Pideya Learning Academy

Structural Engineering: Advanced Design Techniques

Upcoming Schedules

  • Live Online Training
  • Classroom Training

Date Venue Duration Fee (USD)
06 Jan - 10 Jan 2025 Live Online 5 Day 2750
17 Mar - 21 Mar 2025 Live Online 5 Day 2750
05 May - 09 May 2025 Live Online 5 Day 2750
16 Jun - 20 Jun 2025 Live Online 5 Day 2750
14 Jul - 18 Jul 2025 Live Online 5 Day 2750
25 Aug - 29 Aug 2025 Live Online 5 Day 2750
10 Nov - 14 Nov 2025 Live Online 5 Day 2750
15 Dec - 19 Dec 2025 Live Online 5 Day 2750

Course Overview

The “Structural Engineering: Advanced Design Techniques” course by Pideya Learning Academy provides an in-depth exploration of cutting-edge methodologies and technologies in structural engineering. This course is meticulously designed for professionals aiming to enhance their expertise in modern design principles and advanced materials, ensuring sustainable and resilient structural solutions. Participants will gain a profound understanding of innovative materials, like fiber-reinforced polymers (FRPs), advanced additives, and reinforced concrete properties, equipping them with the knowledge to address complex challenges in the ever-evolving field of structural engineering.
Key highlights of the training include the exploration of advanced repair schemes using FRPs, stress-strain modeling of FRP-confined concrete, seismic structural analysis, and selective rehabilitation techniques. Participants will delve into FRP applications, including Carbon-FRP (CFRP) and Glass-FRP (GFRP), for reinforcing and rehabilitating structural elements like beams, slabs, and columns under seismic and high-stress conditions. These insights are tailored to equip professionals with actionable knowledge that directly translates into improved structural integrity and reduced long-term maintenance costs.
The global construction industry, currently valued at over $10 trillion, continues to expand due to rapid urbanization and infrastructural demands. Structural engineers play a pivotal role in ensuring that this growth aligns with safety, efficiency, and sustainability benchmarks. Research underscores the significance of adopting advanced materials like FRPs, which can enhance structural durability by up to 70% and reduce maintenance costs by nearly 50%. As the demand for innovative solutions rises, this training ensures participants are well-prepared to leverage these advancements, staying ahead in a competitive industry.
This course is structured to foster a collaborative and engaging learning experience, emphasizing real-world applications and industry-relevant insights. Participants will benefit from comprehensive coverage of theoretical concepts, interactive group discussions, and scenario-based learning that bridges the gap between theory and practical implementation. The curriculum is designed to ensure participants leave with an enriched understanding of advanced structural engineering techniques, ready to make significant contributions to their organizations.
The Structural Engineering: Advanced Design Techniques course emphasizes industry relevance by integrating the latest trends, technologies, and case studies. Participants will explore topics like seismic retrofitting, FRP-based rehabilitation, and the use of high-performance concrete (HPC) and ultra-high-performance concrete (UHPC). By addressing challenges such as seismic resilience, sustainability, and cost efficiency, this course prepares engineers to meet the demands of modern infrastructure projects effectively.
Key Highlights of the Course:
Comprehensive exploration of fiber-reinforced polymers (FRPs), including their classifications and applications in structural reinforcement and rehabilitation.
Detailed insights into stress-strain modeling and the behavior of FRP-confined concrete columns under varying conditions.
Advanced techniques for seismic retrofitting of slabs, beams, and columns using innovative materials.
In-depth understanding of selective rehabilitation strategies tailored for structural and non-structural members.
Cutting-edge topics on nano-materials and sustainable solutions for enhanced concrete performance.
Case studies demonstrating successful applications of advanced repair techniques in real-world scenarios.
Exploration of emerging trends like AI-driven predictive maintenance, 3D printing, and smart concrete technologies.
By enrolling in this course, participants will align themselves with the best practices in structural engineering, supported by Pideya Learning Academy’s reputation for delivering industry-relevant and forward-thinking training programs. This course empowers structural engineers to remain at the forefront of innovation while addressing the growing demands of the construction and infrastructure sectors.

Key Takeaways:

  • Comprehensive exploration of fiber-reinforced polymers (FRPs), including their classifications and applications in structural reinforcement and rehabilitation.
  • Detailed insights into stress-strain modeling and the behavior of FRP-confined concrete columns under varying conditions.
  • Advanced techniques for seismic retrofitting of slabs, beams, and columns using innovative materials.
  • In-depth understanding of selective rehabilitation strategies tailored for structural and non-structural members.
  • Cutting-edge topics on nano-materials and sustainable solutions for enhanced concrete performance.
  • Case studies demonstrating successful applications of advanced repair techniques in real-world scenarios.
  • Exploration of emerging trends like AI-driven predictive maintenance, 3D printing, and smart concrete technologies.
  • Comprehensive exploration of fiber-reinforced polymers (FRPs), including their classifications and applications in structural reinforcement and rehabilitation.
  • Detailed insights into stress-strain modeling and the behavior of FRP-confined concrete columns under varying conditions.
  • Advanced techniques for seismic retrofitting of slabs, beams, and columns using innovative materials.
  • In-depth understanding of selective rehabilitation strategies tailored for structural and non-structural members.
  • Cutting-edge topics on nano-materials and sustainable solutions for enhanced concrete performance.
  • Case studies demonstrating successful applications of advanced repair techniques in real-world scenarios.
  • Exploration of emerging trends like AI-driven predictive maintenance, 3D printing, and smart concrete technologies.

