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The Role of the Wood Industry in Climate Change Mitigation

Course Overview

This presentation will describe the role of the wood industry in mitigating the impacts the built environment has on climate change. Learn about the importance of embodied carbon in construction and how wood has the ability to influence positive change in the building sector’s decarbonization efforts.

This session will highlight current research programs such as National Research Council Canada’s initiative on Low-carbon assets through life cycle assessment (LCA2) and emerging initiatives such as embodied carbon provisions in municipal and national building standards and codes.

Learning Objectives

These objectives are aligned with key concepts in sustainability, building regulations, and lifecycle assessments within the building sector.

  1. Understanding Embodied Carbon:
    Objective: To learn what embodied carbon is, how it is relevant to building materials, and its implications for sustainability in construction.
    Relevance: Knowing the sources of embodied carbon helps in making informed decisions about material selection to reduce environmental impact.
  2. Role of Wood in Sustainable Construction:
    Objective: To understand the environmental benefits of using wood in construction, including its properties as a low-carbon material.
    Relevance: Grasping why wood is considered a sustainable choice can influence policies, building practices, and material selection, supporting climate change mitigation efforts.
  3. Biogenic Carbon Concept:
    Objective: To comprehend what biogenic carbon is, how it is stored in wood, and the significance of using wood to capture and store carbon.
    Relevance: Learning about biogenic carbon can lead to greater appreciation of sustainable forestry and its role in carbon sequestration, promoting the use of renewable resources.
  4. Regulatory Expectations and Future Trends in Building Materials:
    Objective: To gain insight into future regulatory changes regarding building materials, specifically the focus on reducing embodied carbon.
    Relevance: Understanding these regulatory trends prepares professionals to comply with upcoming standards and encourages the adoption of sustainable practices in construction.
These objectives help learners—from construction professionals to students and policy makers—understand critical aspects of sustainability in the building industry, encouraging the implementation of practices that reduce the environmental impact of construction activities.

Course Video

https://vimeo.com/1046526307

Speaker Bio

Natasha Jeremic, MASc, PEng, LEED GA
Manager Codes and Standards – Sustainability
Canadian Wood Council

Natasha Jeremic is Manager of Sustainability in the Codes and Standards group at the Canadian Wood Council. She is engaged in strategic building code and standards initiatives related to sustainability, circularity, and durability. Natasha leverages her experience in structural design, building performance, and whole life carbon accounting to demonstrate that wood products are a viable solution for a sustainable and low-carbon built environment.

From Vision to Reality: Solutions for Beautiful, Sustainable, Attainable Housing

Course Overview

As the push for sustainable residential development intensifies, mass timber is increasingly taking a central role in how we reshape city building approaches. This session will delve into why we are pursuing a national residential portfolio based on mass timber, addressing the material’s impact in reducing carbon footprints, its status as a renewable resource, and the challenges surrounding its implementation for a large-scale residential portfolio. We will explore how transparency in supply chains and construction methods can unlock better outcomes for the built environment. The discussion will also address key challenges in delivering mass timber projects at this scale, from procurement complexities to cost-effective strategies. Lastly, we will chart the way forward by examining how prefabrication, structural systems, and repeatable typologies can advance the competitiveness and feasibility of mass timber, positioning it as a cornerstone of attainable housing and a sustainable construction future.

Learning Objectives

  1. Understand the strategic importance of mass timber in city building and how it supports long-term sustainability goals, housing affordability, and market transformation.
  2. Analyze key challenges in the building with mass timber in a portfolio context—from supply chain limitations to procurement complexities—and explore innovative strategies for advancing timber design and construction.
  3. Explore the role of prefabrication and material properties in delivering cost-effective timber projects and repeatable building typologies.
  4. Evaluate carbon reporting and the transparency of value chains in the timber industry, while discussing the potential for timber to drive a sustainable future.
  5. Consider the intersection of timber construction with local guidelines and how structural engineering and urban design principles can align with broader industry goals for competitiveness and diversity.

