example of grassroots placemaking that uses readily available, naturally renewable materials—dimensional lumber that can be bought at a local home improvement store—and offers ample opportunity for community participation given the ease of basic wood construction. Similar creative approaches may lend well to placemaking in the time of COVID, given it’s an outdoor activity and results in a sheltered gathering place that can accommodate social distancing.

Secret Ingredient 2019 Biennial Project
Photo credit: Paola Aguirre

Rebuilding Community Resilience During a Pandemic

The COVID-19 pandemic has challenged city officials and planners to reconsider the structure of our gathering places. Some cities have taken advantage of the urban center’s very own goldmine—the city street. Cities around the world have extended patio season indefinitely allowing restaurants to sprawl across the pavement and into car lanes, providing a safe outdoor area for socialization during the pandemic.

Participatory design processes and placemaking strategies are integral to happy and healthy communities. When citizens and architects come together, the results can be powerful: culminating in projects like La Borda and the Lubber Run Center designed to foster community and connection.

At its heart, a community is a collective of people intersecting in a thousand different ways throughout the course of a day, whether that be grocery shopping, biking to work, going to school or reading a book in the park. The design of the built environment can have an immense impact on our social connections and daily lives, providing a foundation for stronger communities co-created by the communities themselves.

Placemaking Strategies in the Time of COVID-19

Happy City urban planning and design consultancy has created a guide to rapid placemaking in the shadow of the pandemic. Grounded in communal values and motivated by equitable access, the guide offers safe and rapid placemaking activities and programs for cities and city planners.

1
The Impact of Wood Use on North American Forests
Green building is looking beyond energy efficiency, placing greater attention on structural materials and their influence on a building’s environmental footprint. Wood products from sustainably managed forests are increasingly viewed as a responsible choice. Learn how to evaluate wood construction in the context of long-term forest sustainability. Learn More
Learn More
2
How to Calculate the Wood Carbon Footprint of a Building
From an environmental perspective, it is widely known that buildings matter. Buildings consume nearly half the energy produced in the United States, use three-quarters of the electricity and account for nearly half of all carbon dioxide (CO2) emissions. This course explains the principal methods and tools used to assess carbon footprint in the context of building materials, including a primer on product terminology like life cycle assessment (LCA), environmental product declarations (EPDs), carbon footprint, embodied carbon, and whole building LCA (WBLCA) tools. It also highlights ways to track and assure wood comes from sustainable forests.
Learn More
3
Wood and Evolving Codes: The 2018 IBC and Emerging Wood Technologies
Learn about structural wood use in residential and low- to mid-rise commercial construction with recent innovations and subsequent code changes that expand the use of structural wood. Valued for its versatility, low carbon footprint, aesthetic qualities, and cost performance -- both light frame and mass timber construction offer new design options for architects and building owners.
Learn More
4
Opportunities for Wood in Low-Rise Commercial Buildings
This course provides practical information that can be applied to projects -- code-related topics, including cost implications of construction type, opportunities for achieving unlimited area, and implications of multi-tenant occupancies. It provides an overview of wood wall and roof systems commonly used in commercial buildings, and highlights key design considerations.
Learn More
5
Time for Timber
Named for the legendary tennis player, the Billie Jean King Main Library in Long Beach, CA, offers a fitting homage to the athlete famed for the power of her serves and the efficiency of her ground strokes and volleys. Join Architectural Record as they tour Skidmore, Owings & Merrill’s award-winning civic project and explore topics of sustainable building, seismic resistance and designing for natural daylight.
Learn More
6
Designing Sustainable, Prefabricated Wood Buildings
Prefabricated wood components can help solve many design and engineering challenges such as material and process efficiency, environmental performance and life safety. This course demonstrates the advantages of prefabrication, specifically how it relates to both light wood frame and mass timber construction.
Learn More
7
The Role of Wood Products in Green Building
Material choice greatly affects the environmental impact of buildings, both during construction and over the building’s lifecycle. Wood is a renewable, durable building material that can be used in almost any building application. Green building standards also recognize wood’s contribution to improved energy performance over time. Learn about tools and certifications for green building in this CEU.
Learn More
8
Designing Modern Wood Schools
In 2019, school construction and educational facilities accounted for 101 million square feet of the non-residential market. By 2024, U.S. schools will be required to accommodate an estimated 2.8 million more students. There is a strong case for using wood in school construction to build structures that are cost effective, and to do so while creating high-performance, sustainable buildings that are safe, resilient, and appealing. Learn more in this online course.
Learn More
9
Mass Timber in North America
Around the world, designers are leveraging the strength, stability, and design flexibility of products like cross-laminated timber (CLT) to push beyond wood’s perceived boundaries, achieving building heights and spans that would have once required concrete, steel, or masonry for structural support. Examine the trend toward mass timber buildings in the context of construction efficiency, fire and life safety, occupant well-being, and other advantages.
Learn More
10
Multi-Family, Mid-Rise Wood Buildings: A Code-Compliant, Cost-Effective and Sustainable Choice
Demand for multi-family housing continues to play an important role in the overall U.S. construction market. This CEU explores the reasons for the increasing popularity of wood in multi-family buildings, reviews code compliance and fire safety technical considerations, and discusses techniques for successful wood building designs.
Learn More

