Most popular articles
Everything About Peaches. Clemson University Cooperative Extension Service Everything About Peaches Website: whether you are a professional or backyard peach...
Mission Statement. For the sake of mankind and the world as a whole a further increase of the sustainability...
Newsletter 9: July 2013 - Temperate Fruits in the Tropics and Subtropics. Download your copy of the Working Group Temperate...
USA Walnut varieties. The Walnut Germplasm Collection of the University of California, Davis (USA). A description of the Collection and a History...
China Walnut varieties.

Articles

SIMULATION OF THE PROFILE OF LOSS IN CHARGE OF AIR FLOW IN A CHARCOAL FIXED BED

Article number
1008_39
Pages
295 – 301
Language
English
Abstract
The charcoal demand in Brazilian steel industry has been growing strongly during the last few years.
This fact has been motivating charcoal producers to increase their productive system utilization, by reducing its cycle time, mainly, the refrigeration time.
In order to optimize the system, it is necessary to find out the gas: velocity, pressure and temperature distribution passing through charcoal medium.
These distributions can be obtained by physical experimentation or computational simulation, as computational fluid dynamics (CFD). Computational simulation (CFD) allows to solve, quickly, many engineering problems, even the most complex, with low cost.
Thus, this work was made aiming to determinate the static pressure drop profile on fluid flow through a charcoal medium.
To perform the simulation, the medium porosity considered was 0.47, the linear loss coefficient was 24 kg m3 s-1 and the quadratic loss coefficient was 343 kg m-4. It was found that the pressure drop profile had a behavior very similar to the other models, commonly used in other agricultural products.

Publication
Authors
I.S. Dos Santos, E.G. Pereira, M.A. Martins, A.C.O. Carneiro , M.P. Coelho
Keywords
CFD, cooling, porous medium
Full text
Online Articles (40)
B. Bonicelli | E. Cotteux | B. Ruelle | V. De Rudnicki | C. Sinfort
A. Giannoulis | A. Mistriotis | N. Papardaki | D. Briassoulis
I.J. Moncho-Esteve | G. Palau-Salvador | P.A. López-Jiménez | W. Brevis | M.O. Vaas
G. Arbat | J. Puig-Bargués | M. Duran-Ros | F. Ramírez de Cartagena | T. Pujol | L. Montoro | J. Barragán
P. Vidal-López | B. Martin-Gorriz | V. Martínez-Alvarez | B. Gallego-Elvira
J. Flores-Velazquez | F. Villarreal Guerrero | I.L. Lopez | J.I. Montero | D. Piscia
K. Kuffi | T. Defraeye | B. Nicolai | A. Geeraerd | P. Verboven | E. Koninckx | S. Lescouhier | S. De Smet
A. Ambaw | P. Verboven | M.A. Delele | T. Defraeye | E. Tijskens | A. Schenk | B. Nicolai
M. De Paepe | P. Demeryer | J. Pieters | W. Cornelis | D. Gabriels | B. Merci
B. Morille | R. Genez | C. Migeon | P.E. Bournet | H. Bouhoun Ali
A.T. Duga | A.M. Endalew | B. Nicolai | P. Verboven | D. Dekeyser | D. Nuyttens | N. Hendrickx
S.-W. Hong | I.-B. Lee | I.-H. Seo | J.P. Bitog | K.-S. Kwon
I.S. Dos Santos | E.G. Pereira | M.A. Martins | A.C.O. Carneiro | M.P. Coelho