Course Video

https://vimeo.com/1022248668

Speakers Bio

Nina Boccia
Director of Marketing
KPMB

Nina Boccia is a marketing and communications professional with over a decade of experience creating dynamic and engaging content that connects to vision and values. She previously served as an associate editor at Azure Magazine and managing editor of its sister publication, Designlines, where she interviewed and reported on the best minds in design and architecture. Through her work in arts and culture in Toronto, she has held various leadership positions; creating and overseeing programming, marketing initiatives, and fundraising efforts. She has spearheaded and managed national marketing efforts including branding campaigns, partnerships, and content strategies. Nina is passionate about sharing stories that are purpose-driven, facilitate important conversations, drive investment in community and culture, illustrate the transformative power of design, and champion the people creating meaningful impact.

Geoffrey Turnbull
Director of Innovation and Sustainability
Kindred Works

As Director of Innovation and Sustainability at Kindred Works, Geoff Turnbull champions an evidence-based, holistic approach to creating beautiful, sustainable, and high-performing development projects. Geoff came to Kindred Works with a broad background in architecture, business, film, computation, and real estate development, including serving as director of KPMB LAB, the sustainability-focused research group at leading Canadian architecture firm KPMB Architects. A licensed architect (OAA) who holds the LEED AP and CPHD designations, he earned a Bachelor of Commerce degree in finance from Dalhousie University and a Master of Architecture degree from the University of Toronto.

Adam Gerber
Principal
ASPECT Structural Engineers

Adam is the CEO and Principal of ASPECT Structural Engineers and a leader in mass timber engineering. His engineering achievements cover a variety of unique and complex structures utilizing different building materials, and he has a breadth of hands-on and technical experience unique in the field. Adam earned his master’s degree in structural and earthquake engineering from the University of British Columbia in 2016, where his research focused on the development of timber-concrete composite technology and vibration performance of floors. Prior to and throughout his degree in civil engineering from the University of British Columbia, Adam gained experience in the design and construction of timber structures as a carpenter, foreman, estimator, and, ultimately, structural engineer. This experience enables him to view projects from the perspective of designers, builders, and project managers, leading the creation of cost-effective, constructible, and efficient solutions. Adam is deeply committed to sustainability and is a certified Passive House Consultant. A respected public speaker, he has shared his insights on mass timber at numerous industry conferences, including BuildEx Vancouver, the World Conference on Timber Engineering, and the International Mass Timber Conference in Portland.

Laurence Holland
Associate
KPMB

Laurence has worked on several projects that draw on his expertise in urban design, community consultation, and multi-family residential design, along with his proficiency in communication and policy analysis. In addition to leading the design of several projects within the Kindred Works residential portfolio, he was a key member of the interdisciplinary Downsview Framework Plan team, working on the intersection of resilient landscapes, sustainable mobility systems, and architecture. Working closely with Indigenous design partners and community members, Laurence led the award-winning design of the Resilient Duplex for Fort Severn First Nation. Outside his project responsibilities, Laurence has led the establishment of funding opportunities and education programs for equity-deserving groups as part of KPMB’s commitment to Equity, Diversity, and Inclusion. He is also a sessional lecturer at the Daniels Faculty of Architecture, Landscape & Design at the University of Toronto.

The Future of Tall: The Future of Cities

Course Overview

Over the past two decades, tall buildings have enjoyed a major uptake in almost all major cities globally. But is the push for greater urban density and taller buildings creating habitats and patterns of life that are truly sustainability, in terms of social, cultural and economic sustainability, as well as the carbon equation? Through examples from around the world, this session outlines areas where the typology, and cities, need to develop.

Learning Objectives

  1. Understand the sustainability challenges and opportunities in tall building design: Explore how social, cultural, economic, and environmental factors influence the development of high-rise structures and urban density.
  2. Identify innovative strategies for integrating mass timber and other sustainable materials in tall buildings: Learn how material choices impact carbon reduction, energy efficiency, and structural performance in high-rise construction.
  3. Analyze global case studies to evaluate future trends in urban development and tall building typologies: Gain insights into design approaches that promote livable, resilient, and sustainable cities.

