Civil Engineering MSc

Core Modules:

Research and Professional Skills

This module fosters best practice in engineering-related research/professional skills and delivers a range of training activities to meet the needs of professional engineers dealing with research and technological development.

15 credits

Regenerative Design Project

This module involves working in groups to address complex, real-world engineering problems. The module will involve receiving, interrogating, and developing a project brief, then drawing on myriad sources to develop options. Students will conduct stakeholder engagement and systems thinking to develop options which meet ecological, ethical, social and technical needs. In doing so will develop holistic concept / scheme stage designs, using engineering calculations to rapidly validate design options, and to inform decision making. Students will then communicate their proposals and reflect on their learning.

15 credits

Advanced Engineering Research Study

This module represents a major element of the Masters programme, with the aim of enabling you to learn skills in scientific investigation and in running and presenting a project. You are required to submit a comprehensive (bound) report describing the individual work that you have done during the summer semester.

60 credits

Semester 1 Optional Modules:

Engineering within Planetary Capacity

It is projected that by 2050 the human population will be 10 billion, with over 75% concentrated in urban and megacity areas. It is essential that engineering solutions are developed to create and maintain an urban built environment that can meet rapidly changing societal needs, whilst being within the carrying capacity of the planet. This module will equip you with the skills to develop and analyse built environment engineering solutions to ensure they operate within planetary boundaries.

15 credits

Advanced Structural Analysis and FE Methods

This module will cover the theoretical and practical aspects of using numerical analysis methods, with emphasis on the Finite Element Method (FEM). The module starts with the fundamentals of the FEM to then cover practical applications to structural problems and interpretation of results.

15 credits

Structural Dynamics and Earthquake Engineering

This module is designed to provide you with a systematic knowledge and understanding of structural dynamics and its applications in Civil Engineering. On successful completion of this module, you will be able to perform calculation and analyse vibration response of single-degree-of-freedom and multi-degree-of-freedom systems and apply simple structural dynamics theory to solve practical problems in earthquake engineering.

15 credits

Groundwater Engineering

This module provides a comprehensive introduction to the principles of groundwater flow and subsurface hydrology, with a focus on both theoretical and practical applications. It covers the fundamental concepts of groundwater movement through porous media, the interaction between surface water and groundwater, and the role of aquifers in water storage and supply. The module also examines seawater intrusion in coastal aquifers and its impact on groundwater management and sustainability. Students will explore methods for assessing and modelling groundwater flow and contaminant transport, with a focus on practical techniques such as well hydraulics, pumping tests, and the design of groundwater remediation systems. By building a strong understanding of subsurface flow dynamics and groundwater flow to wells, students will acquire the skills necessary to analyse groundwater systems at local and regional scales, using qualitative and quantitative approaches to address issues related to water resource management, pollution, and environmental protection.

15 credits

Climate Resilient Water Infrastructure Design

This module aims to equip you with the necessary conceptual knowledge and engineering skills to effectively address the uncertainties associated with climate change, socio-economic factors, and technological advancements in the design of water infrastructure. The module employs computer-assisted exploration, hands-on Python programming, and various interactive interventions (guest lecture, serious game) to empower you in developing robust designs capable of maintaining their intended function throughout the infrastructure's lifetime. The module's objectives include evaluating climate and other risks to water infrastructure, comprehending how they change traditional water engineering design practice, and providing you with essential concepts and methodologies for managing these uncertainties.

15 credits

Semester 2 Optional Modules:

Geotechnical Infrastructure

The module will focus on the analysis and sustainable design of large scale geotechnical infrastructure and systems, such as embankment dams, levees and tunnels. Aspects of uncertainty and risk, particularly in the context of a changing climate, will be developed related to ultimate and serviceability limit states, using a range of historical case histories within the published literature. A forensic investigative analysis will be conducted on a case study of geotechnical failure, benefiting from data from the literature and numerical modelling. This will be complemented by a consideration of soil acting as both a continuum and as a particulate system, and by an examination of the role of physical modelling, analytical models, constitutive models, and the geological model.

15 credits

Innovations in Construction Materials and Technologies

This research-led module will familiarise students with some of the innovative materials and technologies used in the construction industry for the design and execution of new structures and the rehabilitation of existing infrastructure. The module will deal with: the use of innovative solutions for reinforcing and strengthening concrete structures (e.g. Fibre Reinforced Polymers - FRP, Textile Reinforced Mortars - TRM); the development of Ultra High Performance Concrete (UHPC) and its structural applications; the development of low-carbon sustainable concretes, including geopolymer concrete, and their applications; recent material and product developments (e.g. self-healing concrete), state-of-the-art additive construction techniques (e.g. concrete 3D printing). Existing design guidelines and state-of-the-art research in the field will be reviewed and discussed, and complemented by practical tutorials, seminars and laboratory sessions.

15 credits

Design and Management of Sewer Systems

This module will provide students with a high level of knowledge and understanding as to how sewer and stormwater drainage systems operate in the UK. Teaching will focus on acquiring knowledge about current and emerging regulatory, management and design practices. Students will be required to understand the environmental and sustainbility issues associated with this type of infrastructure system. Students will apply industry standard design approaches in a case study, considering hydraulic and pollution concepts to evaluate and modify the performance of the case study network to meet current regulatory requirements, anticipated future pressures whilst considering the long term sustainability of the system. Students will be expected to demonstrate their level of knowledge and understanding via application in the case study sewer network.

15 credits

Urban Stormwater Management

This module is designed to provide you with an understanding of the fundamental concepts and processes associated with hydrology and urban drainage design, and to apply these concepts to a variety of drainage engineering problems. Through lectures, tutorials and individual literature and case study research, you will develop your knowledge of current and developing practice in urban drainage, including the increasingly important roles of Sustainable Drainage Systems (SuDS) (also know as 'Sponge Cities').

This module aims: (i) to develop knowledge and understanding of current and developing practice in urban drainage engineering/urban stormwater management; and (ii) to develop skills in applying fundamental hydrological and hydraulic knowledge to drainage design.

15 credits

Blast and Impact Effects on Structures

This module introduces students to issues related to material and structural response high-magnitude, transient loading, such as those generated by explosions or impacts. The module includes quantification of blast load parameters, qualitative assessment of material and structural response, development of closed-form and numerical calculation methods to quantify structural response and an appraisal of codes of practice guidance intended to increase the resilience of structures to these loads. Teaching takes place predominantly in lecture and tutorials with some computer laboratories.

15 credits

Structural Analysis and Design for Fire

The course will provide an overview of the fire hazard in buildings and measures necessary for life safety and containment of losses. The response of steel and composite structures will be covered in greatest detail, and concrete and timber framing will also be discussed. Traditional design approaches and new design strategies will be discussed, including 'design for fire' parts of Eurocodes 1, 2, 3 and 4. The evidence from recent research including full-scale fire testing at Cardington will be covered. Both intermediate and advanced methods of analysis, and the influence of various parameters, will be discussed. Likely future developments will be reviewed, including measures to ensure robustness in fire.

15 credits

Seismic Resistant Design and Strengthening

The aim of this module is to teach the principles of modern seismic design of structures, the methodology of the European design code (Eurocode 8) and the main concepts of seismic performance of structures. The module will be delivered through lectures and computer-lab sessions in which students will be working on a project

15 credits