In the dynamic field of materials science and engineering, my research stands at the forefront of understanding and manipulating the intricate inner structures of structural components. My work is driven by the fundamental belief that by tailoring these structures, we can customise components to meet specific application needs and performance criteria. My approach blends advanced computational analysis with experimental techniques. I explore the complexities of material structures, unraveling the interactions that govern their behaviour under various loading and support scenarios. This dual-methodology offers a comprehensive understanding, highlighting the synergistic dynamics of load-carrying mechanisms within structures.
A key aspect of my research is the integration of bio-inspired paradigms into material and system design. This innovative angle enables me to leverage nature's ingenuity, crafting materials and systems with unparalleled properties and adaptability across scales. My work employs state-of-the-art algorithms and simulations to extend the capabilities of conventional experimental methods. Moreover, my research encompasses the investigation and mitigation of failure mechanisms in structures, especially under extreme thermomechanical conditions. This focus underscores my dedication to ensuring resilience and reliability in engineering designs, a critical consideration in our rapidly advancing technological world.
Case Studies
Pharmaceutical Tablets: Utilising EDEM software's discrete element modeling, the compaction process in orodispersible tablets was simulated, enhancing their suitability for patients with swallowing difficulties.
Bone Regeneration: A series of sophisticated finite element models were developed for bio-inspired piezoelectric scaffolds. These models, optimised using the Taguchi method and calibrated with experimental results, exhibit self-adaptability, mimicking natural bone regeneration.
Floating Solar Panels: Innovatively reducing computational demands, a finite element approach was formulated for heat transfer in floating solar panels, using only a fraction of the degrees of freedom typically required in software simulations.
Structures in Fire: Through large-scale tests on plates with unrestrained edges, my research revealed the formation of a 'compressive ring', akin to a trampoline's rigid ring, under certain conditions. This phenomenon was successfully simulated, offering new insights into structural behaviour in fire.
Subsea Pipelines: Focusing on marine risers, essential in transporting fluids between floating vessels and subsea wells, the static and dynamic behaviour of risers were analysed. This research is crucial in understanding the resilience of these multi-layered components under oceanic conditions.
Qualifications and expertise
- UK EPSRC Summer School on Meshless Methods in Mechanics, Cardiff University (UK)
- Open System for Earthquake Engineering Simulation (OpenSees), The University of Edinburgh (UK)
- Fire Dynamics & Fire Safety Engineering Design CPD, BRE Centre for Fire Safety Engineering (UK)
- Fire Science and Fire Investigation CPD, BRE Centre for Fire Safety Engineering (UK)
- Computer-Aided Engineering
- Engineering Mechanics and Materials
Areas of specialism
- Computational modelling and simulation
- Smart materials, structures and systems
- Bio-inspired design and biomaterials
- Architected materials and structures
- Failure mechanisms of structural systems and components
Scholarly affiliations
- Member, EPSRC Peer Review College
- Chartered Member, Institution of Mechanical Engineers (IMechE)
- Senior Member, American Institute of Aeronautics and Astronautics (AIAA)
- Member, Institute of Physics (IOP)
- Member, American Society of Mechanical Engineers (ASME)
Research student supervision
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