Course Video

https://vimeo.com/1147342156

Speakers Bio

Dr. Antony Wood
CEO
Antony Wood Consulting

Dr. Antony Wood is the former President of the Council on Tall Buildings and Urban Habitat (CTBUH), responsible for leading the Council’s thought leadership, research, and academic initiatives. Prior to this, he was CTBUH chief executive officer (CEO) from 2006-2022. During his sixteen-year tenure as CEO, CTBUH significantly increased its outputs and initiatives across all areas globally. Wood’s PhD dissertation explored the multi-disciplinary aspects of skybridge connections between tall buildings. He is associate editor of the CTBUH Journal and serves on the editorial board of several other journals. He is the author of numerous books and papers in the fields of tall buildings, sustainability, and related fields. Wood has been conference chair and chair of the scientific committee at all CTBUH conferences since 2006. He has also presented at numerous conferences, and lectures regularly around the world.

Construction Moisture Management of Mass Timber Buildings

Course Overview

Mass timber buildings are transforming the way we build—but with new materials come new challenges. This session will explore how moisture risks in mass timber construction and how to take a proactive approach to moisture management. Participants will gain practical insights into effective protection strategies during the construction phase and learn how to develop a tailored moisture management plan to safeguard both the mass timber structure and project timelines. 

Learning Objectives

  1. Identify key moisture risks specific to mass timber construction and understand how they differ from traditional structural systems.
  2. Apply practical construction-phase moisture protection strategies that align with project sequencing, site conditions, and contractor workflows.
  3. Develop or evaluate a project-specific moisture management plan to protect mass timber elements, reduce delays, and ensure long-term durability.

Course Video

https://vimeo.com/1147337535

Speakers Bio

David Stanton
Associate, Senior Engineer – Building Enclosure
RDH Building Science Inc.

David is an Associate and Senior Building Science Engineer in RDH Building Science’s Toronto office. David’s exposure to mass timber projects started with the Brock Commons project in BC as a coop student and then with the Catalyst building in Spokane, WA—a 4-storey mass timber building for Eastern Washington University—when he started working full-time in the Building Science field. Since moving back to Toronto, David has continued to work on large scale mass timber projects, including the Lawson Center for Sustainability and the Academic Wood Tower projects at UofT.

Sean Carroll
Senior Superintendent
Graham Construction

Sean Carroll is a Senior Superintendent with Graham Construction, bringing over 32 years of experience across Canada, Europe, and the UK. A civil engineer and journeyman carpenter, Sean has led complex projects in the commercial, residential, pharmaceutical, and educational sectors—including several involving advanced Mass Timber construction. Over his 11 years with Graham, split between Alberta and Ontario, Sean has been at the forefront of integrating sustainable building methods, particularly in the use of engineered timber systems. He brings a deep understanding of Mass Timber coordination, sequencing, and tolerances, along with a strong commitment to safety, quality, and team leadership. Known for his hands-on approach and global perspective, Sean combines technical precision with a collaborative leadership style—driving successful project outcomes from concept through completion.

Natasha Jeremic
Manager, Codes and Standards – Sustainability
Canadian Wood Council

Natasha Jeremic is a Professional Engineer in the building industry, with a background in design, building performance, and project management. She is currently the Sustainability Manager for Codes and Standards at the Canadian Wood Council, where she leads strategic initiatives focused on low-carbon construction, energy efficiency, durability, and circularity. Natasha leverages her expertise in structural design, building envelope consulting, and whole life carbon accounting to showcase how wood products contribute to a sustainable, low-carbon built environment. She is passionate about raising awareness of wood’s role as a viable solution in advancing climate-conscious construction.

Offsite Construction Handbook

Course Overview

Offsite construction is transforming the building industry by shifting key processes from traditional sites to controlled factory environments. This approach enhances productivity, quality, and sustainability, addressing challenges like labor shortages and environmental impact. The delivery process emphasizes early collaboration, integrated design, and robust project management to optimize efficiency and risk management. Durability and energy efficiency are achieved through advanced material selection, moisture management, and airtight, highly insulated assemblies. Construction logistics, quality control, and commissioning are tailored for offsite methods, ensuring rapid, reliable project delivery. Life cycle analysis shows offsite construction can reduce embodied carbon and waste, supporting climate goals. Canada’s evolving policies and market trends position offsite construction as a key solution for affordable, sustainable housing. 

