Experimental investigation of pressure-drop characteristics across multi-layer porous metal structures

This study investigates the effect of airflow (in the range of 0–70 m s-1) on the pressure-drop characteristics for a novel multi-layered, nickel-based porous metal, as a function of thickness (affected by sectioning) and density (affected by compression). In addition to generating unique data for t...

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Main Authors: Oun, Hatem, Kennedy, Andrew R.
Format: Article
Published: Springer Verlag 2014
Subjects:
Online Access:https://eprints.nottingham.ac.uk/34445/
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author Oun, Hatem
Kennedy, Andrew R.
author_facet Oun, Hatem
Kennedy, Andrew R.
author_sort Oun, Hatem
building Nottingham Research Data Repository
collection Online Access
description This study investigates the effect of airflow (in the range of 0–70 m s-1) on the pressure-drop characteristics for a novel multi-layered, nickel-based porous metal, as a function of thickness (affected by sectioning) and density (affected by compression). In addition to generating unique data for these materials, the study highlights the need for precise pinpointing of the different flow regimes (Darcy, Forchheimer and Turbulent) in order to enable accurate determination of the permeability (K) and form drag coefficient (C) defined by the Forchheimer equation and to understand the complex dependence of length-normalised pressure drop on sample thickness.
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institution University of Nottingham Malaysia Campus
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publishDate 2014
publisher Springer Verlag
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spelling nottingham-344452020-05-04T16:55:27Z https://eprints.nottingham.ac.uk/34445/ Experimental investigation of pressure-drop characteristics across multi-layer porous metal structures Oun, Hatem Kennedy, Andrew R. This study investigates the effect of airflow (in the range of 0–70 m s-1) on the pressure-drop characteristics for a novel multi-layered, nickel-based porous metal, as a function of thickness (affected by sectioning) and density (affected by compression). In addition to generating unique data for these materials, the study highlights the need for precise pinpointing of the different flow regimes (Darcy, Forchheimer and Turbulent) in order to enable accurate determination of the permeability (K) and form drag coefficient (C) defined by the Forchheimer equation and to understand the complex dependence of length-normalised pressure drop on sample thickness. Springer Verlag 2014-10-19 Article PeerReviewed Oun, Hatem and Kennedy, Andrew R. (2014) Experimental investigation of pressure-drop characteristics across multi-layer porous metal structures. Journal of Porous Materials, 21 (6). pp. 1133-1141. ISSN 1573-4854 Multi-layer porous structure High air-velocity Ergun equation Thickness effect Regime transition http://link.springer.com/article/10.1007%2Fs10934-014-9863-y doi:10.1007/s10934-014-9863-y doi:10.1007/s10934-014-9863-y
spellingShingle Multi-layer porous structure
High air-velocity
Ergun equation
Thickness effect
Regime transition
Oun, Hatem
Kennedy, Andrew R.
Experimental investigation of pressure-drop characteristics across multi-layer porous metal structures
title Experimental investigation of pressure-drop characteristics across multi-layer porous metal structures
title_full Experimental investigation of pressure-drop characteristics across multi-layer porous metal structures
title_fullStr Experimental investigation of pressure-drop characteristics across multi-layer porous metal structures
title_full_unstemmed Experimental investigation of pressure-drop characteristics across multi-layer porous metal structures
title_short Experimental investigation of pressure-drop characteristics across multi-layer porous metal structures
title_sort experimental investigation of pressure-drop characteristics across multi-layer porous metal structures
topic Multi-layer porous structure
High air-velocity
Ergun equation
Thickness effect
Regime transition
url https://eprints.nottingham.ac.uk/34445/
https://eprints.nottingham.ac.uk/34445/
https://eprints.nottingham.ac.uk/34445/