Professional Certificate in Performance-Based Structural Design

This course is designed for structural engineers, architects, and engineering students aiming to specialize in performance-based structural design. It equips participants with the knowledge and tools to apply advanced analytical techniques and software for designing structures that meet both safety and performance objectives under various environmental and operational conditions.

Upon completion, learners will gain proficiency in using performance-based design principles to create resilient structures, understand the latest building codes and standards related to performance-based design, and develop the skills to conduct risk assessments and probabilistic analyses for structural systems.

1. 1. Introduction to Performance-Based Structural Design: Learners will be introduced to the fundamental principles and terminology of performance-based structural design (PBSD), understanding the importance of safety, functionality, and sustainability in structural design. They will gain the skill to interpret building codes and standards relevant to PBSD.
2. 2. Structural Analysis Techniques: This module covers various analytical methods used in PBSD, including nonlinear static and dynamic analyses. Learners will develop the ability to apply these techniques to predict structural behavior under extreme loads and environmental conditions.
3. 3. Performance Criteria and Design Philosophies: Learners will explore different performance criteria and design philosophies in structural engineering, learning how to set appropriate performance goals for structures and how to design for resilience against natural and man-made hazards.
4. 4. Advanced Structural Materials and Systems: This module delves into the latest materials and innovative structural systems used in PBSD. Learners will understand the properties and applications of advanced materials and how they can be integrated into performance-based designs.
5. 5. Seismic Design for Performance-Based Structures: Learners will study the principles of seismic design for structures, focusing on the evaluation and design of structures to achieve performance-based objectives during earthquakes. Practical skills include the use of seismic analysis tools and the development of seismic design strategies.
6. 6. Wind and Wind-Induced Vibration Analysis: This module covers the analysis of wind effects on structures and the design of structures to withstand wind loads and vibration. Learners will gain the ability to perform wind load analyses and design for wind-induced performance under adverse conditions.
7. 7. Fire Safety in Structural Design: Learners will learn about the fire safety considerations in structural design, including the selection of fire-resistant materials, the assessment of fire-induced structural behavior, and the design of fire protection strategies to ensure structural performance during fires.
8. 8. Sustainability and Green Building Design: This module focuses on integrating sustainability principles into structural design, covering topics such as energy efficiency, material selection, and the assessment of environmental impacts. Learners will develop the skills to design structures that meet green building standards and promote sustainability.
9. 9. Risk Assessment and Management in Structural Design: Learners will study methods for assessing and managing risks associated with structural design, including probabilistic risk assessment techniques and the development of risk management plans to enhance structural performance and safety.
10. 10. Case Studies and Advanced Design Projects: In this final module, learners will apply their knowledge and skills through the analysis and design of real-world case studies and advanced design projects, focusing on the integration of all PBSD principles and the development of innovative design solutions.