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Cours Shearwalls

Cours Shearwalls

Aperçu du cours

Le cours Shearwalls présente aux apprenants le programme WoodWorks Shearwalls, un outil conçu pour la modélisation et l’analyse des structures à ossature en bois. Ce cours couvre la conception de structures complètes, y compris les murs, les toits et les ouvertures, tout en assurant une bonne répartition des charges et la stabilité de la structure.  

Vous explorerez les capacités du programme à générer et distribuer les charges sismiques et de vent, à optimiser les configurations des murs de refend et à vérifier la conformité avec les codes du bâtiment.

Résultats de l’apprentissage du cours

A la fin de ce cours, vous serez capable de :

  • Concevoir et analyser des murs de refend à ossature bois à l’aide du programme Shearwalls, y compris la répartition des charges pour la résistance aux séismes et au vent.
  • Évaluer la performance des murs de refend et la conformité aux codes du bâtiment en interprétant les analyses structurelles générées par le logiciel.
  • Optimiser les configurations des murs de refend pour améliorer l’intégrité structurelle, en ajustant les matériaux et les paramètres de conception sur la base des meilleures pratiques d’ingénierie.

Structure du cours

Ce cours est composé de huit (8) leçons. Chaque leçon comprend un aperçu de la leçon, des résultats d’apprentissage, des vidéos pédagogiques, des questions d’évaluation et un devoir. Ces éléments vous permettront d’acquérir une expérience pratique dans l’utilisation du programme Shearwalls Woodworks pour des applications réelles.

Une fois que vous aurez répondu à toutes les questions d’évaluation et que vous aurez remis votre travail, un certificat d’achèvement vous sera remis numériquement.

Délai d’exécution

Ce cours est composé de dix-huit vidéos d’une durée totale de 90 minutes.

Pour compléter les évaluations de ce cours, vous pouvez vous attendre à passer ~ 95 minutes.

Téléchargement du logiciel

Pour suivre ce cours, vous devez télécharger une version d’essai du logiciel Shearwalls.  

Suivez les étapes suivantes pour télécharger le logiciel :

  1. Accédez à la page de téléchargement du logiciel en cliquant ici.
  2. Cliquez sur le bouton « Télécharger maintenant » pour le logiciel Shearwalls.
  3. Localisez et cliquez sur le téléchargement dans votre navigateur ou sur votre ordinateur.
  4. Suivez les instructions de votre ordinateur pour terminer l’installation.

*Remarque : la version d’essai du logiciel n’est valable que pendant 10 jours à compter de l’installation.

Cours Sizer

Cours Sizer

Aperçu du cours

Le cours Sizer propose une introduction approfondie au programme WoodWorks Sizer, un outil puissant pour la conception et l’analyse d’éléments structurels tels que les poutres, les colonnes, les montants muraux et les panneaux. Le cours couvre les principales caractéristiques, notamment la définition des charges, les modèles de charge, la conception des appuis, la conception des poutres, la conception des colonnes, les considérations relatives à la stabilité latérale et le « mode concept » pour la modélisation structurelle préliminaire.

Vous découvrirez comment le programme optimise les conceptions en générant automatiquement des modèles de charge, en vérifiant la conformité avec les codes du bâtiment et en affinant les éléments structurels pour en améliorer les performances.

Résultats de l’apprentissage du cours

A la fin de ce cours, vous serez capable de :

  • Concevoir et analyser des éléments structurels à l’aide du programme Sizer, y compris des poutres, des colonnes et des panneaux CLT, tout en tenant compte de la sélection des matériaux, des conditions de charge et de la conformité au code.
  • Évaluer la distribution des charges et la stabilité structurelle en appliquant les fonctions automatisées de Sizer pour la charge de modèle, l’analyse du support latéral et les ajustements de la résistance au feu.
  • Optimiser les conceptions structurelles grâce au mode concept et à l’analyse détaillée des éléments, en veillant à l’utilisation efficace des matériaux, au bon transfert des charges et au respect des meilleures pratiques en matière d’ingénierie.esign and analyze structural elements using the WoodWorks Sizer Program, including beams, columns, and CLT panels, while considering material selection, loading conditions, and code compliance.

Structure du cours

Ce cours est composé de six (6) leçons. Chaque leçon comprend une vue d’ensemble de la leçon, des résultats d’apprentissage, des vidéos pédagogiques, des questions d’évaluation et un devoir. Grâce à ces éléments, vous acquerrez une expérience pratique de l’utilisation du logiciel Woodworks Sizer pour des applications réelles.

Une fois que vous aurez répondu à toutes les questions d’évaluation et que vous aurez remis votre travail, un certificat d’achèvement vous sera remis numériquement.