Learning Objectives

  1. Understand how offsite construction improves the durability, moisture control, and energy performance of wood building systems.
  2. Identify the structural and sustainability benefits of early design integration in offsite wood construction projects.
  3. Evaluate the role of life-cycle analysis and embodied carbon in positioning offsite wood construction as a solution for sustainable and affordable housing in Canada.

Course Video

https://vimeo.com/1147106827

Speakers Bio

Dorian Tung
Manager, Technology Assessment
FPInnovations

Dorian Tung is currently the Manager of Technology Assessment at FPInnovations. Prior to this, he worked as a structural consultant in Canada and the US. As a manager, he has been working with scientists on projects related to structure, seismic, durability, energy, fire, acoustic, and vibration. With the evolving ecosystem, Dorian is active in many working groups to facilitate discussions, remove duplicates, accelerate processes, with the goal to maximize impacts for the forest industry NOW using research data. He is also the editor of the Offsite Wood Construction Handbook published by FPInnovations.

Helen Goodland
Principal. Head of Research and Innovation
SCIUS Advisory

Helen Goodland is an architect registered in the UK and has an MBA from the University of BC. Helen is firmly committed to achieving truly sustainable buildings within the next decade. She is also passionate about advancing leadership opportunities for women in construction technology. To this end, she participates on numerous boards and committees. Currently she serves on the Board of Directors of Building Transformations (formerly CanBIM), the BC Digital Advisory Council, the BCIT Mass Timber Education Advisory Board and the University of Victoria’s Green Civil Engineering Advisory Council. She is also past chair of the UN Sustainable Buildings Initiative’s Materials Technical Committee.

Adam Robertson
Co-founder and Principal
Sustainatree

Adam completed his Bachelor of Applied Science in Civil Engineering at the University of Toronto and also holds a Master of Applied Science degree from the Department of Wood Science at the University of British Columbia. He is the past Chair of the CSA Subcommittee on Permanent Wood Foundations and acted as a primary author and editor during the update and revisions to the Canadian Wood Council’s Permanent Wood Foundations publication. He is the co-founder and principal of Sustainatree Consulting, a small firm specializing in sustainability and engineering design of wood building systems. Prior to opening his own practice, Adam was previously employed by the Canadian Wood Council and has also worked as a consulting structural engineer and within the building development and construction management fields.

Delivering Mid-Rise Housing Solutions – Part 1 Light Wood Frame

Course Overview

We are excited to be joined by Ashley Hammerbacher and Seungyeon Hong from s2e Technologies Development Inc a team constructing the 4 storey Eve Park in London Ontario. Eve Park is an innovative net zero community with Phase 1 underway. With the unique building shape, it shows that there are no limits with what offsite prefabrication can’t do.

Learning Objectives

  1. Understand the innovative use of prefabricated light wood construction in creating sustainable residential developments – design choices, construction techniques, and sustainability goals.
  2. Analyze the design and logistical challenges in implementing prefabricated construction systems, including coordination between various stakeholders.
  3. Evaluate the benefits of modular construction in achieving sustainability goals, such as Net Zero Energy standards.
  4. Discuss the role of innovative parking solutions and community design in enhancing the sustainability and livability of residential developments.

Course Video

https://vimeo.com/1046521894

Speaker Bio

Ashley Hammerbacher
Managing Director
S2E Technologies

Ashley is a Managing Director for the US division of S2E Technologies and is the EVE Park Project Lead. She is currently living and breathing everything EVE Park. Ashley is coordinating and advising on EVE Park where we are reimagining neighbourhoods for green energy along with the future of aut-on-omous vehicles. Ashley holds a Bachelors in Bioengineering and a Masters in Civil and Environmental Engineering from Stanford University, and has accumulated a breadth of experience in green technology and intelligent mobility.

Seungyeon Hong
Modelling and Data Specialist
S2E Technologies

Seung is a Modelling and Data Specialist at S2E Technologies. His role includes providing technical analysis on all matters related to buildings. This includes developing physics-based computer simulations to study a building’s behaviour and estimate the associated energy use, which helps guide design decisions and achieve net-zero energy design. Seung had earned a Bachelor’s and Master’s degrees in Civil Engineering at Carleton University, apprenticed as a timber-framer in South Korea, worked as structural inspector, wrote a thesis on BIM-BEM interworking, and co-led a team of graduate students to win a national Hackathon.

