Daniel Mulvihill
Lecturer
Department of Engineering
University of Glasgow
United Kingdom
Biography
Daniel is currently Lecturer in Mechanical Engineering within the School of Engineering. The following is a summary of his career to date: Bachelor of Engineering (Hons.) in Mechanical Engineering (1.1), University of Limerick, Ireland (09/04 - 08/08) Doctor of Philosophy in Engineering Science, University of Oxford, Solid Mechanics and Materials Engineering Group, Department of Engineering Science (10/08 - 09/12) Irish Government Research Fellow, University of Limerick, Irish Composites Centre ICOMP, Dept. of Mechanical, Aeronautical and Biomedical Engineering (12/12 - 05/14) Visiting Researcher, EPFL Switzerland, Laboratory for Multiscale Mechanics Modelling LAMMM, Institute for Mechanical Engineering (06/14 - 10/14) Research Associate, University of Cambridge, Cambridge Centre for Micromechanics, Department of Engineering (11/14 - 05/16)
Research Interest
Tribology Friction, contact, fretting, wear, nanotribology, frictional and bonded joints Composite Materials Conventional carbon fibre composites, nanocomposites, carbon nanotube and graphene based composites, composites forming, composites testing and characterisation, frictional interfaces in composites, bonded joints. Experimental Mechanics Materials testing and measurement, tribological testing, materials imaging techniques (Optical, XRAY, SEM) and analysis (Digital image and volume correlation etc.). Computational Modelling Finite Element Analysis, Molecular Dynamics etc.
Publications
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Mulvihill, D. M. and Sutcliffe, M. P.F. (2017) Effect of tool surface topography on friction with carbon fibre tows for composite fabric forming. Composites Part A: Applied Science and Manufacturing, 93, pp. 199-206.
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Mulvihill, D. M. , Smerdova, O. and Sutcliffe, M. P.F. (2017) Friction of carbon fibre tows. Composites Part A: Applied Science and Manufacturing, 93, pp. 185-198.
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Kartal, M.E., Dugdale, L.H., Harrigan, J.J., Siddiq, M.A., Pokrajac, D. and Mulvihill, D.M. (2017) Three-dimensional in situ observations of compressive damage mechanisms in syntactic foam using X-ray microcomputed tomography. Journal of Materials Science, 52(17), pp. 10186-10197.