Online Tools for Wood Construction – CodeCHEK, FRR & STC & EMTC Calculator
Course Overview This presentation highlights the Canadian Wood Council’s suite of free, web-based fire design tools, CodeCHEK, FRR & STC Tool, and Exposed Mass Timber Calculator. CodeCHEK enables project teams to evaluate code-compliant opportunities for wood construction by assessing key building characteristics, such as height, area, sprinkler presence and more, highlighting potential pathways for alternative solutions, and clarifying where wood elements may be permitted in buildings otherwise required to be of noncombustible construction. The FRR & STC (fire-resistance rating & sound transmission class) Tool helps designers in the determination of generic fire-resistance rating designs of lightweight wood-frame wall, floor, and roof assemblies using the Component Additive Method described in Appendix D of the NBC, which is referenced as an acceptable solution in Section 3.1 of the NBC and can be used for Part 3 and 9 buildings. In addition, the tool provides the sound transmission class (STC) value that is associated with each wall or floor assembly for which STC information is available. The Exposed Mass Timber Calculator helps users assess whether mass timber compartment exposure/encapsulation designs align with the 2025 National Building Code of Canada provisions by evaluating compartment inputs against applicable criteria and generating warnings when configurations are not code-consistent, positioning it as a practical screening and learning aid that complements (but does not replace) detailed code analysis and professional judgment. Learning Objectives Evaluate code-compliant opportunities for wood construction using the CodeCHEK tool by analyzing key building parameters (e.g., height, area, and sprinklering) and identifying potential pathways for alternative solutions. Apply the FRR & STC Tool to design compliant assemblies by determining fire-resistance ratings and sound transmission performance of lightweight wood-frame wall, floor, and roof systems using the Component Additive Method. Assess mass timber exposure and encapsulation strategies using the Exposed Mass Timber Calculator to verify alignment with 2025 National Building Code of Canada provisions and support early-stage design decision-making. Course Video Speakers Bio Noah Fetterly Technical Specialist, Codes and Standards-Fire Canadian Wood Council Noah Fetterly is a Technical Specialist, Codes and Standards – Fire at the Canadian Wood Council (CWC), where he contributes technical expertise to national code development, fire safety research, and guidance for wood and mass timber construction. He holds a background in Fire Protection Engineering Technology, having graduated from Seneca College, and began his career working with fire alarm systems inspections and testing. At CWC, Noah supports technical communications, research initiatives, and industry tools related to fire performance and encapsulated mass timber construction, helping ensure alignment with the National Building Code of Canada and related standards. He is an active contributor to technical discussions involving fire safety, mass timber design, and regulatory compliance.
Scaling Housing With Prefabricated Timber: Regulations-Ready Mid-Rise Prototypes
Course Overview British Columbia faces an urgent housing shortage and mounting pressure to accelerate delivery of multi-unit housing. Recent code changes enabling mass timber up to 18 storeys create a unique opportunity to rethink how housing is designed, permitted, and built. This session will present findings from the Housing Growth Innovation Program’s Prefabricated Timber Housing Systems project. Attendees will learn how pre-engineered, regulations-ready modular timber prototypes can streamline design and approvals, reduce embodied carbon, and speed construction through off-site manufacturing. The session will share strategies for integrating computational design, compliance analytics, and supply-chain insights to create adaptable, scalable mid-rise housing solutions. Geared to architects, developers, policymakers, and builders, participants will gain insight into how prefabrication and digital tools can de-risk projects, reduce permitting delays, and accelerate the delivery of sustainable, affordable homes in B.C. and beyond. Learning Objectives Explain how pre-engineered, regulations-ready prefabricated timber systems can support faster delivery of mid-rise, multi-unit housing under recent B.C. code changes. Identify key structural, building-services, and envelope strategies used in modular mass timber housing prototypes to improve constructability, adaptability, and permitting certainty. Recognize how digital tools, computational design, compliance analytics, and supply-chain benchmarking, can de-risk housing projects and support scalable, low-carbon construction. Course Video Speakers Bio Adrian