Research Includes:
This module provides a comprehensive introduction to the analysis, design and control of dynamic systems. Whilst the theoretical principles covered are relevant to general dynamic systems, often a focus will be placed on systems within an aerospace context. During the first half of the module, we establish the fundamentals of structural vibration. Starting with the dynamic behaviour of single-degree-of-freedom systems, including examining the critical roles of natural frequency, damping, harmonic excitation, and vibration transmission, we progress onto more advanced topics including transient dynamics, frequency domain analysis, and the impulse response function. An introduction to the analysis of multi-degree-of-freedom (MDOF) systems - specifically focusing on two-degree-of-freedom cases - will be provided, covering calculation of natural frequencies and mode shapes. The second half of the module explores the control of dynamic systems, focusing on methods for modeling and assessing transient and steady-state behaviour, and stability performance. Time-domain responses and frequency-domain methods are covered, building towards compensation strategies such as PID and lead/lag compensation towards the end of the module. The material taught will equip students with the basic techniques required to analyse and design effective feedback control systems.
This module provides students with a deep understanding of construction methods applied to building works, focusing on the design and use of temporary structures. Topics include the use of timber, steelwork, formwork, scaffolding, and falsework in building projects, as well as specialist methods like tunnelling and bridge erection. Practical PC lab sessions provide hands-on experience in designing temporary works such as hoardings. The module prepares students to assess wind load, structural stability, and the fabrication of temporary structures, ensuring their safe and efficient use in building works. Assessments include quizzes and a PC lab design project.
This module provides students with a deep understanding of construction methods applied to building works, focusing on the design and use of temporary structures. Topics include the use of timber, steelwork, formwork, scaffolding, and falsework in building projects, as well as specialist methods like tunnelling and bridge erection. Practical PC lab sessions provide hands-on experience in designing temporary works such as hoardings. The module prepares students to assess wind load, structural stability, and the fabrication of temporary structures, ensuring their safe and efficient use in building works. Assessments include quizzes and a PC lab design project.
This module offers students the opportunity to work in teams on real-world projects provided by industry experts from the UK construction sector. The projects are designed to mirror the challenges and complexities of large-scale construction management tasks, providing an immersive experience in a professional environment. The group project emphasises teamwork, communication, and project management skills, with clear roles for individual contributions within the group. Each group will consist of 5-6 students, working collaboratively to solve a multifaceted construction management challenge. Projects will be structured to include individual responsibilities and assessments (30%) as well as collaborative tasks assessed at the group level (70%). The module adheres to AHEP4 standards while effectively preparing students for professional roles in construction management.
This module introduces the fundamentals of the Finite Element Method (FEM) and structural dynamics, enabling students to analyse and simulate a wide range of engineering problems. It covers the formulation and application of FEM to elastic structures and heat conduction, supported by computer programs illustrating the development of finite element software. The second part develops the understanding of dynamic behaviour of linear structures under general time-dependent loading, including the use of time-stepping schemes for linear dynamic and transient analysis. By combining these areas, students will gain the theoretical knowledge and practical skills necessary to model, simulate, and interpret complex engineering systems under both static and dynamic conditions.
This module aims to develop the understanding and skills necessary to analyse linear structures under general dynamic, including earthquake loading, and to understand the use of time stepping schemes for linear dynamic and transient problems.
2008 - Present
2008 - Present
2008 - Present
