Composite Steel-Concrete Structures Design Training Course

Course Introduction

Composite steel-concrete structures combine the strength, stiffness, and durability of reinforced concrete with the flexibility, speed of construction, and high strength-to-weight ratio of structural steel. These hybrid structural systems are widely used in high-rise buildings, bridges, industrial facilities, transportation infrastructure, stadiums, and commercial developments because they offer superior structural performance, improved economy, enhanced constructability, and longer service life. The Composite Steel-Concrete Structures Design Training Course provides participants with comprehensive knowledge and practical skills in the analysis, design, detailing, construction, and performance evaluation of composite structural systems using internationally recognized engineering standards and modern design methodologies.

The increasing demand for sustainable, resilient, and cost-effective infrastructure has accelerated the adoption of composite structural systems across civil engineering projects worldwide. This course introduces participants to the principles of composite structural behavior, load transfer mechanisms, shear connection design, structural analysis, serviceability, stability, fatigue performance, fire resistance, and durability engineering. Participants will gain practical expertise in designing composite beams, columns, floors, bridges, and multi-storey building systems that optimize structural efficiency while reducing construction time, material consumption, and lifecycle costs.

Through practical design workshops, engineering calculations, structural modeling exercises, case studies, and real-world construction examples, participants will develop competencies in composite member design, shear connector detailing, structural analysis, fabrication planning, erection sequencing, quality assurance, and construction supervision. The course emphasizes practical engineering solutions that improve structural integrity, enhance collaboration between design and construction teams, simplify fabrication, minimize project risks, and ensure compliance with international engineering codes and performance-based design principles.

The course also explores emerging technologies transforming composite structural engineering, including Building Information Modelling (BIM), digital twins, finite element analysis, artificial intelligence-assisted structural optimization, parametric design, modular construction, robotic fabrication, smart structural monitoring systems, advanced composite materials, Internet of Things (IoT) sensors, and predictive maintenance technologies. Participants will understand how these innovations improve design accuracy, optimize multidisciplinary coordination, strengthen quality management, and support sustainable infrastructure development throughout the asset lifecycle.

Special emphasis is placed on structural safety, connection engineering, construction quality, fatigue assessment, seismic performance, fire engineering, corrosion protection, sustainability, regulatory compliance, lifecycle asset management, and resilience planning. Participants will gain practical knowledge for designing reliable composite structures, evaluating structural performance under diverse loading conditions, optimizing connection systems, and delivering infrastructure projects that achieve superior safety, durability, and operational efficiency.

Upon successful completion of the course, participants will possess advanced competencies in composite steel-concrete structural design, structural analysis, connection detailing, construction engineering, digital structural technologies, and lifecycle performance management. These capabilities enable professionals to optimize structural performance, improve construction productivity, reduce project costs, strengthen infrastructure resilience, ensure code compliance, and successfully deliver innovative composite structures across a wide range of civil engineering applications.

Duration

10 days

Who Should Attend

• Structural Engineers

• Civil Engineers

• Bridge Engineers

• Building Design Engineers

• Construction Project Managers

• Structural Consultants

• Steel Design Engineers

• Site Engineers

• Resident Engineers

• Fabrication Engineers

• Quality Assurance Engineers

• Quality Control Engineers

• Contractors and Steel Fabricators

• Infrastructure Development Professionals

• Government Structural Inspectors

• University Engineering Lecturers

Course Objectives

• Develop advanced expertise in composite steel-concrete structural systems that optimize strength, stiffness, constructability, durability, and lifecycle performance for modern infrastructure projects.

• Master the principles of composite structural behavior, load sharing, shear transfer, interaction mechanisms, and performance-based design using internationally recognized engineering standards.

• Strengthen competencies in designing composite beams, columns, slabs, floors, bridges, and building systems that maximize structural efficiency while minimizing material consumption and construction costs.

• Gain practical knowledge of shear connector design, composite action verification, connection detailing, anchorage systems, and interface behavior supporting reliable structural performance.

• Learn advanced methods for structural analysis, stability assessment, serviceability evaluation, fatigue analysis, fire resistance design, and seismic performance verification of composite structures.

• Enhance capabilities in finite element analysis, structural modeling, parametric design, engineering software applications, and digital verification techniques supporting optimized composite structural solutions.

• Develop practical skills in preparing structural detailing drawings, fabrication documentation, erection planning, quality assurance procedures, and construction supervision for composite structural projects.

• Build expertise in integrating Building Information Modelling, digital twins, artificial intelligence, predictive analytics, and automated detailing technologies into composite structural engineering workflows.

• Improve understanding of advanced construction materials including high-strength steel, ultra-high-performance concrete, fiber-reinforced concrete, corrosion-resistant materials, and sustainable structural technologies.

• Explore emerging innovations including modular composite construction, robotic fabrication, smart structural monitoring systems, digital construction management, and automated engineering workflows.

• Strengthen leadership, multidisciplinary collaboration, engineering communication, and technical review skills necessary for managing complex composite structural design and construction projects.

• Equip participants with practical strategies to improve structural reliability, optimize fabrication and erection, reduce lifecycle costs, ensure regulatory compliance, and deliver safe, resilient, and high-performance composite structures.