Watson Principal, Design Director Perkins&Will Adrian Watson is Principal and Design Director at Perkins&Will, where he leads complex, high-profile projects that integrate sustainability, innovation, and design excellence. With over 30 years of experience, Adrian has shaped award-winning buildings and master plans across sectors, including higher education, infrastructure, civic, and housing. In his role as Design Director for the Vancouver and Calgary studios, Adrian leads a team of over 160 architects and designers. He is committed to the development design processes that look to the future, whilst believing that design excellence is attained by doing simple things very well. Yann Tregoat Architect Perkins&Will Originally from France, Yann’s early career was spent in Amsterdam and Paris, working on the Paris 2024 Olympic Games Aquatic Centre. Through urban environment and professional exposure, he has developed a strong interest in mass timber and parametric design, as well as innovative sustainable building solutions. Since moving to Vancouver in 2021, he has worked on various mid-to-large-scale projects, from private development to civic buildings. He brings his own life and professional experience from Europe to his work while learning and further expanding his design expertise at Perkins&Will. Yann has two master’s degrees in both Architecture and Structural and Civil Engineering from the Institute of Applied Science of Strasbourg, France. Solomon Fung Associate Principal Introba Solomon Fung is an Associate Principal at the multidisciplinary engineering firm Introba. Based out of their Vancouver office, he brings 15 years of experience to the mechanical team with a diverse project portfolio including mid- and high-rise mixed-use residential buildings, affordable housing, commercial & office buildings, passive house design, and healthcare. With a keen interest in innovation, Solomon leads his team in pursuit of simple solutions that are replicable for the industry. Brent Olund Partner, Principal Credos Brent Olund is a Professional Engineer, a Gold Seal Project Manager, and holds an MBA from the Richard Ivey School of Business. Brent’s 28 years in the construction industry to date started with industrial, commercial, and marine construction and included many years of focus on residential concrete high-rises, educational buildings, and mass timber construction. Brent is a nationally recognized expert and thought leader in the field of planning and control of mass timber structures, has worked with design teams through validation of several upcoming mass timber building assembly systems, and has designed and patented a new lateral structural system for use in these buildings. Brent believes that the highest purpose of his efforts is helping solve the housing crisis by implementing building systems toward improved productivity of construction. Andrew Blackie Structural Designer ASPECT Structural Engineers Andrew enjoys a diverse engineering background, ranging from adaptive reuse of heritage buildings through to the development of modular construction systems. As a common thread across his body of work, he brings expertise in digital workflows and parametric design to deliver an efficient, modern form of building design. Andrew graduated with a Master’s in Structural & Architectural Engineering from the University of Strathclyde in 2016 and has since gained almost a decade of experience between the UK and Canada. He joined ASPECT in 2025, where he has been developing strategies to deploy mass timber at scale and at pace. Andrew’s focus is bridging the gap between conventional and off-site construction, easing the transition away from carbon-intensive materials through a kit-of-parts approach to building structures. Halil Erhan Professor of Interactive Systems and Design Director of Computational Design Lab SFU School of Interactive Arts and Technology Dr. Halil Erhan completed his undergraduate studies at Middle East Technical University (METU) before earning a master’s degree at Clemson University, where he specialized in integrating 3D models into building design. He received his Ph.D. in Design Computation from Carnegie Mellon University, with a focus on generating design requirements. Currently, Dr. Erhan serves as a professor at Simon Fraser University and leads the Computational Design Laboratory. His interdisciplinary research approaches design as a cognitive and collaborative problem-solving process, aiming to develop effective tools that enhance the capacities of creative practitioners. He and his team create and test innovative, human-centered computational design tools. Dr. Erhan founded a research initiative called “Design Analytics,” which uses data from Performance Predictions to facilitate design space exploration through interactive visualizations. He collaborates with industry partners to encourage the adoption of new tools in the AEC sector.