Mid-Rise Buildings

In the early 1900s, light-frame wood construction and heavy timber, up to ten-storeys in height, was commonplace in major cities throughout Canada. The longevity and continued appeal of these buildings types is apparent in the fact that many of them are still in use today. Over the past decade, there has been a revival in the use of wood for taller buildings in Canada, including mid-rise light-frame wood construction up to six-storeys in height.

Mid-rise light-frame wood construction is more than basic 2×4 framing and wood sheathing panels. Advances in wood science and building technology have resulted in stronger, safer, more sophisticated engineered building products and systems that are expanding the options for wood construction, and providing more choices for builders and designers. Modern mid-rise light-frame wood construction in incorporates well researched and safe solutions. The engineering design and technology that has been developed and brought to market is positioning Canada as a leader in the mid-rise wood-frame construction industry.

In 2009, via its provincial building codes, British Columbia became the first province in Canada to allow mid-rise buildings to be made from wood. Since this change to the British Columbia Building Code (BCBC), which increased the permissible height for wood frame residential buildings from four- to six-storeys, more than 300 of these structures have been completed or are underway with BC. In 2013 and 2015, Québec, Ontario, and Alberta, respectively, also moved to permit mid-rise wood-frame construction up to six-storeys in height. These regulatory changes indicate that there is clear market confidence in this type of construction.

Scientific evidence and independent research has shown that mid-rise wood-frame buildings can meet performance requirements in regard to structural integrity, fire safety, and life safety. That evidence has now also contributed to the addition of new prescriptive provisions for wood construction, as well as paved the way for future changes that will include more permissible uses and ultimately greater permissible heights for wood buildings. As a result of this research, and the successful implementation of many mid-rise wood-frame residential buildings, primarily in British Columbia and Ontario, the Canadian Commission on Building and Fire Codes (CCBFC) approved similar changes to the National Model Construction Codes. The 2015 edition of the National Building Code of Canada (NBC) permits the construction of six-storey residential, business, and personal services buildings using traditional combustible construction materials. The NBC changes recognize the advancements in wood products and building systems, as well as in fire detection, suppression, and containment systems.

In relation to mid-rise wood-frame buildings, several changes to the 2015 NBC are designed to further reduce the risks posed by fire, including:

  • increased use of automatic sprinklers in concealed areas in residential buildings;
  • increased use of sprinklers on balconies;
  • greater water supply for firefighting purposes; and
  • 90 percent noncombustible or limited-combustible exterior cladding on all storeys.

Most mid-rise wood-frame buildings are located in the core of smaller municipalities and in the inner suburbs of larger ones, offering economic and sustainability advantages. Mid-rise wood-frame construction supports the goals of many municipalities; densification, affordable housing to accommodate a growing population, sustainability in the built environment and resilient communities.

Many of these buildings have employed light-frame wood construction from the ground up, with a five- or six-storey wood-frame structure being constructed on a concrete slab-on-grade, or on top of a concrete basement parking garage; others have been constructed above one- or two-storeys of noncombustible commercial occupancy.

Mid-rise wood buildings are inherently more complex and involve the adaptation of structural and architectural details that address considerations related to structural, acoustic, thermal and fire performance design criteria. Several key aspects of design and construction that become more critical in this new generation of mid-rise wood buildings include:

  • increased potential for cumulative shrinkage and differential movement between different types of materials, as a result of the increased building height;
  • increased, dead, live, wind and seismic loads that are a consequence of taller building height;
  • requirements for continuous stacked shearwall layouts;
  • increased fire-resistance ratings for fire separations, as required for buildings of greater height and area;
  • ratings for sound transmission, as required for buildings of multi-family residential occupancy, as well as other uses;
  • potential for longer exposure to the elements during construction;
  • mitigation of risk related to fire during construction; and
  • modified construction sequencing and coordination, resulting from the employment of prefabrication technologies and processes.

There are many alternative approaches and solutions to these new design and construction considerations that are associated with mid-rise wood construction systems. Reference publications produced by the Canadian Wood Council provide more detailed discussion, case studies and details for mid-rise design and construction techniques.

