Pideya Learning Academy

Concrete Building Structural Design and Analysis

Upcoming Schedules

  • Live Online Training
  • Classroom Training

Date Venue Duration Fee (USD)
10 Feb - 14 Feb 2025 Live Online 5 Day 2750
24 Mar - 28 Mar 2025 Live Online 5 Day 2750
21 Apr - 25 Apr 2025 Live Online 5 Day 2750
23 Jun - 27 Jun 2025 Live Online 5 Day 2750
07 Jul - 11 Jul 2025 Live Online 5 Day 2750
04 Aug - 08 Aug 2025 Live Online 5 Day 2750
13 Oct - 17 Oct 2025 Live Online 5 Day 2750
01 Dec - 05 Dec 2025 Live Online 5 Day 2750

Course Overview

Concrete plays a pivotal role in shaping the modern built environment, forming the foundation of structures ranging from residential buildings and commercial towers to critical infrastructure such as bridges, dams, and transportation networks. As urban development accelerates and the demand for resilient and cost-effective structures rises, the need for deep technical understanding in structural concrete design becomes increasingly vital. Concrete Building Structural Design and Analysis, a specialized course by Pideya Learning Academy, equips construction professionals with the knowledge and methodologies required to design, analyze, and manage concrete structures with safety, efficiency, and durability in mind.
According to recent data from the Global Cement and Concrete Association (2024), the global consumption of concrete surpasses 30 billion metric tons annually, making it the most utilized building material worldwide. Furthermore, the structural concrete market is projected to grow at a compound annual growth rate (CAGR) of 6.3%, reaching over USD 972 billion by 2028 (Fortune Business Insights, 2023). These figures underscore the critical importance of competent structural design in supporting sustainable development and minimizing lifecycle costs.
This in-depth training by Pideya Learning Academy offers a comprehensive understanding of how concrete behaves under various loading conditions and environmental influences. Participants will explore the essential principles of structural mechanics as they apply to reinforced concrete elements, including beams, columns, slabs, and foundations. The training addresses the design criteria stipulated in international codes such as ACI, Eurocode, and BS standards, ensuring that attendees are equipped with globally applicable design competencies. Special emphasis is placed on both strength and serviceability limit states, allowing engineers to balance safety, cost-effectiveness, and performance.
Throughout the course, participants will gain a clear understanding of load analysis methods, support conditions, and design assumptions used in modern concrete building systems. Key highlights include a thorough breakdown of structural design philosophies and limit state design approaches, as well as insights into how to optimize reinforcement detailing for various structural components. Additionally, participants will learn techniques for structural modeling and simulation to predict behavior under different conditions, and will be exposed to innovations in sustainable design such as green concrete and low-carbon construction strategies.
Other focal areas of the course include failure mechanisms in structural concrete, mitigation strategies for cracking and deflection, and the selection of suitable concrete grades and admixtures for performance enhancement. Participants will also delve into foundation design, column load transfer mechanisms, and advanced reinforcement design techniques, ensuring a holistic view of structural concrete performance.
To ensure practical relevance and immediate value for professionals, the course embeds a range of strategic insights. For instance, participants will:
Learn to interpret international design codes and apply them in real-world projects
Develop a system-level understanding of reinforced concrete member behavior under structural loads
Analyze key factors affecting service life and structural reliability
Examine reinforcement detailing for seismic, wind, and heavy-load conditions
Explore material innovations that improve sustainability and reduce environmental impact
Master safety-aware approaches to design, load paths, and structural redundancies
Review techniques for structural inspection and performance evaluation over time
By integrating these highlights seamlessly into the program, the Concrete Building Structural Design and Analysis course by Pideya Learning Academy ensures that participants leave with a comprehensive and actionable skillset. The curriculum is engineered to support both experienced engineers seeking design validation capabilities and early-career professionals aiming to solidify their understanding of structural principles.
This training stands as a valuable investment for organizations focused on achieving long-term resilience in their projects. Whether involved in new construction or retrofitting aging infrastructure, attendees will gain the confidence to make design decisions that support safety, compliance, cost efficiency, and sustainability. With the continuous evolution of construction technologies and regulatory frameworks, this course provides an essential learning platform to remain ahead in the ever-demanding field of structural concrete engineering.

Course Objectives

After completing this Pideya Learning Academy training, the participants will learn how to:
Understand the role of concrete in civil and industrial construction
Identify and assess the critical ingredients of concrete and their quality parameters
Apply basic principles of concrete chemistry to influence performance outcomes
Conduct concrete mix designs aligned with project requirements
Manage concrete production processes with an emphasis on quality and control
Evaluate concrete through standardized testing and inspection techniques
Diagnose common defects in concrete structures and determine appropriate remedies
Utilize advanced concepts such as ready-mix, precast, and prestressed concrete
Implement maintenance planning and protection measures for concrete structures
Recognize safety standards and environmental considerations during concrete operations
Examine concrete solutions for special applications and assess the impact of admixtures