Tall Timber and Affordable Housing: A Case Study
Course Overview As cities face growing pressures around affordability, climate resilience, and livability, innovative projects like Catalyst’s 18-storey CLT rental development in North Vancouver offer necessary solutions. Targeted toward architects, engineers, developers, and municipal leaders, this session explores sustainable mass timber construction and affordable housing. Attendees will gain insights into using CLT in construction and the unique challenges. In-depth review of challenges such as structural grid constraints, moisture protection, and prefabricated balcony systems, and how the team transformed these into creative solutions. Furthermore, it will provide insight into integrated mixed-use programming, BIM-enhanced coordination, and the permitting process for tall wood buildings, with practical takeaways for implementing similar projects in other cities. Learning Objectives Identify how and why hybridization is commonly required at height when it comes to mass timber buildings. Explain key technical constraints and solutions for tall CLT buildings, including structural grid/panelization limits, diaphragm load paths to the core, rolling shear considerations, and balcony-to-envelope integration strategies. Apply practical construction and coordination lessons for tall mass timber—moisture management, prefabricated enclosure sequencing, BIM-based clash detection, and early supplier/contractor involvement—to reduce risk and protect the CLT during construction. Course Video Speakers Bio Rhys Leitch Principal Integra Architecture Inc. Rhys Leitch has been a principal at Integra since 2018, he has worked on award-winning projects ranging from sustainable design, high-end single-family, multi-family, and mixed-use residential developments. Originally from Australia, Rhys brings a unique approach to contemporary west coast architecture, paying special attention to the way materials, massing, and design respond to the context of a site. Recently his focus has been CLT mid and high rise projects, pushing the boundaries in different mass timber housing typologies. Sean Binns Project Director Kindred Construction Sean is a proven construction leader with over 20 years of experience delivering major residential and commercial projects across the UK and Canada. As Project Director at Kindred Construction, he leads complex builds and champions innovation in mass timber, Passive House, and modular construction. A mentor and speaker, Sean fosters industry talent through strong partnerships with local universities. Harrison Glotman Principal Glotman Simpson Consulting Engineers Harrison Glotman is a Principal at Glotman Simpson with several years of experience working on complex projects across Canada and the U.S. Prior to joining Glotman Simpson, Harrison worked on high-end homes and retrofits in some of the most iconic buildings in New York and San Francisco. He completed his Master of Science in Structural Engineering with a full scholarship to Stanford University where he specialized in seismic engineering. The knowledge gained through this degree has proven to be incredibly valuable in building design on the West Coast.
Custom Steel Connections for Mass Timber: Understanding the Basics Step by Step
Course Overview As mass timber construction continues to grow in popularity, understanding how structural connections work is essential for anyone involved in the design and construction process. This course introduces custom steel hangers as a practical and flexible solution for connecting timber beams and columns, explaining why they are sometimes preferred over off-the-shelf options. Using clear, visual examples, participants will be guided through how forces travel through a connection, what needs to be checked to ensure safety, and how factors like fire performance and moisture are considered in real projects. No advanced engineering background is required to follow along and gain valuable insight into this important aspect of mass timber design. Learning Objectives Explain the difference between predesigned and custom steel hangers, and describe situations where a custom connection offers practical advantages in mass timber construction. Describe in plain terms how structural loads travel through a steel hanger assembly, from the supported beam through to the primary supporting member. Recognize why eccentricity occurs in hanger connections and understand, at a conceptual level, how it affects the design of the surrounding structure. Identify key real-world considerations for custom steel connections in mass timber, including fire protection strategies and the importance of accounting for wood shrinkage. Course Video Speakers Bio Patrick Geers Senior Structural Designer & Head of Quality Control Western Archrib Patrick Geers brings over 24 years of expertise in mass timber engineering to his role at Western Archrib, where he leads the design of innovative structural systems and maintains the company’s exceptional quality standards. A passionate carpenter with degrees from both Canadian and German institutions, Patrick combines hands-on craftsmanship with advanced engineering knowledge. His international career spans positions in Austria and Germany, providing him with unique cross-cultural perspectives on structural design and community-centered architecture. Patrick currently serves on multiple technical committees including the CSA 086 Committee for Wood Design Standards and acts as an industry advisor to the ARTS group at the University of Alberta. His work focuses on creating sustainable structures that navigate challenging environments while connecting communities. Through his leadership in both technical innovation and quality assurance, Patrick continues to advance the possibilities of mass timber construction for buildings that serve as community anchors and exemplars of sustainable design.