 

For further information, refer to the following resources:

Mid-Rise Best Practice Guide (Canadian Wood Council)

2015 Reference Guide: Mid-Rise Wood Construction in the Ontario Building Code (Canadian Wood Council)

Mid-Rise 2.0 – Innovative Approaches to Mid-Rise Wood Frame Construction (Canadian Wood Council)

Mid-Rise Construction in British Columbia (Canadian Wood Council)

National Building Code of Canada

Wood Design Manual (Canadian Wood Council)

CSA O86 Engineering design in wood

Wood for Mid-Rise Construction (Wood WORKS! Atlantic)

Fire Safety and Security: A Technical Note on Fire Safety and Security on Construction Sites in British Columbia/Ontario (Canadian Wood Council)

Considerations in the Design & Prefabrication of Mass Timber Buildings for Architects

Resource Description

This resource is intended to provide educators with a clear framework for teaching the principles of mass timber design and prefabrication. The content is organized into four modules that highlight foundational knowledge, technical design considerations, early construction strategies, and sustainability. Together, these modules support students in developing a holistic understanding of how mass timber projects are conceived, designed, and delivered.

  • Module 1 – Introduction & Project Planning Provides an overview of mass timber, highlights the advantages of prefabrication, and outlines key early-stage considerations for optimizing design.
  • Module 2 – Design Optimization Considerations Explores critical aspects of design including structural performance, fire protection, acoustics, and vibration.
  • Module 3 – Early Construction Strategies Focuses on Building Information Modeling (BIM), Design for Manufacture and Assembly (DfMA), systems integration, and best practices for building envelope and moisture management.
  • Module 4 – Life Cycle Assessment (LCA) Examines the importance of carbon accounting, introduces available LCA tools, and discusses broader sustainability and biophilia considerations.

Acknowledgments

Canadian Wood Council

Usage and Citation Guidelines

These teaching materials were developed by university professors with funding support from the Canadian Wood Council. The content is provided free of charge for teaching and educational purposes only. Any commercial use, redistribution, or modification outside of academic teaching is strictly prohibited.

When using these resources in any context that requires citation, please use the format below.

Author(s). (Year). Title of module [Teaching Module]. Funded and published by the Canadian Wood Council.

Environmental product declarations (EPDs)

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

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:

Mountain Equipment Co-op Head Office – Vancouver, BC

Mountain Equipment Co-op (MEC) is one of Canada’s most progressive retailers, having embraced a philosophy of corporate, social and environmental responsibility since its creation in 1971.

Not simply a retailer, MEC engages in its own research and product development to ensure that it remains on the leading edge of sustainable practice. As early as 1994, MEC began manufacturing clothing using polyester fleece made from recycled pop bottles.

In the same year, anticipating a period of rapid expansion, MEC began to look seriously at the environmental impacts of its building program. Its board of directors endorsed a policy requiring environmental consultation for the construction and renovation of new and existing facilities. From modest beginnings, the outdoor retail cooperative now has over four million members and annual sales of more than $300 million.

With each new building project, MEC has endeavoured to advance its own sustainability agenda, and in this respect wood has played an important role. In 2002, the MEC Ottawa store was constructed largely from heavy timber salvaged from an existing building on the site; in 2008, the Burlington store was designed with a completely demountable heavy timber structure that earned it a Leadership in Energy and Environmental Design (LEED) credit for innovation; and in 2013, the North Vancouver store, another building in which wood features prominently, received a Canadian Green Building Award for its comprehensive approach to sustainability.

How We Will Make Construction More Affordable

Course Overview

Follow a panel of leading developers as they explore innovative strategies to reduce construction costs. Drawing from their extensive portfolios, the panelists will discuss offsite manufacturing, prefabrication, hybrid construction, and repeatable solutions that are transforming the construction industry. Discover practical approaches that streamline project delivery and drive affordability in future developments.

Learning Objectives

  1. Identify strategies used to reduce construction costs through prefabrication, modular construction, and offsite manufacturing.
  2. Explain how hybrid wood systems, including CLT and lightweight panelized assemblies, are applied in mid-rise and multi-residential projects.
  3. Evaluate how standardization, repeatable building solutions, and factory-based production can improve housing affordability and project delivery efficiency.