Category: Article

Timber Gets Top Marks for Biophilic School Design

As research purporting the benefits of biophilic design continues to grow, architects are rethinking school design—from elementary to college-level—by incorporating more natural materials, such as wood, along with views of nature and better access to the great outdoors.

Wood inside a school science lab

Just last month, Think Wood teamed up with Hanley Wood, publisher of ArchitectBuilder and Multifamily Executive, to talk with developers and design teams about how timber is taking their projects to the next level.

Download our white paper to discover the benefits these firms are realizing with wood construction. From the opportunity to boost sales and lease rates, to the potential for cost savings and speed, wood construction presents several market advantages.

SneakPeek

Here’s a sneak peak of a few of the white paper’s case studies:

Realizing Speed to Market | TMBR, Minneapolis, MN | Hear from the developer and design team as they describe how timber became a central selling feature of this cross-laminated timber, 10-floor, 79-unit, 119-foot-tall condominium. Learn how using a prefabricated timber structure made this project go up faster and easier.

Wooden ceilings and pillars inside a living room
Todd Simning
President and CEO of Kroiss Development
The posts, beams, and floor and wall sections snap into place… It’s kind of like an erector set that goes up. Or it’s like getting a kit from Ikea, looking at the instructions, and putting it together. There’s a lot less waste.

Boosting Density and Maximizing Value | WREN, Los Angeles, CA | Discover how a podium design using light-frame wood construction achieved a whopping 195 units per acre. The innovative double podium design helped the developer keep costs down, boost density, and ultimately maximize the project’s profitability.

Wren residential mass timber exterior

“We were able to get an extra level into the building by using a mezzanine, which doesn’t technically count as a floor. Essentially, it made it into an eight-story building,” says Kyle Peterson, associate principal at TSM. “Our area of expertise is looking at what we can do, within the allowances of the code, to maximize yield for our clients.”

Additional Case Studies

That’s not all. Be sure to download our white paper to read more about a Denver-based project that achieved a bold aesthetic while saving time and money with a panelized prefab wood design and a Quebec-based project that takes timber to a new level, 13 stories, to deliver a 94- unit condominium that soars 135 feet into the skyline.

How Building with Wood Helps Multifamily Developers Succeed

When the newest owner purchased the home in 2013, the entire structure needed work. After spending a few years on the interiors, the homeowners began work on the exterior earlier in 2017. One of the final projects on the list: replacing the pergola with a structure that not only supported the building’s style but also the pair of 60-year-old trumpet vines that grew as a verdant canopy over the space.

The family knew they wanted to use as many natural products for this outdoor installation as possible. Because redwood is naturally resistant to decay and termites, they were confident that the redwood could be left unfinished and remain in good condition for decades; an important consideration for preserving the health of the trumpet vines.

Doing research, the homeowner determined that redwood construction heart 3×12, 8×8 and 8×12 timbers – some cut to lengths as long as 20 feet – would be the best structural support for those tree-like trumpet vines. Before work could begin, contractors had to build a scaffolding to suspend the trumpet vines over the space to give enough clearance for the installation crew to do its work.

And there they stood, for four months while the team opened up exterior walls to bolt the metal braces and timbers into place. In addition to the pergola design, contractors also had to reinstall the outdoor lighting that was hardwired into place, replace the columns that the pergola rested on, and re-stucco the exterior where holes were made for the brackets.

With the re-stucco project on the remaining two sides of the home completed, the homeowner has a classic Hollywood Hills piece of history to enjoy, honoring the building’s past, but built for a long and beautiful future.

To get started on your own redwood project or for more information on redwood visit:  http://www.calredwood.org/

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