Scaling Affordable Rental Housing with Tall Mass Timber
Course Overview As cities face growing pressures around affordability, climate resilience and livability, innovative projects like Catalyst’s 18-storey CLT rental development in North Vancouver offer necessary solutions. Targeted toward architects, engineers, developers and municipal leaders this session explores mass timber construction as an affordable housing solution. Attendees will gain insight into the use of CLT in construction and the associated challenges, including structural grid constraints, moisture protection, and prefabricated balcony systems. The session will also highlight how the project achieved near cost parity with comparable concrete buildings, integrated mixed-use programming, and leveraged BIM to support coordination and the permitting process. Participants will leave with practical takeaways for applying these approaches to similar projects in other cities. Learning Objectives Understand how tall mass timber hybrid systems can support affordable and mixed-use housing Identify key architectural, structural, and construction challenges unique to CLT buildings Learn practical strategies for permitting, procurement, coordination, and construction Course Video Speakers Bio Annabelle Hamilton Executive Director WoodWorks BC Harrison Glotman Principal Glotman Simpson Consulting Engineers Rhys Leitch Principal Integra Architecture Inc. Sean Binns Project Director Kindred Construction
Early Mass Timber Collaboration: A Journey from Design Assists Pre-Construction through Construction
Course Overview In this session attendees will be taken through the evolution of the mass timber structure design for the Sam Centre at the Calgary Stampede. We will explore the varied forms of collaboration from design and pre-construction through construction to completion. During the talk the value of collaboration will be examined from a design assist trade to the early onboarding of a mass timber erector, to the engagement of a mass timber specialists examining topics from erection tolerances to moisture and construction protection, to storage procedures, to fire retardant impregnation, and the aesthetic and performance outcome of each. Particular attention will be paid to how the process of collaboration at the various stages aided the design and successful execution of the mass timber connection details. A tour of the project could also be offered given its proximity to the conference. The Sam Centre is a year-round immersive experience that brings the ‘world of the Calgary Stampede’ – past, present and future – to life through technology, story-making, and Western hospitality. The use of Mass timber was a key strategy in connecting to the history of the Stampede and its historic structures. Sam Centre is a linear volume characterized by a large horizontal pitched roof. The structure uses a repetitive hybrid steel frame with exposed mass timber beams and a Nail Laminated Timber Roof Deck, adding warmth to the interior and creating a distinct profile offering a modern yet durable nod to traditional barn construction. Creating deep overhanging soffits which mitigate heating and cooling loads, the roof also evokes the welcoming verandahs of traditional Alberta architecture. Learning Objectives Learn how design assist supported the design of the mass timber connections and how those details would be built to ensure the structure was built efficiently and effectively. Learn about the importance of bringing on a mass timber erector early in the design process to ensure that the construction system and any tolerances required are correctly captured in drawings. Understand the value of a collaborative approach between design team, consultants, trades, and building science team to ensure all facets of mass timber construction are noted across project phases. Course Video Speakers Bio Jeff Geldart, AAA, OAA Associate Diamond Schmitt Jeff Geldart believes having a thorough understanding of the client’s goals and objectives is critical to developing a design that best meets their needs and expectations. That understanding becomes the root of any great piece of architecture. If the building does not meet the needs of its occupants, then the rest is superfluous. Throughout his professional career Jeff has worked with both institutional and private sector clients. Some of his more notable institutional projects have included work with Wentworth County and Canada’s Department of Foreign Affairs and International Trade. One Developments, Lifetime Developments and Kylemore Communities are among his residential accomplishments. This broad and range of experience has allowed him to enhance his drive for achieving design excellence while at the same time rigorously working to consistently meet schedules, budgets, and ultimately project execution. Jeff demonstrates a phenomenal capability technically, aesthetically, and managerially on his projects. Since joining Diamond Schmitt in 2019, Jeff has worked as the Senior Architect on the Ottawa Public Library and Library Archives Canada Joint Facility and the Okotoks Arts and Learning Campus in Alberta. Jeff is currently based in Calgary. Mark Grimes, P.Eng, PMP Senior Project Manager EllisDon Mark Grimes is a Senior Project Manager at EllisDon, originally graduating from Trinity College Dublin with a degree in Civil and Structural Engineering – Mark moved to Canada in 2010 and has spent the last 15 years working primarily in Alberta on a wide range of projects ranging from highrise tower construction to luxury hydrotherapy spas.
