Sustainable Construction and Life Cycle
10 credits
This module is designed to deliver an understanding of sustainability principles and how, in particular, transport infrastructure engineering as well as the wider construction industry can contribute to sustainable development.
The module will include the following themes:
- Sustainability: an introduction to sustainability, sustainable development; sustainable construction; and how transport infrastructure engineering can contribute to sustainable construction.
- Environmental impacts of infrastructure construction: a review of the positive and negative environmental impacts of construction including resources and waste and energy and climate change.
- Social impacts of infrastructure construction: a review of the positive and negative social impacts of construction including; corporate social responsibility, responsible sourcing, poverty reduction and sustainable development goals.
- Assessment: indicators, assessment systems, environmental life-cycle assessment, life-cycle cost analysis.
Delivery
Activity |
Number of Weeks |
Number of sessions |
Duration of a session |
Lecture |
11 weeks |
1 week |
2 hours |
Workshop |
11 weeks |
1 week |
1 hour |
Assessment method
Assessment Type |
Weight |
Requirements |
Coursework |
100.00 |
2 hour exam |
Railway Technology
10 credits
This module will introduce the components of railway track structures, conventional and otherwise. It will include analysis of forces on a railway track and consequent deflections, stresses, alignment design principles, and an overview of the railway as a total system including operational issues, signalling and control.
Assessment method
This module is assessed by individual and group coursework (40%) and an exam (60%).
Delivery
Activity |
Number of Weeks |
Number of sessions |
Duration of a session |
Lecture |
11 weeks |
1 week |
2 hours |
Lecture |
11 weeks |
1 week |
1 hour |
Assessment method
Assessment Type |
Weight |
Requirements |
Coursework 1 |
20.00 |
Track maintenance group coursework - 4 spreadsheet returns at approx. 2 hours. |
Coursework 2 |
20.00 |
Track design individual coursework - 1,000 word report |
Exam |
60.00 |
One 2 hour exam |
Advanced Structural Design
20 credits
The module will look into the design of specialised structural systems such as composite beams and floors, portal frames, tubular trusses, and pre-stressed concrete beams and slabs. It will also look into connection behaviour, the design of steel moment connections and sway stability of buildings. A major group design exercise will illustrate the approach to the design of complete structures.
Dynamics and Wind Engineering
20 credits
For efficiency and clarity, the module will have complementary themes running in parallel at times, as shown below:
Wind Engineering Theme
|
Dynamics Theme
|
Basic meteorology
Global circulation; subtropical cyclones; gradient winds
|
Single degree of freedom (SDOF) systems
Equation of motion; damping cases; free and forced vibration
|
Wind characteristics
Wind spectra; parent winds; turbulence; atmospheric boundary layer
|
Multiple degrees of freedom (MDOF) systems
|
Bluff body aerodynamics
Flow around cylinders and buildings; pressure coefficients
|
Continuous systems
|
Wind Engineering Tools
Eurocode; wind tunnel modelling; computational wind engineering
|
Wind-structure interaction
Buffeting; vortex-induced vibration; galloping; flutter
|
The module will involve two pieces of individual courseworks in wind loading and buffeting.
Method and Frequency of Class:
Activity |
Number of Weeks |
Number of sessions |
Duration of a session |
Lecture |
11 weeks |
3 week |
2 hours |
Method of Assessment:
Assessment Type |
Weight |
Requirements |
Coursework 1 |
15.00 |
Individual project using Eurocde to predict forces on a low-rise structure. |
Coursework 2 |
15.00 |
Individual project using Matlab coding to model the dynamic response of a building to wind excitation. |
Exam |
70.00 |
Three hour examination. |
Geotechnical Modelling
20 credits
This module will reinforce and advance some of the principles of soil mechanics previously learnt, and describe the principles of Critical State Soil Mechanics (CSSM), a model used to predict the behaviour of soils.
It includes revision of previous concepts, shear box and triaxial tests data analysis, critical state line, elasticity and plasticity, development of an elasto-plastic soil model, and constitutive model application in numerical simulations.
Students will learn about and conduct their own triaxial tests on soil samples within the laboratory such that they can obtain constitutive model parameters for the soil. Students will learn to use a finite element method (FEM) software package that is popular for geotechnical analyses as well as the principles of physical modelling using a geotechnical centrifuge. The coursework element will require students to use constitutive model parameters obtained from triaxial testing within FEM analyses.
The FEM analyses will include
- the replication of the triaxial tests and verification of results against analytical predictions (using CSSM), and
- simulation of a boundary value problem (e.g. vertical loading of a foundation), for which they will compare numerical predictions against a centrifuge test data set provided to them.
Delivery
Activity |
Number of Weeks |
Number of sessions |
Duration of a session |
Computing |
3 weeks |
3 weeks |
2 hours |
Lecture |
8 weeks |
3 weeks |
2 hours |
Assessment method
Assessment Type |
Weight |
Coursework |
50.00 |
Coursework |
50.00 |
Coastal Engineering
20 credits
This module provides an introduction to coastal engineering. This includes:
- Waves, tides, and wave-generated and tidal currents
- Beaches and sediments
- Tidal energy
Delivery
Activity |
Number of Weeks |
Number of sessions |
Duration of a session |
Lecture |
11 weeks |
1 week |
3 hours |
Lecture |
11 weeks |
1 week |
3 hours |
Assessment method
Assessment Type |
Weight |
Requirements |
Coursework 1 |
15.00 |
|
Coursework 2 |
10.00 |
|
Exam |
75.00 |
Three hour examination |
Managing Infrastructure and Systems
10 credits
This module considers some of the most commonly-used system reliability assessment techniques applied to support system management.
It covers the construction of reliability models that use basic component failure information to describe specific system failure modes, the qualitative and quantitative analyses of these models, and the critical evaluation of systems using the analytical results. The models will be discussed in the context of their application to engineering systems and infrastructure assets.
The module aims to provide students with:
- An understanding of the basic statistical, probabilistic and mathematical concepts required to predict the reliability of components and systems.
- A detailed knowledge of the most commonly used system reliability assessment techniques.
- The ability to critically evaluate systems and assets using mathematical models.
Assessment method
This module will be assessed by an in-class test (20%) and an exam (80%).
Computational Structural Analysis
20 credits
The module will introduce concepts of linear and nonlinear finite element theory for structural engineering.
Content will involve finite element formulation, i.e. bar, beam, plane stress, plane strain and plate/ shell elements as well as their implementation within the direct stiffness method. Aspects of material and geometrical nonlinearities will be examined and the particular cases of concentrated and distributed plasticity beam element formulations for skeletal structures will introduced.
Load, displacement, and general control nonlinear static analysis schemes will also be examined and implemented for the solution of finite element problems. Concepts will be practiced through two individual pieces of coursework on linear and non-linear finite element theory respectively. Coursework will involve both a theory implementation and an analysis aspect using software.
Method and Frequency of Class:
Activity |
Number of Weeks |
Number of sessions |
Duration of a session |
Lecture |
11 weeks |
2 week |
2 hours |
Workshop |
11 weeks |
1 week |
2 hours |
Method of Assessment:
Assessment Type |
Weight |
Requirements |
Coursework 1 - Finite Element |
15.00 |
|
Coursework 2- Non-linear analysis |
15.00 |
|
3 hr exam |
70.00 |
Environmental Fluid Mechanics
This module introduces fundamental principles of environmental fluid mechanics focusing on buoyancy driven flows, fluid instabilities and the effects of the earth’s rotation on large scale oceanographic and atmospheric features.