International semester Rail Road Bridges

Module learning goals

Design a railway corridor and understand the construction and commissioning logic behind a safe, maintainable rail infrastructure.

• Railway Alignment — 12.0 h

Expected Learning Outcomes

• Identify alignment constraints and key design parameters
• Propose an alignment concept consistent with terrain and function
  Content
  Alignment logic, constraints, geometry basics and corridor reasoning.

• Track Structure Design — 12.0 h

Expected Learning Outcomes

• Describe track structure components and performance drivers
• Link design choices to durability and maintenance constraints
  Content
  Track layers, materials, performance, and design-for-maintainability logic.

• Railway Drainage — 6.0 h

Expected Learning Outcomes

• Explain why drainage is critical for track performance
• Identify basic drainage solutions along a corridor
  Content
  Drainage principles, failure modes and practical drainage measures.

• Construction Methods for Railways — 12.0 h

Expected Learning Outcomes

• Describe typical rail construction sequences
• Anticipate constraints related to logistics and interfaces
  Content
  Construction phasing, constraints, site organisation and interface control.

• Quality Control and Commissioning — 6.0 h

Expected Learning Outcomes

• Identify quality checkpoints and acceptance logic
• Explain commissioning steps for operational readiness
  Content
  Quality routines, verification, acceptance criteria and commissioning logic.

• Railway Maintenance Methods — 12.0 h

Expected Learning Outcomes

• Recognise main maintenance strategies and triggers
• Link maintenance planning to performance and risk
  Content
  Maintenance methods, inspection routines, renewal logic and performance tracking.

Module learning goals

Design a road infrastructure with appropriate geometry and pavement choices, supported by constructability and quality control.

• Traffic Data and Design Criteria — 12.0 h

Expected Learning Outcomes

• Interpret traffic inputs and translate them into design criteria
• Connect level of service reasoning to geometric choices
  Content
  Traffic data, design criteria, performance indicators and decision drivers.

• Road Geometry Design — 18.0 h

Expected Learning Outcomes

• Apply road geometry principles to a design scenario
• Select cross-sections consistent with function and safety
  Content
  Alignment, cross-sections, safety considerations and design coherence.

• Pavement Design — 12.0 h

Expected Learning Outcomes

• Explain pavement design objectives and performance drivers
• Compare pavement options with respect to constraints
  Content
  Pavement structure basics, performance logic and option selection.

• Earthworks Construction Methods — 9.0 h

Expected Learning Outcomes

• Describe earthworks sequences and site constraints
• Identify risks and controls during earthworks execution
  Content
  Cut/fill logic, site organisation, constraints and quality considerations.

• Pavement Construction Methods — 6.0 h

Expected Learning Outcomes

• Describe key construction steps for pavements
• Recognise quality controls affecting durability
  Content
  Construction steps, compaction and execution factors influencing performance.

• Road Works Quality Control — 3.0 h

Expected Learning Outcomes

• Identify essential tests and acceptance criteria
• Explain how quality control reduces long-term risk
  Content
  QC checkpoints, acceptance logic and traceability basics.

Module learning goals

Integrate ground investigation, stability and retaining structures into corridor projects with practical construction control.

• Site Investigation — 9.0 h

Expected Learning Outcomes

• Identify investigation objectives and typical deliverables
• Link investigation results to design decisions
  Content
  Investigation logic and how data supports ground risk management.

• Earthworks Design — 9.0 h

Expected Learning Outcomes

• Define earthworks design objectives for a corridor
• Propose a cut/fill approach consistent with constraints
  Content
  Earthworks design logic, constraints and performance considerations.

• Soil Improvement Methods — 6.0 h

Expected Learning Outcomes

• Identify soil improvement options and when to use them
• Explain how improvement supports stability and performance
  Content
  Improvement strategies, objectives and practical use cases.

• Slope Stability and Protection — 9.0 h

Expected Learning Outcomes

• Recognise slope stability drivers and typical risks
• Propose protection measures conceptually
  Content
  Stability reasoning and protection approaches for transport corridors.