Branching Traditions: Innovative Mass Timber in Indigenous Inspired Architecture
Course Overview Discover the transformative vision of Saskatoon’s New Central Library, a 150,000-square-foot, four-story beacon anchoring downtown’s northern edge. Inspired by Métis and Indigenous cultures, this community living room echoes the South Saskatchewan River’s rhythms, blending organic forms to connect urban vitality with the prairie landscape. As a place of healing and inclusiveness, it sparks renewal with a south-facing plaza featuring river-inspired flora for community events and a northern Indigenous landscape. This project honours the land’s stewards, fostering a welcoming hub that celebrates Saskatoon’s diverse heritage and unites all in shared cultural expression. Dive into the mass timber innovations of Saskatoon’s New Central Library in the lecture “Branching Traditions,” evoking leaf-like five-ply CLT floor plates radiating outward, distributing services via a central spine supported by a concrete core for rigidity. Explore value engineering evolution, overcoming manufacturing constraints, shipping logistics, and broad CLT floor plates without shear walls for concise structure. Celebrate adapting timber to cultural geometries, inspiring architects and engineers with sustainable, expressive insights honoring Indigenous and Métis heritage. Learning Objectives Integration of cultural expression within the rigid limitations of mass timber. Designing mass timber structures under manufacturing and shipping logistics restraints. Developing design strategies for a CLT and glulam column-and-beam system in organic architecture. Course Video Speakers Bio Alfred Waugh, Architect AIBC, AAA, OAA, SAA, FRAIC, AIA Owner, Principal Formline Architecture + Urbanism Waugh’s diverse and innovative designs have prompted national acclaim as one of the most inventive Canadian architects of his generation. As project designer for Busby Perkins Will, his Nicola Valley Institute of Technology project won a Governor-General’s Medal for architecture in 2004. Both the 2009 Squamish Lil’Wat Cultural Centre in Whistler and the 2010 First Peoples House on the University of Victoria campus have inspired locals and visitors from all backgrounds with their strong form-making and gracious interiors. Alfred Waugh is one of the few Indigenous Architects in Canada. His firm Formline Architecture + Urbanism is leading the way in defining contemporary Indigenous Architecture. His stature within Indigenous and academic communities was proven receiving a Governor-General’s Medal for the 2017 Indian Residential School History and Dialogue Centre (IRSHDC) at the heart of the University of British Columbia campus. This leading directly to his current work on the Indigenous House for the Scarborough campus of the University of Toronto and the New Central Library for Saskatoon. IRSHDC has been lauded for its integration of building and landscape, the symbolic uses of materials such as copper, and its rising to the challenge of a contemporary Indigenous design, without making specific architectural reference to any one of Canada’s many and diverse First Nations. Waugh’s creativity and independence are born of his background and education. Born in Yellowknife, Waugh enjoyed summers fishing and hunting on the East Arm of Great Slave Lake. His father, who is of English heritage, is a retired prospector, while his mother, who’s family originated in northern Saskatchewan, is a registered member of the Fond Du lac Denesuline First Nation. Waugh has an undergraduate degree in Urban and Regional Planning from the University of Lethbridge. Graduating with honours, he is the first Full Status person to graduate from UBC’s School of Architecture.
Unlocking Affordable Timber Innovations in Structure, Prefabrication, and Code
Course Overview Bond Tower is a 7-storey mixed-use prototype that asks a critical question: how can mass timber be made cost-effective in the Prairies, where supply chains are limited, demand is low, and timber construction is often reserved for flagship projects. Funded by the Green Construction through Wood Program from Natural Resources Canada, the project develops both prototypes and a built demonstration to advance affordable timber solutions in a region underserved by the current market. The design leverages nail-laminated timber (NLT) as its primary system, applied in diagrid trusses, floor assemblies, and shear walls. NLT presents a cost-effective alternative to other manufactured products and provides great versatility due to its custom nature. Lateral and gravity-induced forces are carried by a diagrid timber truss fabricated from readily available dimensional lumber and using simple mechanical fasteners. Floor assemblies comprised of NLT are constructed without a concrete topping or proprietary sound attenuation systems, reducing both cost and embodied carbon. Prefabricated wall panels, stairs, and modular service pods further minimize waste and construction time. Another challenge lies in building code classification. Currently, all structures above six storeys are deemed high-rise, requiring costly and difficult to achieve [in timber] two-hour fire-resistance ratings and fire-safety systems. The Bond Tower design team, working with code consultants, is developing an alternative solution that leverages the inherent 1.25-hour FRR of NLT floor assemblies. This approach suggests a pathway toward a new