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Henry Burridge

Henry  Burridge

Post-doctoral Research Associate


Email:
Office Phone: 01223 764064

Research Interests

Henry is a member of the Environmental and Industrial Fluid Dynamics research group in the Department of Applied Mathematics and Theoretical Physics. His research interests include the transport of heat and mass by convection, and the modification of natural materials for use in buildings.

Key Publications

  •  H. C. Burridge, A. Mistry and G. R. Hunt (2015). The effect of source Reynolds number on the rise height of a fountain. Physics of Fluids, In Press.
  • G. R. Hunt and H. C. Burridge (2015). Fountains in industry and nature. Annual Review of Fluid Mechanics, 47, pp 195-220.
  • H. C. Burridge and G. R. Hunt (2014). Scaling arguments for the fluxes in turbulent miscible fountains. Journal of Fluid Mechanics, 744, pp 273-285.
  • H. C. Burridge and G. R. Hunt (2013). The rhythm of fountains: the length and time scales of rise height fluctuations at low and high Froude numbers. Journal of Fluid Mechanics, 728, pp 91-119.
  • H. C. Burridge and G. R. Hunt (2012). The rise heights of low- and high-Froude-number turbulent axisymmetric fountains. Journal of Fluid Mechanics, 691, pp 392-416.

RSS Feed Latest news

A strategy to improve the processing of softwood to sustainable biomaterials and biofuels

Sep 21, 2017

In a paper recently published in Biotechnology for Biofuels we are looking at a possible way to improve the processing of timber derived from conifers to feedstock used for sustainable manufacturing of novel biomaterials and biofuels. Softwood, as any other timber, is predominantly composed of plant secondary cell walls - an intricate matrix of polysaccharides and phenolic compounds which surround wood cells. Due to abundance of trees, plant secondary cell walls are the largest, renewable, resource of bioenergy on the planet.

Green method developed for making technical fibres

Sep 07, 2017

The team at the Centre for Natural Material Innovation has designed a super stretchy, strong and sustainable material that mimics the qualities of spider silk and viscose rayon, and is ‘spun’ from a material that is 98% water.

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