Délai d’exécution

Ce cours est composé de dix vidéos d’une durée totale de 64 minutes.

Pour compléter les évaluations de ce cours, vous pouvez vous attendre à passer ~ 95 minutes.

Téléchargement du logiciel

Pour suivre ce cours, vous devez télécharger une version d’essai du logiciel WoodWorks Sizer.  

Suivez les étapes suivantes pour télécharger le logiciel :

  1. Accédez à la page de téléchargement du logiciel en cliquant ici.
  2. Cliquez sur le bouton « Télécharger maintenant » pour le logiciel Sizer.
  3. Localisez et cliquez sur le téléchargement dans votre navigateur ou sur votre ordinateur.
  4. Suivez les instructions de votre ordinateur pour terminer l’installation

*Remarque : la version d’essai du logiciel n’est valable que pendant 10 jours à compter de l’installation.

The Exchange

ARCHITECT: Faction Architecture Inc.

STRUCTURAL ENGINEER: RJC Engineers

DEVELOPER: Faction Projects Inc.

CONSTRUCTION MANAGER: Faction Construction

BUILDING CODE CONSULTANT: GHL Consultants Ltd.

PHOTOS: Courtesy of naturally:wood

The Exchange

In Kelowna, British Columbia’s evolving industrial north end, The Exchange stands as a forward-thinking demonstration of what’s possible when architectural ambition meets technical precision. Designed and developed by Faction Architecture and Faction Projects, the building blends mass timber with conventional materials in a hybrid system that highlights both structural performance and environmental responsibility.

At the heart of the structural system is nail-laminated timber (NLT), used for both floor and roof assemblies. NLT is a mass timber product formed by mechanically fastening dimensional lumber together to create solid panels—an approach well-suited to exposed timber applications that value durability, texture, and straightforward fabrication. For this project, the team fabricated the panels in-house using locally sourced materials and trades. While this gave them greater control over cost and scheduling, it also introduced design and compliance challenges.

The team opted for a fluted NLT profile to enhance visual appeal and improve acoustic performance. Because the panel design differed from prescriptive norms, it required approval as an  alternative solution under the BC Building Code. Extensive analysis was conducted to demonstrate compliance with fire-resistance, vibration, and load-bearing requirements. Informed by existing NLT fire test data, the design team minimized voids between laminations to enhance charring behaviour and performed physical load testing at Okanagan College to confirm strength and stiffness performance.

Complementing the NLT panels is a glulam post-and-beam system that forms the substructure, supported by concrete elevator and stair cores. Together, these elements support a program that includes retail and light industrial space at grade, with two to three storeys of open-plan office space above. A rooftop patio offers sweeping views, reinforcing the project’s appeal to creative businesses and environmentally conscious tenants.

The Exchange also showcases a thoughtful approach to the building envelope, a key factor in achieving Step 3 of the BC Energy Step Code—the highest step currently applicable to non-residential buildings in the region. The high-performance envelope includes a combination of weathering steel and corrugated metal cladding, high-performance glass windows, semi-rigid exterior insulation, breathable weather barrier, plywood sheathing, lumber studs, batt insulation, gypsum board and a polyethylene vapour barrier.  The light-frame wood walls contribute to envelope performance in two important ways: 1) wood has lower thermal conductivity than other materials, so thermal bridging is dramatically reduced, and 2) the stud wall configuration allowed for thicker insulation in the cavities between studs.

This integrated approach—combining exposed timber construction, envelope efficiency, and locally supported fabrication—enabled the project team to deliver a space that performs as well technically as it does aesthetically. And with over 90% of the leasable area spoken for at completion, it’s clear that tenants are responding to both the look and the logic of the building.

The Exchange sets a precedent for accessible mass timber construction in smaller markets, particularly in contexts where a streamlined fabrication process and strong design-control loop can help close the gap between sustainable ambition and budgetary constraints.

As Faction Projects continues work on the remaining phases of the development, The Exchange stands as both a technical prototype and a commercial success—proof that high-performance, low-carbon construction can be as practical as it is inspiring.

 

Wood Design: A Guide for Architects and Educators

This Guide is designed to help educators increase wood content in their already crowded curricula, exposing students to the unique challenges and opportunities of designing with advanced wood systems, within the context of the program and student performance criteria established, maintained, and evaluated by the Canadian Architectural Certification Board.