mid-rise category, making timber projects of seven or eight storeys more financially viable. Alongside a single-stair configuration, which can increase efficiency by reducing non-rentable floor area, these strategies point to a replicable model for affordable timber construction across Canada. Learning Objectives Learn how NLT and prefabrication strategies can reduce cost, waste, and construction time, making timber more feasible in the Prairies. Explore structural detailing approaches that simplify connections and reduce cost, while addressing fire, durability, and acoustic performance in timber design. Examine how alternative solutions can improve the financial feasibility of 6–8 storey timber projects and support broader code updates across Canada. Course Video Speakers Bio Sasa Radulovic, AIBC MAA OAA SAA AAA NSAA FRAIC LEED AP Partner, Architect 5468796 Architecture Sasa Radulovic co-founded the Winnipeg-based practice 5468796 Architecture with Johanna Hurme in 2007. A talented designer, Sasa guides the office in seeking projects that explore density, affordability, and sustainability through non-traditional means and a dynamic design approach. Recent institutional appointments include Visiting Professor-Morgenstern Chair with the Faculty of Architecture at the Illinois Institute of Technology in Chicago. Ken Borton, MAA RAIC Principal 5468796 Architecture Oliver Brandt, P.Eng Associate Fast + Epp
FRAMEWORK for Success: Prefabricated Wood Systems and Design Innovation
Course Overview This presentation explores the transformative impact of prefabricated light wood frame construction systems in multi-residential development, focusing on VanMar’s FRAMEWORK methodology and its application in the new 150 Wissler Road project in Waterloo. FRAMEWORK is a highly efficient, panelized light wood frame system designed for buildings up to six storeys, delivering rapid, sustainable, and cost-effective construction that meets and exceeds energy and greenhouse gas reduction targets. The session will highlight VanMar’s extensive experience in affordable housing, the advantages of offsite prefabrication, and the collaborative process that accelerates project delivery. Learning Objectives Participants will understand the benefits of prefabricated wood frame construction for multi-residential buildings. Participants will understand the FRAMEWORK system’s approach to speed, cost-effectiveness, and sustainability. Participants will be shown how collaborative offsite construction methods accelerated the 150 Wissler Road project. Participants will learn strategies for overcoming design challenges and achieving efficiencies in fire walls, shafts, and acoustics. Course Video Speakers Bio Jordan Zekveld Director of Preconstruction VanMar Constrcutors ON Jordan is a construction and development professional with deep experience in estimating, preconstruction, and cost strategy for multi-unit residential projects. At VanMar Constructors, he helps developers, REITs, and non-profits bring condominium, rental, and affordable housing projects from concept to construction. Drawing on VanMar’s integrated design-build expertise, Jordan leads collaborative preconstruction processes that align design intent, feasibility, and cost efficiency. His experience spans concrete high-rise and innovative mid-rise wood-frame developments, including the Framework system — VanMar’s sustainable, fast, and cost-effective building solution. With a focus on clarity, constructability, and long-term value, Jordan works at the intersection of planning, design, and execution to help deliver housing that’s efficient, affordable, and built to last. Mike Philips Executive Director Ontario Structural Wood Association (OSWA) Mike Phillips has served as Executive Director of OSWA since 2008. Under his leadership, the association has evolved from a truss-fabricator-focused group into Ontario’s leading voice for structural wood component manufacturing. Today, the province is home to 70 certified truss plants and 40 wood-panel manufacturers, with engineered wood products now the preferred choice for floor systems. At the same time, Ontario’s building code has never been more prepared to accommodate advanced wood-construction methods. Mike is a strong advocate for the industrialization of construction and the expanding role of off-site building systems—critical drivers of wood construction’s future growth. Paul Marchesani Operations Manager Panelized Building Solutions Inc. Paul Marchesani is the Vice President of Panelized Building Solutions Inc., a family run business where he plays a key leadership role in driving operational excellence, strategic growth, and project execution across the company. Known for his strong work ethic, hands-on approach, and deep industry knowledge, Paul oversees day-to-day operations while supporting long-term planning that aligns with the company’s vision. Before joining Panelized Building Solutions, Paul held key roles in project management and operations within manufacturing and construction environments, where he oversaw production teams, implemented process improvements, and helped streamline workflow efficiencies. His ability to manage both people and complex technical projects made him a natural fit for leadership. Respected by colleagues, clients, and trade partners alike, Paul combines technical expertise with strong leadership, making him an essential pillar of the company’s continued success.
