Subject Overview

An advanced professional study of bridge planning, analysis, design, construction, inspection and lifecycle management. The subject integrates structural, geotechnical, hydraulic, seismic, materials and managerial engineering with modern codes, sustainability, digital systems and risk-based decision-making.

Learning Goal

Students will be able to conceive, analyse, design, deliver and manage safe, durable and sustainable bridge systems; evaluate alternatives using technical, economic and risk criteria; apply relevant standards; and use contemporary monitoring, analytics and digital technologies responsibly.

Syllabus

1. Bridge Engineering Fundamentals and Terminology

Learning Objective: Explain bridge components, load paths, classifications, structural forms, span ranges, historical development, performance requirements and the roles of project stakeholders.

Category: foundation

2. Bridge Planning, Site Investigation and Concept Selection

Learning Objective: Conduct feasibility studies using surveys, traffic forecasts, geology, geotechnics, hydrology, navigation, environmental constraints, constructability, aesthetics and multicriteria option assessment.

Category: foundation

3. Design Codes, Loads and Structural Reliability

Learning Objective: Apply limit-state design, load combinations, influence lines, dynamic allowances, fatigue provisions and reliability principles for dead, traffic, wind, thermal, hydraulic, seismic, collision and accidental actions using applicable standards.

Category: core

4. Bridge Materials, Durability and Deterioration

Learning Objective: Evaluate concrete, prestressed concrete, structural steel, composites, masonry and emerging materials; analyse corrosion, fatigue, cracking, creep, shrinkage, weathering and durability design for specified service life.

Category: core

5. Structural Analysis and Modelling of Bridges

Learning Objective: Analyse bridge behaviour using classical methods, grillage models, finite elements, staged construction, geometric and material nonlinearity, soil–structure interaction, dynamic analysis and model verification.

Category: core

6. Concrete and Prestressed Concrete Bridges

Learning Objective: Design reinforced and prestressed concrete slab, beam, box-girder and segmental bridges, including flexure, shear, torsion, serviceability, prestress losses, detailing and construction-stage effects.

Category: core

7. Steel and Composite Bridges

Learning Objective: Design steel plate-girder, truss, box-girder and steel–concrete composite bridges considering buckling, fatigue, fracture, connections, bracing, erection stability and corrosion protection.

Category: core

8. Long-Span and Special Bridge Systems

Learning Objective: Assess arch, cable-stayed, suspension, movable and integral bridges, including cable behaviour, aerodynamic stability, nonlinear response, erection strategy and system-specific design challenges.

Category: advanced

9. Substructures, Foundations and Hydraulic Design

Learning Objective: Design piers, abutments, retaining systems, shallow and deep foundations while addressing earth pressures, settlement, scour, river hydraulics, debris, vessel impact and geotechnical uncertainty.

Category: core

10. Seismic, Wind and Extreme-Event Engineering

Learning Objective: Evaluate bridges under earthquakes, wind, flooding, fire, blast, landslides and impact; apply ductility, capacity design, isolation, damping, redundancy, robustness and resilience-based design principles.

Category: advanced

11. Bearings, Expansion Joints and Bridge Appurtenances

Learning Objective: Specify and design bearings, joints, drainage, parapets, barriers, approach slabs, utilities and deck surfacing with attention to movement, accessibility, maintainability and user safety.

Category: application

12. Construction Engineering and Quality Management

Learning Objective: Plan cast-in-situ, precast, incremental launching, balanced cantilever, span-by-span and accelerated bridge construction; design temporary works and manage erection, safety, quality assurance and construction risk.

Category: application

13. Inspection, Testing and Structural Health Monitoring

Learning Objective: Perform condition assessment using visual inspection, nondestructive testing, load testing, instrumentation and structural health monitoring; interpret data to diagnose defects and evaluate structural capacity.

Category: application

14. Rehabilitation and Lifecycle Asset Management

Learning Objective: Select repair, strengthening, retrofit and replacement strategies using condition ratings, deterioration models, lifecycle costing, reliability, risk assessment, prioritisation and network-level bridge management systems.

Category: strategic

15. Digital, Sustainable and Future Bridge Engineering

Learning Objective: Apply BIM, GIS, digital twins, drones, remote sensing, IoT, automation, data analytics and explainable AI to bridge delivery and management; evaluate low-carbon design, climate resilience, procurement, governance, ethics, cybersecurity and emerging smart materials and autonomous construction.

Category: contemporary