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Courses/Structural/Construction

Steel's New Design Load: Managing Embodied Carbon in Modern Construction

Master actionable strategies to quantify, specify, and reduce embodied carbon in structural steel projects without compromising structural performance.

Created byScott Norris
BeginnerUpdated Oct 14, 2026
Steel's New Design Load: Managing Embodied Carbon in Modern Construction

What You'll Learn

check_circleUnderstand the role of embodied carbon in steel design, procurement, and project delivery
check_circleAssess embodied carbon information using Environmental Product Declarations (EPDs) and related reporting tools
check_circleApply material-efficient design strategies that reduce carbon impacts while maintaining structural performance
check_circleEvaluate low-carbon steel supply options and their implications for project outcomes
check_circleIdentify opportunities to incorporate reuse, lifecycle thinking, and carbon reduction strategies into steel projects

About This Course

Low-carbon design is becoming an increasingly important consideration in Canadian construction projects as embodied carbon requirements move from sustainability initiatives into procurement and project delivery frameworks. Structural engineers are now expected to consider not only strength, serviceability, and constructability, but also the carbon impacts associated with material selection, fabrication methods, and procurement decisions. As public and private sector clients place greater emphasis on emissions reporting and reduction targets, embodied carbon is becoming a key project performance metric.

This course examines practical approaches to designing and specifying low-carbon steel structures in Canada. Participants will explore how embodied carbon can be assessed using Environmental Product Declarations (EPDs), how material-efficient design strategies can reduce emissions without compromising performance, and how procurement and specification decisions influence project outcomes. The session also considers emerging low-carbon steel supply options, reuse opportunities, and lifecycle assessment approaches, providing a practical framework for integrating embodied carbon considerations into everyday structural engineering practice.

Key Topics Discussed:

  • Embodied carbon in structural steel projects
  • Environmental Product Declarations (EPDs) and carbon reporting
  • Material-efficient design and structural optimisation
  • Steel procurement and embodied carbon considerations
  • Electric arc furnace steel and recycled-content materials
  • Emerging low-emission steel production methods
  • Design for reuse and deconstruction
  • Whole-building lifecycle assessment principles
  • Carbon reduction through specification development
  • Balancing sustainability, constructability, and performance
  • Documentation and compliance requirements
  • Practical applications in buildings and infrastructure projects

Your Instructor

Scott Norris
Scott Norris

Director of Engineering Solutions | Steelcon

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Scott Norris, P.Eng., is the Director of Engineering Solutions at Steelcon, where he is dedicated to driving innovative structural steel engineering solutions for complex construction projects. A licensed Professional Engineer with Professional Engineers Ontario, he brings expertise in structural design, project delivery, and engineering collaboration, helping clients deliver efficient, practical, and high-quality outcomes across the built environment.

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We are a registered provider with 327+ associations and regulatory bodies worldwide. We operate across 29 global markets including Canada, the US, Australia, and the UK. Every course page clearly displays its specific accreditations. Upon completion, you receive a professional certificate that can be validated online. Our certificates include all necessary accreditation details, credit hours, and completion dates, and are formatted specifically to meet the submission requirements of most global regulatory bodies.

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