Course Outline

Module 1: Fundamentals of Composite Steel-Concrete Structures

• Principles of composite structural behavior and load-sharing mechanisms

• Advantages and applications of composite systems in infrastructure projects

• Material interaction between structural steel and reinforced concrete

• International standards governing composite structural engineering

Module 2: Structural Loads and Design Principles

• Dead, live, wind, seismic, and dynamic load determination methods

• Load combinations supporting composite structural safety verification

• Performance-based design principles for composite structures

• Structural reliability and serviceability evaluation methodologies

Module 3: Composite Structural Analysis

• Structural analysis techniques for composite beams and frame systems

• Elastic and plastic analysis methods supporting design optimization

• Finite element modeling for composite structural performance evaluation

• Structural response under static and dynamic loading conditions

Module 4: Composite Beam Design

• Flexural design of composite beams using engineering standards

• Shear resistance evaluation and structural stability considerations

• Composite slab interaction improving structural efficiency

• Deflection control and serviceability verification techniques

Module 5: Composite Column Design

• Design methodologies for concrete-filled steel tubular columns

• Composite columns under combined axial and bending loads

• Structural stability assessment and buckling resistance evaluation

• Reinforcement detailing supporting composite column performance

Module 6: Shear Connection Engineering

• Design of headed shear studs and mechanical connector systems

• Load transfer mechanisms between steel and concrete components

• Connector spacing, detailing, and fatigue performance considerations

• Construction quality requirements for shear connection installation

Module 7: Composite Floor Systems

• Design of composite slabs using profiled steel decking systems

• Floor vibration analysis supporting occupant comfort requirements

• Fire resistance design for composite floor assemblies

• Construction sequencing improving project efficiency and safety

Module 8: Composite Bridge Engineering

• Design principles for composite highway and railway bridge systems

• Composite girders supporting long-span transportation infrastructure

• Fatigue assessment for bridge structures under repeated traffic loading

• Bridge detailing improving durability and maintenance performance

Module 9: Connection Design and Structural Detailing

• Beam-to-column composite connection design methodologies

• Base plates, splice connections, and anchorage detailing techniques

• Structural detailing improving fabrication and erection efficiency

• Reinforcement coordination within composite structural systems

Module 10: Fabrication, Erection, and Construction

• Fabrication planning supporting composite structural quality assurance

• Steel erection sequencing and concrete placement coordination

• Construction tolerances and field quality control procedures

• Inspection methods verifying composite structural performance

Module 11: Durability, Fire, and Seismic Engineering

• Corrosion protection strategies extending structural service life

• Fire engineering principles for composite structural systems

• Seismic design improving structural resilience and ductility

• Fatigue resistance evaluation under long-term operational loading

Module 12: Digital Structural Engineering Technologies

• Building Information Modelling integration with composite design workflows

• Artificial intelligence supporting structural optimization and verification

• Digital twins enabling lifecycle performance monitoring and maintenance

• Parametric modeling improving engineering productivity and coordination

Module 13: Sustainable Composite Construction

• Sustainable material selection supporting low-carbon infrastructure projects

• Circular economy principles for steel reuse and concrete optimization

• Lifecycle assessment improving environmental performance evaluations

• Green construction methodologies supporting resilient infrastructure development

Module 14: Emerging Technologies and Innovation

• Modular composite construction accelerating project delivery schedules

• Robotic fabrication improving precision and manufacturing productivity

• Smart structural monitoring systems supporting predictive maintenance

• Advanced composite materials transforming future structural engineering

Module 15: Quality Assurance and Regulatory Compliance

• Quality management systems supporting composite structural construction

• Inspection and testing procedures verifying structural integrity

• Engineering documentation and compliance with international standards

• Best practices for risk management and continuous quality improvement

Module 16: Practical Composite Structure Design Workshop

• Comprehensive composite building and bridge design using real engineering scenarios

• Structural analysis, connection detailing, and performance verification exercises

• Fabrication planning, construction sequencing, and quality assurance simulations

• Final project presentation with technical review and implementation recommendations

Training Approach

This course will be delivered by our skilled trainers who have vast knowledge and experience as expert professionals in the fields. The course is taught in English and through a mix of theory, practical activities, group discussion and case studies. Course manuals and additional training materials will be provided to the participants upon completion of the training.

Tailor-Made Course

This course can also be tailor-made to meet organization requirement. For further inquiries, please contact us on: Email: training@upskilldevelopment.com Tel: +254 721 331 808

Training Venue 

The training will be held at our Upskill Training Centre. We also offer training for a group (at a discount of 10% to 50%) at requested location all over the world. The Onsite course fee covers the course tuition, training materials, two break refreshments, buffet lunch, airport transfers, Upskill gift package, and guided tour.

Visa application, travel expenses, dinners, accommodation, insurance, and other personal expenses are catered by the participant

Certification

Participants will be issued with Upskill certificate upon completion of this course.

Airport Pickup and Accommodation

Airport pickup and accommodation is arranged upon request. For booking contact our Training Coordinator through Email: training@upskilldevelopment.com, +254 721 331 808

Terms of Payment:

Unless otherwise agreed between the two parties’ payment of the course fee should be done 3 working days before commencement of the training so as to enable us to prepare better.