Steel-concrete composite floors are integral to modern buildings, but their resilience under fire conditions demands deeper understanding and innovative approaches. This course examines groundbreaking full-scale experimental evaluations, exploring the influence of slab reinforcement and other critical factors on fire-induced performance. Participants will gain insights into structural behavior, failure mechanisms, and advanced strategies for designing safer and more cost-effective buildings. Part two of a two part course which can be taken independently. Fire resilience is critical in modern construction, particularly for steel-concrete composite systems. This course begins with the fundamentals of fire resistance, incorporating lessons learned from full-scale experimental evaluations. Participants will explore innovative strategies for addressing fire-induced failure mechanisms, ensuring robust and compliant designs for a safer built environment. Course Outline

1. Introduction to Fire Resilience in Composite Systems

Importance of fire safety in composite floor design Overview of NIST Test #2 findings

2. Reinforcement Strategies and Fire Performance

Comparative analysis of reinforcement schemes Influence of slab reinforcement on fire resilience

3. Experimental Insights from NIST

Methodology and results of full-scale fire tests Post-fire structural integrity and residual capacity

4. Designing for Fire Safety

Integrating fire resilience into structural design Using predictive models for performance-based design

5. Real-World Applications

Case studies in fire resilience and structural integrity Practical guidelines for implementation in building projects This course is designed for Structural engineers, Architects, Construction managers, Fire safety consultants, Building code officials.

Learning Objectives

At the successful conclusion of this course, you’ll be able to identify and discuss:

• Comprehend the significance of fire resilience in composite floor systems.
• Analyze NIST's experimental data to evaluate structural performance under fire.
• Understand the role of slab reinforcement in mitigating fire-induced damage.
• Apply performance-based methodologies to structural design.
• Utilize experimental insights to improve fire safety and design efficiency.
• Assess the residual capacity of fire-exposed composite systems.
• Explore comparative benefits of various reinforcement strategies.
• Integrate advanced fire protection techniques into real-world projects.