Halsa 230 Royal York: Ontario’s Tallest Mass Timber Residential Building
Course Overview Halsa 230 Royal York is setting new standards as Toronto’s pioneering 9-storey prefabricated mass timber rental building, demonstrating the viability of carbon-neutral communities within Toronto’s Right of Way zoning. Through a case study of the building, this session will present the advantages of integrated design and prefabricated mass timber building systems components. Learning Objectives Explain the integrated design and prefabrication strategies used in mass timber residential construction: Learners will be able to describe how collaborative design, advanced manufacturing, and prefabricated building systems contribute to project efficiency, quality, and scalability. Analyze the technical features and performance benefits of mass timber floor cassettes and curtain wall systems: Learners will understand the structural, acoustic, fire resistance, and thermal properties of the building’s mass timber components, and how these features address common challenges in high-rise construction. Evaluate the sustainability, regulatory, and operational considerations in developing carbon-neutral mass timber buildings: Learners will assess how material sourcing, certification, lifecycle carbon analysis, and code compliance shape the viability and impact of mass timber projects in urban environments. Course Video Speakers Bio Oliver Lang Co-Founder, Chief Product Officer, Intelligent City Co-Founder, Principal, LWPAC Oliver Lang is a German-Canadian architect and urban entrepreneur with 25+ years of experience and a recognized leader in design innovation and integration of complex urban projects, mixed-use housing, advanced prefabrication, and green building strategies. He is a graduate of Columbia University’s Graduate School of Architecture Planning and Preservation, with a Master of Science in Advanced Architectural Design, and he holds a professional degree (Diplom-Ingenieur Architektur) from the University of Technology Berlin with two-year studies at the ETSA Barcelona UPC. Prior to founding LWPAC in 1998, Oliver researched and practiced in digitally assisted design and fabrication with Smith-Miller & Hawkinson in New York, while teaching digital design at Princeton University, Columbia University, and University of Pennsylvania. He subsequently has taught advanced design and digital technology at SCI_ARC, the Berlage Institute, TU Berlin, UTF Santa Maria, and University of British Columbia (UBC). Shawn Keyes VP – Strategic Growth and Business Development Intelligent City Shawn is a structural engineer and commercial executive with more than a decade of experience leading innovation in mass timber and industrialized construction. As Vice President of Strategic Growth at Intelligent City, he leads commercialization, market strategy, and partnerships to scale the company’s prefabricated housing systems. Previously, Shawn served as Executive Director of WoodWorks BC, where he led a strategic transformation that strengthened partnerships, technical leadership, and influence across the development, AEC, and policy sectors. Before that, he spent over six years at Fast + Epp as a Senior Structural Engineer, developing deep technical expertise. Over his career, Shawn has supported more than 150 mass timber and hybrid projects across Canada, and has served on advisory councils for BC Housing, BCIT, the BC Office of Mass Timber Implementation, Forestry Innovation Investment, and Natural Resources Canada. He holds an MBA from UBC Sauder, a Master of Engineering from Carleton University, and is a licensed Professional Engineer in BC and Ontario.
Mass Timber Economics: Why One Line Item Doesn’t Tell the Whole Story
Course Overview Mass timber buildings are often perceived as premium projects, but assumptions based on a single cost line can be misleading. This session explores the complexities of costing mass timber construction and highlights why a holistic, team-based approach is essential from the earliest stages of design. Attendees will gain insights into common pitfalls for cost consultants and learn how early architectural decisions such as grid spacing and aesthetic goals can significantly influence both cost and structural efficiency. The speakers will emphasize the importance of clear project objectives when setting the initial budget and outline best practices for cost predictability, including robust scope management, design reviews, and obtaining competitive bids from multiple timber suppliers. The session will also examine the role of architects in informing cost decisions, strategies for improved procurement and scheduling, and how to leverage mass timber’s expedited on-site phase. Learning Objectives Understand the complexities of mass timber costing: Participants will be able to explain why relying on a single cost line item is misleading and identify key factors—such as grid spacing and aesthetic goals—that influence overall project cost and structural efficiency. Apply best practices for cost predictability in mass timber projects: Learners will be able to outline strategies for achieving accurate budgets, including robust scope management, design reviews, and obtaining competitive bids from multiple timber suppliers. Recognize the role of collaboration in successful mass timber delivery: Attendees will be able to describe how architects, developers, and contractors can work together from early design stages to improve procurement, scheduling, and leverage