This module series can be used within a 3rd or 4th year steel design course, it is a condensed version of the full 10-lecture undergraduate wood design course. The module series requires approximately 4 50-minute lectures.
Complete undergraduate timber engineering course that includes 10 updated lectures with transcribed lecture notes and lecture recordings.
1. Curriculum development forms for launching a standalone course (CLO and Graduate Attributes are defined) as per CEAB requirements
2. 4 sample assignments
3. Test Bank (Sampling of Multiple Choice and SA/LA Questions)
4. Detailing for Bending Lab
8-lecture module designed to create the foundational understanding of the complexity and importance of Thermodynamics and Hydrodynamics in wood buildings. Significantly increased energy efficiency requirements and an increasing demand for taller and larger wood buildings will change the methods of construction over the next few years and prefabrication will alter the envelope component assemblies. The material is therefore tailored to focus on thermally high performing envelope assemblies, sufficient air tightness, and modern manufacturing methods such as prefabrication. The module is equally focused on NBCC division 5 and 9. Includes slide deck, lecture notes, and sample questions.
Wood Bridge Design example complete with calculations and drawings. Glulam deck on glulam girder traffic bridge design based on example previously published in the Ontario Wood Bridge Reference Guide. Includes discussion on design and durability considerations.
Introduction to wood design standard CSA O86-14. Discusses types of loads, load combinations, limit states design for ultimate and serviceability limit states. Includes example.
Discusses sawn lumber production and grading, panel products, and engineered wood products (EWP) including glulam, structural composite lumber, CLT and other mass timber products. Applications and design consideration are also discussed.
Discusses lateral load resisting systems for vertical and horizontal bracing. Includes performance of wood frame construction, understanding load paths, and design of light wood frame lateral load assemblies.
Discusses physical properties including density, moisture content, cellular structure of wood, and shrinkage. In addition to mechanical properties including strength and stiffness, behavior under different stresses, test methods, failure modes, modification factors, etc.
Discusses examples of timber structures throughout history from the shelter framework of primeval man around 40 000 BC to mass timber and hybrid wood structures of today.