Canadian Wood Council releases new Environmental Product Declarations for 5 Canadian manufactured wood products

OTTAWA, ON, 1 APR 2025 – The Canadian Wood Council (CWC) is pleased to announce the release of five new Environmental Product Declarations (EPDs) for Canadian softwood lumber, oriented strand board (OSB), plywood, trusses, and prefabricated wood I-joists. These EPDs provide comprehensive, transparent environmental data on the potential impacts associated with the cradle-to-gate life cycle stages of these essential wood products.

Developed as regionalized, industry-wide business-to-business (B2B) Type III declarations, the EPDs comply with the highest international standards, including ISO 21930, ISO 14025, ISO 14040, ISO 14044, the governing product category rules, and ASTM General Program Instructions for Type III EPDs. This ensures credible, third-party verified environmental impact data, supporting designers, builders, and policymakers in making informed, sustainable material choices.

“The release of these new EPDs reinforces our commitment to transparency and sustainability in the wood products sector,” said Peter Moonen, National Sustainability Manager at the Canadian Wood Council. “By providing robust, science-based environmental information, we’re equipping the industry with the tools needed to demonstrate the environmental benefits of wood and support low-carbon construction.”

The EPDs are available for download from the Canadian Wood Council’s digital resource hub: www.cwc.ca

EPDLink
An Industry Average EPD for Canadian Pre-fabricated Wood I-JoistsView Resource
A Regionalized Industry Average EPD for Canadian Softwood LumberView Resource
A Regionalized Industry Average EPD for Canadian Oriented Strand BoardView Resource
An Industry Average EPD for Canadian Softwood PlywoodView Resource
A Regionalized Industry Average EPD for Canadian Wood TrussesView Resource

Environmental product declarations (EPDs) – Copy

EPD
Link
An Industry Average EPD for Canadian Pre-fabricated Wood I-Joists
A Regionalized Industry Average EPD for Canadian Softwood Lumber
A Regionalized Industry Average EPD for Canadian Oriented Strand Board
An Industry Average EPD for Canadian Softwood Plywood
A Regionalized Industry Average EPD for Canadian Wood Trusses

Stakeholders within the building design and construction community are increasingly being asked to include information in their decision-making processes that take into consideration potential environmental impacts. These stakeholders and interested parties expect unbiased product information that is consistent with current best practices and based on objective scientific analysis. In the future, building product purchasing decisions will likely require the type of environmental information provided by environmental product declarations (EPDs). In addition, green building rating systems, including LEED®, Green Globes™ and BREEAM®, recognize the value of EPDs for the assessment of potential environmental impacts of building products.

EPDs are concise, standardized, and third-party verified reports that describe the environmental performance of a product or a service. EPDs are able to identify and quantify the potential environmental impacts of a product or service throughout the various stages of its life cycle (resource extraction or harvest, processing, manufacturing, transportation, use, and end-of-life). EPDs, also known as Type III environmental product declarations, provide quantified environmental data using predetermined parameters that are based on internationally standardized approaches. EPDs for building products can help architects, designers, specifiers, and other purchasers better understand a product’s potential environmental impacts and sustainability attributes.

An EPD is a disclosure by a company or industry to make public the environmental data related to one or more of its products. EPDs are intended to help purchasers better understand a product’s environmental attributes in order for specifiers to make more informed decisions selecting products. The function of EPDs are somewhat analogous to nutrition labels on food packaging; their purpose is to clearly communicate, to the user, environmental data about products in a standardized format.

EPDs are information carriers that are intended to be a simple and user-friendly mechanism to disclose potential environmental impact information about a product within the marketplace. EPDs do not rank products or compare products to baselines or benchmarks. An EPD does not indicate whether or not certain environmental performance criteria have been met and does not address social and economic impacts of construction products.

Data reported in an EPD is collected using life cycle assessment (LCA), an internationally standardized scientific methodology. LCAs involve compiling an inventory of relevant energy and material inputs and environmental releases, and evaluating their potential impacts. It is also possible for EPDs to convey additional environmental information about a product that is outside the scope of LCA.

EPDs are primarily intended for business-to-business communication, although they can also be used for business-to-consumer communication. EPDs are developed based on the results of a life cycle assessment (LCA) study and must be compliant with the relevant product category rules (PCR), which are developed by a registered program operator. The PCR establishes the specific rules, requirements and guidelines for conducting an LCA and developing an EPD for one or more product categories.

The North American wood products industry has developed several industry wide EPDs, applicable to all the wood product manufacturers located across North America. These industry wide EPDs have obtained third-party verification from the Underwriters Laboratories Environment (ULE), an independent certification body. North American wood product EPDs provide industry average data for the following environmental metrics:

  • Global warming potential;
  • Acidification potential;
  • Eutrophication potential;
  • Ozone depletion potential;
  • Smog potential;
  • Primary energy consumption;
  • Material resources consumption; and
  • Non-hazardous waste generation.