Course Video

https://vimeo.com/1022284345

Speakers Bio

Samantha Eby
Executive Director
ReHousing

Samantha Eby is the Executive Director of ReHousing, a non-profit organization dedicated to housing creation through applied research, consultation, and education. Her work through ReHousing, developed in partnership with Michael Piper and Janna Levitt, was awarded the 2023 CMHC President’s Medal for Outstanding Housing Research. Samantha holds a Master of Architecture from the University of Toronto and a Bachelor of Architectural Studies from the University of Waterloo School of Architecture. As an architect and researcher, she explores the intersection of design, policy frameworks, and ownership models, focusing on their impact on housing projects. In 2020, she was awarded the Canada Council for the Arts Prix de Rome for Emerging Practitioners. Alongside her role at ReHousing, Samantha is a sessional instructor at the University of Toronto and an adjunct professor at the University of Waterloo School of Architecture.

Mike Maxwell
President
Maxwell Building Consultants

Mike was drawn to Waterloo for his degree from Laurier University and has seen local real estate development potential ever since. A combination of zoning bylaw rules, site data chart statistics and construction knowledge produce unique results for projects that he is involved with. He loves the math and the problem solving. In an advisory position with local governments, not-for-profit organizations, and CMHC, Mike has created strong partnerships to move the cause of affordable housing forward.

Tobias Oriwol
Senior Vice President, Investments
Tricon Residential

Tobias Oriwol is responsible for providing strategic oversight and day-to-day investment management for Tricon Residential’s Canadian purpose-built rental apartment platform, including sourcing new investment opportunities, acquisition execution, and capital raising. Prior to joining Tricon, Tobias worked at Forum Equity Partners in Toronto. Before that, he worked at Brookfield Asset Management, in both Toronto and New York, where he focused on residential housing investments and developments across market rate and affordable rental apartments, student housing, senior housing, and for-sale condominiums. Tobias has a Master’s degree in urban planning from Harvard University and an undergraduate degree in Urban Studies from Stanford University. He is also a two-time Canadian Olympian, having reached the semi-finals in both the 2008 and 2012 Summer Olympic Games.

Geoff Cape
CEO
Assembly Corp (previously R-Hauz)

For almost 35 years, Geoff Cape has been at the forefront of promoting urban innovation and environmental sustainability across diverse platforms. As CEO of Assembly Corp, Geoff has a long background in real estate and urban planning. Geoff began with a hammer, framing new builds and restoring century homes off the east coast at the age of 19. He has been a builder, planner, operator, and a long time advocate for sustainable cities, and green infrastructure. Geoff is most well known for starting Evergreen in 1991, and transforming the 42 acre site at Evergreen Brick Works in Toronto, into an internationally recognized centre for environmental excellence. Selected in 2018 as a Member of the Order of Canada, and in 1999 as “Top 40 Under 40”, Geoff has also been honoured with the Queen Elizabeth II Golden Jubilee Medal in recognition of “Canadians who have made outstanding and exemplary contributions to their communities or to Canada as a whole.” In 2007, Geoff won the prestigious Schwab Foundation’s “Social Entrepreneur of the Year” award. Geoff was founding Chair of the Sustainability Institute, past Board member of Sustainable Development Technology Canada, and the Peter F. Drucker Foundation Selection Committee. Geoff has been a regular participant and speaker at the World Economic Forum in Davos, Switzerland and on their “Future of Urban Development Advisory Board” and “Technology Pioneers Selection Committee”. Geoff is a Global Fellow of the Rockefeller Foundation. Geoff lives in the Annex neighbourhood in Toronto with his wife Valerie and three boys Toma, Ben and Sebastien, and cycles to work every day—even in blinding snow storms.

Vertical Additions: An innovative pathway to delivering more homes

Course Overview

Discover the innovative approach to housing supply undertaken by Pathway Non-Profit Community Developments Inc. of Peel. The Arbor Mill expansion sets a remarkable precedent for other non-profit affordable housing providers who want to build more housing and can do it by adding additional units on top of their existing buildings. Globally, it is estimated that approximately 20-25% of existing buildings can support a vertical addition in wood, which is a comparatively light weight building material. 