Course Objectives

After completing this Pideya Learning Academy training, participants will:
Gain an in-depth understanding of reinforced concrete properties, advanced additives, and modern materials used for enhancing concrete strength.
Learn the fundamental properties and applications of fiber-reinforced polymers (FRPs).
Explore advanced techniques for designing slabs reinforced with FRPs under seismic loads.
Understand the application of FRPs in reinforced concrete beams for seismic resilience.
Develop expertise in rehabilitating reinforced concrete columns using FRP under seismic loads.
Analyze the behavior of rehabilitated reinforced concrete structures under seismic conditions.
Master selective rehabilitation schemes for reinforced concrete structures.

Personal Benefits

Participants will benefit personally by:
Gaining cutting-edge knowledge and skills in advanced structural engineering techniques.
Enhancing career opportunities through expertise in modern materials and rehabilitation methods.
Building confidence in addressing complex engineering challenges.
Expanding their professional network through interaction with industry peers.
Staying updated with the latest trends and technologies in structural engineering.

Organisational Benefits

Organizations enrolling their teams in this Pideya Learning Academy course can expect:
Enhanced technical proficiency in handling advanced structural engineering projects.
Improved capabilities in adopting modern materials and methods for structural rehabilitation.
Increased cost-effectiveness through reduced maintenance requirements and enhanced durability of structures.
Strengthened compliance with safety standards and seismic resilience.
Development of innovative engineering solutions aligned with organizational goals.

Who Should Attend

This course is designed for civil and structural engineers involved in reinforced concrete design and repair. It is particularly beneficial for professionals responsible for the rehabilitation of reinforced concrete structures using advanced materials such as FRP. The training is ideal for:
Structural engineers seeking to enhance their expertise in advanced techniques.
Project managers overseeing infrastructure rehabilitation projects.
Consultants providing solutions for structural challenges in seismic regions.
Academicians and researchers specializing in modern materials and seismic engineering.

Course Outline

Module 1: Concrete Material Properties and Performance
Mechanical properties of concrete (compressive, tensile, and shear strength) Durability characteristics of concrete (permeability, shrinkage, and creep) Microstructural properties influencing concrete performance Thermal and acoustic properties of concrete Advanced concrete mix design techniques
Module 2: Innovative Materials for Reinforced Concrete Enhancement
Fiber-reinforced polymer (FRP) composites for concrete strengthening High-performance concrete (HPC) and ultra-high-performance concrete (UHPC) Nano-materials in concrete technology Self-healing concrete and its mechanisms Sustainable materials for eco-friendly concrete construction
Module 3: Advanced Concrete Additives and Admixtures
Superplasticizers for workability enhancement Silica fume, fly ash, and slag for durability improvement Air-entraining agents for freeze-thaw resistance Hydration-controlling additives for extended working time Nanotechnology-based additives for strength and durability
Module 4: Fiber-Reinforced Polymer (FRP) Systems
Classification of FRP types (CFRP, GFRP, and AFRP) Mechanical properties and behavior of FRP materials Manufacturing techniques for FRP composites Bonding mechanisms between FRP and concrete Long-term performance and durability of FRP materials
Module 5: Seismic Retrofitting Techniques for Reinforced Concrete Elements
Seismic retrofitting of slabs using advanced materials Strengthening strategies for reinforced concrete beams in seismic zones Column jacketing techniques for seismic resistance Role of FRP in seismic retrofitting of reinforced concrete structures Seismic performance evaluation after retrofitting
Module 6: Behavior of Confined Concrete Columns with FRP
Stress-strain behavior of rectangular and circular concrete columns Influence of FRP confinement on axial load-bearing capacity Analytical modeling of FRP-confined concrete Experimental studies on FRP-constrained columns Applications of FRP in high-seismic-demand regions
Module 7: Structural Analysis for Retrofitted Concrete Systems
Seismic structural analysis methods for retrofitted systems Performance-based design for retrofitted concrete structures Dynamic analysis of FRP-repaired elements under seismic loads Finite element modeling of FRP-reinforced systems Comparative evaluation of different repair schemes
Module 8: Selective Rehabilitation Techniques for Concrete Structures
Assessment methods for structural rehabilitation needs Cost-effective repair strategies for degraded concrete elements FRP-based rehabilitation for structural and non-structural members Prioritization of repair schemes based on structural integrity Long-term performance monitoring after selective rehabilitation
Module 9: Case Studies on Advanced Concrete Repairs
Retrofitting of industrial structures with FRP composites Rehabilitation of bridge decks and girders Case studies of seismic retrofitting in high-risk zones Successful application of nano-materials in concrete repairs Lessons learned from field applications of advanced repair technologies
Module 10: Emerging Trends in Reinforced Concrete Technology
Smart concrete technologies for self-monitoring structures AI and machine learning in predictive maintenance of concrete structures 3D printing in advanced concrete construction Life cycle assessment of modern concrete structures Innovations in concrete recycling and reusability

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