Industry wide EPDs for wood products are business-to-business EPDs, covering a cradle-to-gate scope; from raw material harvest until the finished product is ready to leave the manufacturing facility. Due to the multitude of uses for wood products, the potential environmental impacts related to the delivery of the product to the customer, the use of the product, and the eventual end-of-life processes are excluded from the analysis.

For further information, refer to the following resources:

Design for Deconstruction in Light Wood Frame

The Guidebook of Design for deconstruction in Light Wood Frame presents a methodology for altering typical light wood frame assemblies so that they can be easily disassembled and the materials of the building can be reused. The province of BC and, more broadly, Canada, has relatively little infrastructure for recycling wood waste. In Vancouver alone, the construction, renovation, and demolition (CRD) sector produces about 1.7 million tonnes of waste per year.1 Of this, an estimated 30-60% is wood waste which is largely discarded in landfills. What little wood that is recycled is generally incinerated for waste-to-energy conversion or shredded for biomass. Deconstructing wood buildings and reusing the salvaged wood for new construction would extend the lifespan of the wood, add value and longevity to a valuable material, reduce GHG emissions and reduce the amount of new resources required for new construction projects. Despite the benefit of re-using wood, there are some barriers to deconstructing typical light wood frame buildings, including the use of irreversible fasteners, adhesives, spray foams, and liquid applied sealants. The presence of toxic materials such as asbestos and lead are also of concern when deconstructing a building. While use of toxic materials is now prohibited in new constructions the use of nails (particularly when applied with nail guns) and adhesives makes deconstruction very difficult if not impossible in some cases.2 This guidebook proposes a design for deconstruction system that addresses these remaining issues with simple modifications of typical light wood frame construction practices, allowing for both simple construction, solid performance, and easy deconstruction.

Wood Design & Building Magazine, vol 24, issue 96

Buildings that stand the test of time aren’t just durable—they are cherished. When we invest in quality materials and good design, we can create buildings that people connect with. As you’ll discover in this issue, many heavy timber warehouses and factories constructed in the early 1900s remain a vital part of our cities today—not because they still serve their original purpose, but because people valued them enough to adapt, restore, and reuse them, giving them a new purpose.

Fast forward a hundred years and resilient structures include many new forms. Modular construction, for example, has seen significant growth in recent years as this form of construction has transformed from a building method once considered inferior, into a method relied upon to deliver high-performance durable buildings.

Alongside our features on historic timber buildings and modular construction, this issue also highlights notable projects and emerging trends shaping today’s built environment. From innovative mass timber structures to forward-thinking design solutions, we explore how thoughtful craftsmanship and smart engineering continue to define the spaces we build—and the ones we keep.

Connections Course

Connections Course

Course Overview

The Connections Course provides an introduction to the WoodWorks Connections Program, a tool designed to assist engineers and designers in the creation and evaluation of wood connections. This course covers the design of new connections using bolts, nails, rivets, or shear plates and explains how to assess their capacity.  You will gain an understanding of the program’s functionality, its application in real-world scenarios, and best practices for optimizing wood connections.

Course Learning Outcomes

By the end of this course, you will be able to:

  • Design and analyze wood connections using the Connections Program, incorporating bolts, nails, rivets, and shear plates.
  • Evaluate connection capacity and compliance with industry standards by interpreting program-generated results.
  • Optimize wood connection designs by applying best practices and modifying existing configurations for improved structural performance.

Course Structure

This course consists of ten (10) lessons. Each lesson is comprised of a lesson overview, learning outcomes, instructional videos, assessment questions and an assignment. Through these elements, you will gain practical experience in using the Connections WoodWorks Program for real-world applications.

Once you have completed all assessment questions and assignment submissions, a certificate of completion will be digitally awarded.

Time for Completion

This course is comprised of 2 videos for a total run time of 8 minutes.

To complete the assessments in this course you can expect to spend ~ 20 minutes.

Program Download

In order to complete this course you will need to download a trial version of the Connections Program.

Complete these steps to download the program:

  1. Navigate to the program download page by clicking here.
  2. Scroll down to the Connections section
  3. Click on the “Download Now” button for the Connections Program.
  4. Locate and click on the download either in your browser or on your computer.
  5. Follow the prompts provided by your computer to complete installation.

*Note: the trial version of the program is only valid for 10 days upon installation.

Shearwalls Course

Shearwalls Course

Course Overview

The Shearwalls Course introduces learners to the WoodWorks Shearwalls Program, a tool designed for modeling and analyzing wood-frame structures. This course covers the design of complete structures, including walls, roofs, and openings, while ensuring proper load distribution and structural stability.  