This novel approach removes the need to find new land to develop and has the added benefit of immediately integrating new residents into an existing supportive community. This project added 6 barrier-free, affordable apartments on top of a 35-year old, occupied residential building using prefabricated mass timber, delivering more affordable housing through the “gentle densification” of existing infrastructure. 

In this webinar, the project team will discuss the architectural, structural, and design challenges of the project, including blending prefabricated mass timber construction methods with an older structure built with conventional materials. Key sustainability and construction considerations will also be highlighted. Don’t miss this opportunity to gain valuable insights from one of the first project teams in North America to pursue this innovative approach to housing delivery. 

Learning Objectives

  1. Participants will learn how Pathway, a non-profit community developer in Peel Region, created a plan to expand its housing portfolio while addressing tenant needs and priorities.
  2. Participants will gain insights into the design and approval challenges of the project, including navigating site plan approvals, integrating mass timber, and meeting acoustic and fire safety requirements.
  3. Participants will understand the structural considerations for vertical expansions, which include performing load assessments and evaluating structural options.
  4. Participants will understand the mass timber fabricator’s process and the key considerations for successfully integrating prefabricated mass timber components into a project, including early involvement, securing production spots, and managing construction timelines.

Course Video

https://vimeo.com/1072356677

Speaker Bio

Roman Spektor
General Manager
Pathway Non-Profit Community Developments Inc. of Peel

Mechanical engineer by profession, Roman has been the General Manager of Pathway for over 25 years and has managed social housing projects for 35 years. Pathway Non-Profit Community Developments Inc. of Peel (Pathway) is an interfaith non-profit corporation that was incorporated in 1988. The Pathway organization is run by a volunteer board made up of members of the three founding congregations. Pathway owns and operates two apartment building in Mississauga constructed in the early 90s. Pathway’s two buildings, Forest Ridge and Arbour Mill, house 230 families and are funded by rental income and a government subsidy. 

Pathway has also created a separate management company and manages other non-profit housing communities. Roman has coordinated with the volunteer board on all aspects of management of the buildings including budgeting, capital work and project management. Through the creation of programs for the residents, Pathway has created inclusive communities where all residents feel welcome. 

Cathy Tafler, OAA
Partner
Tafler Rylett Architects 

Cathy has been a partner in the firm Tafler Rylett Architects since 1996 and is involved in all aspects of the firm’s work including client consultation, design, permit application, specifications and contract administration. Cathy is committed to producing thoughtful and environmentally responsible projects that are integrated with the surrounding landscape. The firm designs with a collaborative process, listening to their client’s requirements and budget and input from the surrounding community.

Cathy was chair of the OAA’s Committee on the Environment and is a member of the Toronto Alliance to End Homelessness (TAEH). The firm’s work includes supportive and affordable housing, offices, institutional and private residential projects. Major projects include supportive housing for Houselink Community Homes, offices for Doctors Without Borders, offices for the U of T Faculty Association, Tiny Treasure Montessori School and affordable housing for Pathway.

Craig Nicoletti, P.Eng.
Partner, Structural Engineer
Engineering Link Inc.

Craig is a Professional Engineer and Partner for the Structural Division at Engineering Link. He has been with Engineering Link since 2011 and brings more than 20 years of structural engineering expertise to his projects. During his tenure, Craig acquired a diverse portfolio of experience with wood projects that spans all sectors including commercial, recreational, industrial, hospitality, civic, and sporting facilities, in addition to heritage designated sites.

Stephen Balamut, B.Eng.
Project Manager
Element5

Stephen is a Civil Engineering Graduate of McMaster University. He began with Element5 as a designer and estimator, then moved into his current project manager position where he has overseen over 50 completed mass timber projects, from low- and mid-rise residential, to mixed-use and commercial. As a project manager, Stephen oversees the planning, coordination, and execution of Element5’s mass timber projects. He collaborates closely with architects, engineers, and contractors to ensure the structural integrity and sustainability of the mass timber components. Stephen is driven by a passion for contributing to sustainable projects that have a meaningful and lasting impact on people’s lives.

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