Advanced Concrete Technology for Durable and Low-Carbon Infrastructure (1.2 CEUs)
Course Description
Concrete remains the world's most widely used construction material, yet growing demands for sustainability, durability, and performance are transforming traditional design and construction practices. This intensive course provides participants with a practical understanding of advanced concrete technology, including constituent materials, fresh and hardened concrete properties, durability mechanisms, performance-based mixture design, supplementary cementitious materials (SCMs), recycled materials, and emerging low-carbon concrete technologies.
Participants will examine how material selection, proportioning, and quality control influence short- and long-term structural performance. The course combines fundamental principles with hands-on engineering examples and case studies from major infrastructure projects.
Based on state-of-the-art research and industry practice, this course provides practical tools for engineers seeking to design durable, sustainable, and cost-effective concrete infrastructure.
Objective
The participant will learn how to evaluate concrete materials, develop optimized concrete mixtures, assess durability-related risks, and implement performance-based approaches to concrete design. Participants will gain practical knowledge that can be applied immediately to infrastructure, transportation, municipal, and industrial projects.
Target Audience
• Civil and Structural Engineers
• Bridge and Transportation Engineers
• Municipal and Infrastructure Engineers
• Materials and Durability Specialists
• Asset and Facility Managers
• Engineering Consultants and Project Managers
• Infrastructure Owners and Government Agencies
• Inspection, Testing, and Quality-Control Professionals
• Contractors, Repair Specialists, and Engineering Technologists
• Graduate Engineers-in-Training
Recommended prerequisite: basic knowledge of concrete materials and reinforced-concrete structures.
Level of Course
Advanced
Learning Objectives
After you attend this course/workshop, you will be able to:
· Design and optimize concrete mixtures for specific engineering applications.
· Select suitable cements, SCMs, aggregates and admixtures.
· Evaluate fresh and hardened concrete performance.
· Assess durability risks and mitigation strategies.
· Apply service-life concepts to infrastructure projects.
· Interpret laboratory and field test results.
· Develop specifications for durable and low-carbon concrete.
Use performance-based design principles to improve sustainability and lifecycle performance
Special Features
The course combines technical instruction with real-world case studies, guided concrete mixture-proportioning and optimization exercises, interpretation of laboratory and field test data, and a group performance-based design workshop. Participants will compare concrete constituent materials, assess their effects on fresh and hardened properties, evaluate mechanical performance and durability risks, and develop an optimized concrete mixture for a representative infrastructure application. Practical demonstrations and examples of material characterization, fresh-concrete testing, mechanical testing, and durability assessment techniques will connect the underlying scientific principles to engineering practice. The capstone exercise requires participants to design and justify a durable, high-performance, and low-carbon concrete mixture based on project requirements, material availability, exposure conditions, service-life expectations, constructability, and environmental performance.
Material(s) Required
· Scientific calculator
· Laptop computer with spreadsheet software, preferably Microsoft Excel
Course notes, worksheets, case-study data, and reference materials will be provided by the instructor
Dr. Leandro Sanchez
Dr. Leandro F. M. Sanchez, PhD, MSc, BSc, is a Full Professor of Civil Engineering at the University of Ottawa. His research and professional expertise focus on advanced and sustainable concrete materials, the durability and long-term performance of concrete structures, and the diagnosis and prognosis of aging infrastructure, with particular expertise in Internal Swelling Reactions (ISR). Before entering academia, he gained industry experience as a consulting engineer working in concrete technology, durability assessment, and the rehabilitation of concrete structures. Dr. Sanchez has co-authored more than 220 peer-reviewed publications on concrete sustainability and durability and has contributed significantly to the development of standard test protocols and descriptive, empirical, and numerical models for the design and assessment of concrete infrastructure.
Dr. Sanchez is actively involved in several national and international technical organizations. He currently serves as Chair of RILEM Technical Committee TC 300 on Alkali-Aggregate Reaction Mitigation and Chair of ACI Committee 221 on Aggregates. He also chaired the 17th International Conference on Alkali-Aggregate Reaction in Concrete, held in Ottawa in 2024. His achievements have been recognized through several prestigious awards, including the Vanier Canada Graduate Scholarship (2010), NSERC Early Career Research Award (2016), NFRF Exploration Grant (2019), Ontario Early Researcher Award (2021), and the University of Ottawa Faculty of Engineering Early Career Researcher Award (2023). A regular reviewer for leading scientific journals, Dr. Sanchez publishes extensively in the fields of concrete materials, sustainability, durability, and infrastructure condition assessment. He is also the author of Internal Swelling Reactions in Concrete: Mechanisms and Condition Assessment, published by CRC Press in 2024.
Program Outline:
Day 1 – Fundamentals of Concrete Materials
- Cement chemistry and hydration
- Portland cements and blended cements
- SCMs (slag, fly ash, limestone, calcined clays)
- Aggregates and aggregate optimization
- Chemical admixtures
- Material characterization methods
- Laboratory demonstrations and practical examples
Fresh Concrete Performance and Mixture Proportioning
- Rheology and workability
- Air entrainment
- Setting and early-age behavior
- Mixing, placing, consolidation and curing
- Mixture-design approaches
- Weigh batching and volume proportioning
- Test methods and specifications
- Performance-based acceptance criteria
Day 2– Mechanical Properties of Concrete
- Compressive, tensile and flexural strength
- Strength development and maturity
- Influence of concrete constituents and curing conditions on strength
- Elasticity and modulus of elasticity
- Shrinkage and volume stability
- Creep and long-term deformation
- Thermal properties and effects
- Mechanical testing methods and interpretation of results
- Structural implications of concrete mechanical properties
Durability Engineering and Low-Carbon Concrete
- Reinforcement corrosion, chloride ingress and carbonation
- Freeze-thaw deterioration
- Sulfate attack
- Alkali-silica reaction
- Delayed ettringite formation
- Durability testing methods and service-life concepts
TLNT reserves the right to cancel or change the date or location of its events. TLNT's responsibility will, under no circumstances, exceed the amount of the fee collected. TLNT is not responsible for the purchase of non-refundable travel arrangements or accommodations or the cancellation/change fees associated with cancelling them. Please call to confirm that the course is running before confirming travel arrangements and accommodations. Please click here for complete policies.
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