EUROTHERM Committee
This image depicts the evolution of a 3.8 mm equivalent diameter bubble, during its growth and departure from a 1 mm orifice, its rise and bouncing upon a heated surface. The release height in this case is 25 mm. Donoghue, Murray & Robinson, Fluids & Heat Transfer research group, Trinity College Dublin. Impinging jet full field flow velocity and turbulence intensity from PIV measurements in jet impingement study by T.S. O´Donovan (EUROTHERM Award winner, 2008). This image shows a nanochannel with a hot wall (left) and a cold wall (right). Heat transfer in the nanochannel is simulated using molecular dynamics and Monte Carlo methods; the research has been conducted by Nidea, Frijns, van Steenhoven and Markvoort (http://w3.wtb.tue.nl/fileadmin/wtb/wtb_energytechnology/poster_Silvia.pdf). This image shows pore scale simulation of heat and mass transfer in a metal foam. Plane sections: fluid velocity, solid surface and stream lines colored by solid and fluid temperature. Solid structure is reconstructed from 3D sample tomography. Simulations performed to obtain the effective (macroscale) transfer properties.  IUSTI Lab/Heat and Mass Transfer team/Jean-Michel HUGO



Publishers and Journals of Interest
Elsevier Science

Taylor & Francis Publisher

The American Society of Mechanical Engineers

John Wiley & Sons, Inc. Publishers

Begell-House Inc.

Edizioni ETS

R.T. Edwards Inc.

Springer Verlag

McGraw-Hill Publishing

Announcements

Eurotherm 2012
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Call for Nominations
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Upcoming Seminars
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