mass timber’s expedited on-site phase. Course Video Speakers Bio Marlon Bray Executive Vice President Clark Construction Management Inc. Mass timber buildings are often perceived as premium projects, but assumptions based on a single cost line can be misleading. This session explores the complexities of costing mass timber construction and highlights why a holistic, team-based approach is essential from the earliest stages of design. Attendees will gain insights into common pitfalls for cost consultants and learn how early architectural decisions such as grid spacing and aesthetic goals can significantly influence both cost and structural efficiency. The speakers will emphasize the importance of clear project objectives when setting the initial budget and outline best practices for cost predictability, including robust scope management, design reviews, and obtaining competitive bids from multiple timber suppliers. The session will also examine the role of architects in informing cost decisions, strategies for improved procurement and scheduling, and how to leverage mass timber’s expedited on-site phase. Mathieu Fleury Partner Leader Lane Developments Mathieu combines a merchant developer mentality with institutional discipline to drive Leader Lane Developments’ ambitious urban projects. He holds a Masters in Real Estate Finance from The University of Cambridge and has over 15 years of experience with industry leaders, including Loblaw Properties Limited, Great Gulf, and Dream Unlimited. Over the course of his career, Mathieu has shaped over 15,000 residential units and 7 million square feet of development across Canada. With his entrepreneurial spirit and analytical mindset, he steers Leader Lane’s growth in Toronto’s dynamic mid-rise sector. Mathieu’s strategic leadership ensures each project balances innovation with strong financial performance, delivering communities that enhance the urban experience while maximizing investor value. Jonathan King Principal BNKC Architects Inc. An architect and design leader with nearly 30 years of experience, Jonathan has worked across the full spectrum of residential, institutional, and cultural projects across Canada—from university buildings and theatres to large-scale multi-residential developments. He’s led teams at firms such as Diamond and Schmitt, HOK, and Core Architects, and is now a Principal at BNKC, where he helps steer complex projects from early concept through to completion. Jonathan’s recent work has included multiple mid- and high-rise residential and commercial buildings that integrate new construction technologies—including hybrid and mass timber structures—within tight urban contexts. His background brings a deep understanding of how codes, construction logistics, and market realities shape design decisions. He’s particularly interested in how architects can help unlock the potential of mass timber by working more collaboratively with clients, engineers, and municipalities to address the barriers standing.
Design Best Practices for Mid-Rise Light Wood Frame Structures
Course Overview Light wood frame (LWF) construction is an accessible, cost-effective, low-carbon solution for mid-rise multi-family buildings. This session will clarify fundamental differences in approach between traditional low-rise LWF construction and modern mid-rise construction methods. LWF is an attractive option for mid-rise development and participants will gain practical insights into design efficiencies, from meeting seismic demands and other key structural considerations to how engineered wood products and specialty hardware can be used to optimize design. The session will also explore prefabrication strategies, highlighting the challenges and opportunities offsite construction presents for streamlined, higher-quality construction. Whether attendees are new to mid-rise wood design or looking to optimize their next project, this session will share valuable information they can apply to their next mid-rise building. Learning Objectives Distinguish key differences between traditional low-rise and modern mid-rise light wood frame construction, including changes in design loads, seismic requirements, and code updates. Apply practical design strategies to optimize mid-rise wood structures—such as efficient stacked framing, engineered wood products, specialty hardware, and solutions for wood shrinkage and differential movement. Evaluate prefabrication and offsite construction methods for mid-rise projects, identifying both challenges and opportunities to improve construction quality, speed, and coordination. Course Video Speakers Bio Sean Henry Director – Mid-Rise, Principal Tacoma Engineers Sean is the Director of Mid-Rise and a Principal at Tacoma Engineers, bringing 20 years of structural engineering experience to the role. Since joining the firm in 2005, Sean has led the design of a wide range of building types, with a particular focus on mid-rise developments including multi-family, seniors and affordable housing projects. He is especially recognized for his expertise in light wood frame construction with multiple projects designed and built since the adoption of 6 storey wood framed buildings in Ontario. He also has extensive experience with cold-formed steel, structural steel, reinforced concrete, precast, and concrete block building systems. Sean focuses on delivering practical, efficient structural solutions that support design intent while meeting the demands of constructability and cost-effectiveness.
