L.E. Dodd, N. Geraldi, B. Xu, G. Wells, S. Simone-Cole, J. Martin, M. Newton, G. McHale and D. Wood, “Low friction droplet transportation on a substrate with a selective Leidenfrost effect” ACS Applied Materials and Interfaces, August 2016, DOI: 10.1021/acsami.6b06738.
L.E. Dodd, N. Geraldi, B. Xu, G. Wells, S. Simone-Cole, J. Martin, M. Newton, D. Wood and G. McHale, “Selective Leidenfrost Effect with Micron Scaled Heaters”, HT/FE/ICNMM Conference, Washington, 10-14 July 2016, (oral presentation).
N.R. Geraldi, G. McHale, B. Xu, G.G. Wells, L.E. Dodd, D. Wood, M.I. Newton. “Leidenfrost transition temperature for stainless steel meshes” Materials Letters, vol. 176, pp. 205-208, August 2016, DOI: 10.1016/j.matlet.2016.04.124.
N. Geraldi, L.E. Dodd, B. Xu, G. Wells, S. Simone-Cole, J. Martin, M. Newton, D. Wood and G. McHale, “Leidenfrost Generation Using Non-Uniform Heat Profiles”, Droplets 2015, The Netherlands, 6-8 October 2015, paper P90 (poster presentation).
Leidenfrost Effect
A very interesting phenomenon, which involves heating a water droplet significantly past its boiling point, beyond which the droplet does not evaporate, but is instead supported on the vapour which is locally formed below the liquid.
Lubricating Channel and Tube Flows
Linzi’s newest project will involve optimising the internal surface of pipes to improve fluid flow. This is a 3 year EPSRC project, and will take place under the guidance of Prof. David Wood and in collaboration with Northumbia and Nottingham Trent Universities