You will explore the program’s capabilities in generating and distributing seismic and wind loads, optimizing shearwall configurations, and verifying compliance with building codes.

Course Learning Outcomes

By the end of this course, you will be able to:

  • Design and analyze wood-frame shearwalls using the Shearwalls Program, including load distribution for seismic and wind resistance.
  • Evaluate shearwall performance and compliance with building codes by interpreting program-generated structural analyses.
  • Optimize shearwall configurations for enhanced structural integrity, adjusting materials and design parameters based on engineering best practices.

Course Structure

This course consists of ten (10) lessons. Each lesson is comprised of a lesson overview, learning outcomes, instructional videos, assessment questions and an assignment. Through these elements, you will gain practical experience in using the Shearwalls Woodworks Program for real-world applications.

Once you have completed all assessment questions and assignment submissions, a certificate of completion will be digitally awarded.

Time for Completion

This course is comprised of 23 videos for a total run time of 115 minutes.

To complete the assessments in this course you can expect to spend ~ 2 hours.

Program Download

In order to complete this course you will need to download a trial version of the Shearwalls Program.

Complete these steps to download the program

  1. Navigate to the program download page by clicking here.
  2. Scroll down to the Shearwalls section
  3. Click on the “Download Now” button for the Shearwalls Program.
  4. Locate and click on the download either in your browser or on your computer.
  5. Follow the prompts provided by your computer to complete installation.

*Note: the trial version of the program is only valid for 10 days upon installation.

Updates to Hem-Fir (N) design values for dimension lumber

The Canadian Wood Council is proud to share the National Lumber Grades Authority (NLGA) latest updates to the design values for Hem-Fir (N) dimension lumber, effective April 1, 2025. These changes result from a routine reassessment of strength and stiffness properties, ensuring Hem-Fir (N) continues to meet structural performance expectations.

Key Points:

  • Minimal Practical Impact: The updated design values should not result in significant changes to the practical use of Hem-Fir (N) in most applications, maintaining continuity for builders, designers, and engineers.
  • Consistent Performance: Hem-Fir (N) remains a trusted and dependable choice for residential and commercial construction, with values that closely align with previous standards.
  • No Impact on Existing Construction: Structures built under previous building codes remain compliant.
  • The updates are reflected in the NLGA Standard Grading Rules for Canadian Lumber, CSA O86 – Engineering Design in Wood, and the National Design Specification® (NDS®) Supplement for Wood Construction.

For additional details, including specific design value changes, affected lumber grades, and implementation considerations, please refer to the Frequently Asked Questions (FAQ) document for Canada or the USA.

Download publication by Region:

Canadian Wood Council Applauds Strategic Federal Investments in B.C.’s Forest Industry

OTTAWA, March 25, 2025 – The Canadian Wood Council welcomes the Government of Canada’s announcement of over $20 million in funding for 67 projects that support the growth and resilience of British Columbia’s forest sector.

While the announcement includes several strategic large-scale investments in advanced wood manufacturing, a significant strength of this initiative lies in the breadth of smaller-scale, high-impact projects that are collectively transforming communities across the province. From feasibility studies for Indigenous-led forest product businesses to the development of next-generation building technologies, these projects are advancing wood innovation, supporting workforce development, and expanding the role of wood in low-carbon construction.

Administered through Natural Resources Canada, this Green Construction through Wood (GCWood) funding supports a wide range of initiatives—from fire-testing mass timber connections and refining modelling guides for timber structures, to developing bioenergy solutions and value-added wood processing in Indigenous communities.

This announcement underscores the importance of decentralized innovation, where targeted investments in communities and research institutions alike contribute to a stronger, more sustainable forest sector. The Canadian Wood Council applauds this commitment and looks forward to continuing its work with design professionals, governments, and industry partners to support the expanded use of wood in the province through its market-leading WoodWorks program.

View the announcement from Natural Resources Canada here:
https://www.canada.ca/en/natural-resources-canada/news/2025/03/canada-announces-support-for-british-columbias-forest-sector.html https://www.canada.ca/en/natural-resources-canada/news/2025/03/canada-announces-support-for-british-columbias-forest-sector.html

Wood Design & Building Magazine, vol 24, issue 97
Woodrise 2025
Webinar: Building Code Updates for Tall Wood Construction in Canada
Brampton – Simpson Strong-Tie Workshop
Woodrise 2025 – Offsite Tours
Sizer Course – US
Shearwalls Course – US
Connections Course – US
2025 Wood Design & Building Awards Call for Submissions Now Open
Wood Design and Building Awards

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