• Retaining Structures Design — 6.0 h

Expected Learning Outcomes

• Identify retaining structure types and selection drivers
• Link retaining choice to ground and construction constraints
  Content
  Retaining concepts and design choices driven by site conditions.

• Earthworks Construction Control — 3.0 h

Expected Learning Outcomes

• Identify key controls during earthworks execution
• Explain how controls reduce defects and long-term risk
  Content
  Construction control basics and acceptance routines.

Module learning goals

Coordinate water with other urban networks and plan corridors that remain buildable, maintainable and resilient.

4.1. Case Studies Workshop — 14.0 h

Expected Learning Outcomes

· Analyse a real project context and constraints

· Extract transferable lessons for design decisions Content Case-based learning focused on network coordination and project constraints.

4.2. Planning of Water Energy and Transport Corridors — 18.0 h

Expected Learning Outcomes

· Structure corridor planning from needs and constraints

· Identify conflicts and propose coordination rules Content Corridor planning principles, interface management and spatial constraints.

4.3. Design of Multi utility Corridors and Distribution Systems — 18.0 h

Expected Learning Outcomes

· Propose a corridor layout compatible with constructability

· Anticipate operation and maintenance constraints Content Design logics, interfaces, access/maintenance constraints and practical layout reasoning.

Module learning goals

Equip students with practical project methods to manage scope, cost, risk, and HSE across transport works.

• Design Management — 9.0 h

Expected Learning Outcomes

• Structure a design process and manage interfaces
• Identify decision gates and control points
  Content
  Design coordination, interface management and milestone logic.

• Construction Planning — 9.0 h

Expected Learning Outcomes

• Build a simple execution plan and phasing logic
• Anticipate constraints impacting schedule and resources
  Content
  Planning logic, phasing, constraints and coordination routines.

• Cost Estimation — 6.0 h

Expected Learning Outcomes

• Explain cost structure and estimation logic
• Compare options using cost-based reasoning
  Content
  Cost components, estimation approach and option comparison.

• Risk Management — 6.0 h

Expected Learning Outcomes

• Identify technical and project risks in corridor works
• Propose mitigation actions at concept level
  Content
  Risk identification, prioritisation and mitigation logic.

• Quality Health and Safety — 9.0 h

Expected Learning Outcomes

• Recognise HSE and quality requirements in works delivery

Integrate HSE constraints into planning decisions
Content
HSE essentials, quality routines and compliance implications

Module learning goals

Move from “build” to “operate”: asset management, monitoring and resilience strategies for long-term performance.

• Asset Management Principles — 9.0 h

Expected Learning Outcomes

• Explain core asset management concepts for infrastructures
• Identify performance indicators and decision drivers
  Content
  Asset thinking, performance, value and renewal logic.

• Maintenance Planning — 9.0 h

Expected Learning Outcomes

• Build a basic maintenance logic for a corridor asset
• Link maintenance strategy to risk and performance
  Content
  Maintenance types, triggers and planning principles.

• Condition Assessment — 6.0 h

Expected Learning Outcomes

• Identify condition indicators and assessment logic
• Translate assessment results into action priorities
  Content
  Condition assessment basics and decision implications.

• Infrastructure Monitoring — 6.0 h

Expected Learning Outcomes

• Explain monitoring objectives and typical systems
• Identify how monitoring supports maintenance and safety
  Content
  Monitoring concepts, sensors and decision support.

• Climate Resilience — 9.0 h

Expected Learning Outcomes

• Identify climate hazards impacting transport infrastructures
• Propose resilience strategies at system level
  Content
  Resilience thinking, adaptation measures and risk-informed choices.

Module learning goals

Deliver a corridor project that integrates rail, road, bridges, geotechnics, methods and asset logic.

• CPM — 50.0 h (PROJECT)

Expected Learning Outcomes

• Deliver an integrated corridor proposal with coherent assumptions
• Produce professional project outputs (reporting and presentation)
  Content
  Project framing, constraints mapping, option development, integration, final deliverables.