Personal Benefits

Expanded technical expertise in all phases of concrete usage
Greater confidence in mix design, inspection, and maintenance decisions
Enhanced career development prospects within construction and infrastructure sectors
Access to up-to-date knowledge on materials, standards, and innovations
Improved ability to contribute to safer, more sustainable construction outcomes

Organisational Benefits

Improved structural quality and longevity across construction projects
Reduction in material waste and rework through enhanced process knowledge
Strengthened quality assurance and compliance with international codes
Enhanced ability to troubleshoot and resolve on-site concrete issues
A workforce better equipped for modern construction challenges and technologies

Who Should Attend

Civil Engineers
Construction Site Engineers and Technicians
Architects and Designers
Project and Structural Engineers
Consulting and Quality Control Engineers
Maintenance Engineers and Technicians
Maintenance Planners
Construction Supervisors and Managers

Course Outline

Module 1: Evolution and Composition of Concrete
Historical development of concrete as a construction material Core ingredients and their engineering significance Chemical classification of cement types Types and properties of aggregates and mineral admixtures Water quality and its impact on concrete chemistry Role of supplementary cementitious materials (SCMs) Pozzolanic reactions and implications
Module 2: Concrete Chemistry and Hydration Reactions
Chemical reactions during cement hydration Phases of hydration and strength development Influence of temperature on hydration rate Development of microstructure in hardened concrete Heat of hydration and thermal cracking risks
Module 3: Engineering Properties of Concrete
Compressive, tensile, and flexural strength Permeability and diffusion resistance Modulus of elasticity and creep behavior Factors influencing durability and service life Rheology and workability parameters Shrinkage: drying, autogenous, and plastic shrinkage
Module 4: Environmental and Material-Based Deterioration
Sulphate attack and chloride ingress Alkali-silica reaction (ASR) in aggregates Freeze-thaw cycles and environmental exposure Influence of curing temperature and relative humidity Defects caused by improper mix proportioning
Module 5: Structural Concrete Mix Design
Target strength and safety margins Aggregate gradation and its optimization Water-cement ratio and durability indicators Mix proportioning techniques and models Interpretation of national and international standards Blending of recycled aggregates and SCMs
Module 6: Manufacturing, Handling, and Placement Techniques
Handling and storage of cement, aggregates, and admixtures Production controls in batching plants Hot and cold weather concreting practices Effect of delay in transport and placement Formwork design and its influence on surface quality Joint design and treatment procedures
Module 7: Compaction, Curing, and Surface Protection
Mechanical vibration and compaction strategies Initial setting, final setting, and finishing Internal vs. external curing methods Use of curing compounds and wet coverings Prevention of early age cracking
Module 8: Quality Control and Testing Protocols
Trial mixes and pre-construction evaluation Sampling methods for fresh and hardened concrete Compressive strength and core testing Durability index tests (RCPT, water absorption) Interpretation of test reports Nondestructive evaluation (NDE) tools: Ultrasonic Pulse Velocity (UPV), Rebound Hammer, GPR
Module 9: Ready-Mix Concrete Operations
Categories of RMC: Transit mixed, shrink mixed, central mixed RMC batching plant setup and automation Delivery logistics and slump retention Quality checks during transit and placement Tolerance limits and customer specifications
Module 10: Chemical Admixtures and Performance Enhancers
Classification and usage of admixtures Superplasticizers and high-range water reducers Set accelerators and retarders Air entraining agents for freeze-thaw resistance Corrosion inhibitors and shrinkage reducers Compatibility with cementitious systems
Module 11: Common Failures and Durability Concerns
Structural cracking and microcracking Plastic and drying shrinkage issues Creep under sustained loading Bleeding and segregation in fresh concrete Scaling, dusting, and efflorescence
Module 12: Protective Engineering for Concrete Structures
Design strategies for durability under aggressive environments Surface treatments: silane sealers, epoxy coatings Use of abrasion-resistant hardeners Protective linings and overlays Cathodic protection systems Environmental monitoring and preventive strategies
Module 13: Investigation and Repair Technologies
Visual inspection and defect mapping Core extraction and petrographic analysis Injection grouting for voids and cracks Shotcrete for structural rehabilitation Encapsulation and overlay systems Reinforcement corrosion treatment Demolition strategies and debris management
Module 14: Innovative and High-Performance Concrete
Ultra-high-performance concrete (UHPC) Fiber-reinforced concrete (FRC): synthetic, glass, and steel fibers Lightweight and cellular concrete systems Geopolymer and polymer-modified concretes High early strength concrete for rapid construction Self-consolidating concrete (SCC) applications
Module 15: Sustainability and Modern Trends in Concrete Technology
Use of recycled concrete aggregate (RCA) Low-carbon cement alternatives Energy efficiency in concrete production Green certifications and LEED compliance Lifecycle cost assessment of concrete structures Integration of digital technology in concrete monitoring

Have Any Question?

We’re here to help! Reach out to us for any inquiries about our courses, training programs, or enrollment details. Our team is ready to assist you every step of the way.