Future Of Structural Engineering Design

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Summary

The future of structural engineering design is being shaped by technological innovations like machine learning models, smart materials, and digital twins. These advancements aim to modernize building codes, create sustainable materials, and enhance the resilience of infrastructure through predictive simulations and data-driven insights.

  • Adopt intelligent models: Explore using machine learning models that can understand and replicate the physics and logic behind traditional building codes for more adaptable and reliable structural standards.
  • Incorporate advanced materials: Utilize nanotechnology-enhanced concrete and sustainable materials like graphene oxide to improve durability and reduce carbon emissions in construction projects.
  • Leverage digital simulations: Combine Digital Twin technology with simulation tools like Extreme Loading for Structures to predict and prevent failures, enabling safer and more cost-efficient designs.
Summarized by AI based on LinkedIn member posts
  • View profile for M. Z. Naser

    Assistant Professor at Clemson University and AI Research Institute for Science & Engineering (AIRISE)

    7,615 followers

    This #paper presents a pathway to tackle the complex process of modernizing building codes and standards, which often struggle to keep up with technological and domain knowledge advancements. This research introduces the concept of "Equivalent Machine Learning Models." In essence, we engineer ML models to comprehend the foundational principles behind codal provisions, effectively learning the rationale and methodology that guided their initial formulation. We cannot rely on the traditional approach to building ML models to realize equivalent models. Thus, the paper also proposes a new methodology in which equivalent models are trained on #data and to analyze the underlying properties of codal provisions in terms of physics principles, engineering intuition, and causal logic. This ensures the equivalent models not only accurately capture the DNA of the provisions but also produce reliable predictions that are inherently #understandable, mirroring the human logic embedded within the original codal provisions. We tested this methodology across seven structural engineering problems documented in several building codes (including the American Society of Civil Engineers, American Concrete Institute, Australian Building Codes Board, and the American Wood Council). These case studies cover #empirical, #statistical, and #theoretical codal provisions. Our findings indicate: 1. Equivalent Machine Learning Models have the potential to be easily integrated into future building codes, offering a faster, more efficient path to adoption. 2. Despite achieving high predictive accuracy, the “traditional” approach to building ML models is likely to suffer in capturing the properties of codal provisions. 3. This is one tiny step, and more work is evidently needed. Your thoughts and feedback could further pave the way for innovative solutions in our field. As always, I am grateful for the forward-thinking perspective and insights provided by the reviewers and editors of the ASCE’s Journal of Structural Engineering & the SEI - Structural Engineering Institute Paper: https://lnkd.in/e5EfqhKt Preprint on ResearchGate: https://lnkd.in/eJ4Xzruz #Construction #Civilengineering #buildingcodes #machinelearning 

  • View profile for Xianming Shi, PhD, PE, Fellow ASCE

    Chair & Professor | Corrosion Expert & Materials Scientist | Co-Founder, CarbonSilvanus | Editor-in-Chief, Journal of Infrastructure Preservation & Resilience | | Diverting wastes towards beneficial uses

    6,967 followers

    🚧 Can "Smart Nanotech Concrete" Tackle Both Frost Damage and Climate Change? ❄️🌍 Two recent studies from the University of Miami and Washington State University showcase a significant advance toward low-carbon, high-durability infrastructure, thanks to a patented clinker-free geopolymer concrete. 🧪 What’s New? Graphene Oxide + Geopolymer Paste ➤ Adding just 0.02% graphene oxide (GO by mass of ash) to fly ash-based geopolymer paste makes a notable difference. No cement is needed for this type of concrete! ➤ The result? Much better strength retention after 84 rapid freeze-thaw cycles and stronger resistance to post-damage carbonation. ➤ GO improves hydration chemistry and reduces moisture uptake—key for durability in cold, wet regions. CFRP-Confined Geopolymer Columns ➤ Researchers encased GO-modified geopolymer concrete in carbon fiber-reinforced polymer (CFRP) tubes, creating high-strength, ductile structural members. ➤ Life Cycle Assessment (LCA) over a 100-year lifespan shows: ✅ Up to 34% lower CO₂ emissions than traditional cement concrete columns ✅ Excellent resilience, even under extreme loading and environmental conditions 💡 Why It Matters These innovations pave the way for next-generation infrastructure—stronger, greener, and more resilient. 👷♀️ Civil engineers: Ready to rethink your materials? 🎓 This is where chemistry, mechanics, and sustainability converge. 📚 Learn more: • Li & Shi, Cement and Concrete Composites, 2025 – https://lnkd.in/g-5hRfHi • Li et al., Transportation Research Record, 2025 – https://lnkd.in/gpbWKkS3 #CivilEngineering #FlyAsh #Geopolymer #GrapheneOxide #FrostResistance #CFRP #SustainableConstruction #ConcreteInnovation #LifeCycleAssessment #InfrastructureResilience #STEM #FutureEngineers

  • View profile for Ayman ElFouly

    Senior Engineering Consultant at Applied Science International, LLC - ASI

    10,532 followers

    Bridging Digital Twins with Extreme Loading for Structures (ELS) for Advanced Structural Analysis 🌍🏗️ In today's rapidly evolving engineering landscape, Digital Twins are transforming how we analyze, monitor, and predict structural behavior. When paired with Extreme Loading for Structures (ELS) software, we unlock a powerful synergy that enables engineers to simulate real-world structural responses with unprecedented accuracy. 🔹 Why Integrate Digital Twins with ELS? ✅ Real-Time Structural Assessment – Digital Twins provide continuous updates on structural conditions, while ELS simulates extreme scenarios like blast loads, progressive collapse, and seismic events. ✅ Enhanced Predictive Maintenance – Combining real-world data with nonlinear structural analysis allows engineers to predict failures before they occur, optimizing maintenance and reducing costs. ✅ Better Decision-Making – Engineers, insurers, and risk managers can visualize potential damage in complex structures and infrastructure, improving safety and resilience. ✅ Cost-Effective Design Optimization – ELS helps refine structural designs by testing "what-if" scenarios in a virtual environment, ensuring performance under extreme conditions. By merging Digital Twin technology with ELS, we step into the future of structural engineering—where we don’t just react to failures but predict and prevent them. 🚀 How do you see Digital Twins shaping the future of structural analysis? Let’s discuss! ⬇️ #DigitalTwin #ExtremeLoading #StructuralEngineering #Resilience #Simulation #SmartInfrastructure

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