Exploring the Interplay of Computational Mechanics, Fluid Dynamics, and Thermal Analysis in Engineering Systems

Our research group in school of Engineering Technology and Design (ETD) at Canterbury Christ Church University (CCCU) focuses on cutting edge projects at intersection of computational mechanics, computational fluid dynamics (CFD), thermal analysis and fluid-structure interaction (FSI). The current project aims to enhance our understanding of various engineering systems' behaviour and performance, employing advanced numerical techniques and simulation tools available at CCCU.

In the field of computational mechanics, we explore the structural response and integrity of engineering components as well as entire systems under dynamic loading conditions. This involves study of mechanics of materials, dynamic modelling, fracture mechanics, and finite element analysis in order to ensure the durability and reliability of engineering systems. We also conduct stress analysis, fatigue analysis, and vibration analysis to predict and enhance the lifespan and safety of engineering structures. In parallel, our research explores CFD and thermal analysis to understand fluid flow, heat transfer, and energy optimisation in diverse applications, such as heat exchangers, HVAC systems, and renewable energy devices.

Furthermore, our interdisciplinary approach combines computational mechanics and computational fluid dynamics (CFD) to tackle complex engineering challenges seamlessly. One of the key areas of our investigation is Fluid-Structure Interaction (FSI) which focuses on the relationship between fluid flow and solid structures. Our studies include examining the aerodynamics of wind turbines and bridges, as well as assessing the hydrodynamic loads on offshore structures, all of which require a deep understanding of both fluid behaviour and structural response under various environmental conditions. By integrating computational mechanics with CFD, thermal analysis, and FSI, our research paves the way for a comprehensive understanding and optimisation of complex engineering systems.

We are excited to welcome motivated PhD students who are eager to contribute to our team's groundbreaking research in one/any of these captivating areas. In addition to the rich academic environment at CCCU, candidates will have the opportunity to utilise our hi-tech computing labs. These state-of-the-art facilities are equipped with advanced engineering simulation tools for mechanical and Multiphysics applications, offering a unique platform for conducting sophisticated research in computational mechanics, fluid dynamics, and thermal analysis. Our modern infrastructure “Verena Holmes” £65 million building, further enriches the research experience with its advanced design and manufacturing facilities, which can bridge the gap between theoretical research and practical applications in real-world engineering systems.

Given the self-funded nature of this PhD program, we also encourage applicants to bring their own research ideas for discussion, if needed, allowing for a tailored and personalised research journey that aligns with both our expertise and your academic interests. Candidates with some recent and previous experience in the design and modelling of engineering systems will find this program particularly fitting. Additionally, experience with industry-standard software such as ANSYS for finite element analysis, COMSOL for Multiphysics simulations, and MATLAB for numerical computing and algorithm development would be highly favourable.