The effective thermal conductivity of open- and closed-cell aluminium foams with stochastic pore morphologies has been determined by numerical, analytical and experimental methods. A three dimensional analysis technique has been used where numerical calculation models are generated based on 3D computed tomographic (CT) reconstructions. The resulting three dimensional grid models are used for thermal Lattice Monte Carlo (LMC) analyses. The second part of this paper addresses experimental measurements of open-cell M-pore® and closed-cell Alporas® cellular aluminium. Finally, results obtained using both approaches are compared to classical analytic predictions
Nowadays, the need for developing more effective heat exchange technologies and innovative materials...
The Lattice Monte Carlo method is a computationally intensive approach towards the study of thermal ...
This paper addresses the thermal properties of syntactic metal foam made by embedding expanded perli...
The effective thermal conductivity of open-and closed-cell aluminium foams with stochastic pore morp...
This work addresses the effective thermal conductivity of cellular metals. Analytical relations for ...
Advanced pore morphology (APM) foam elements have a spherical outer skin and a porous inner structur...
International audienceX-ray tomography is used to produce three-dimensional images of an aluminium a...
This work addresses the thermal finite element analysis (FE) of cellular aluminium with irregular po...
Aluminum foam is a type of cellular materials generally characterized by high porosity; it contains ...
Foams made of aluminum or aluminum alloys are used in many application areas, e.g. as heat exchanger...
In this paper, anisotropy and RVE for the effective thermal conductivity of open-cell metal foams ar...
Effective thermal conductivity (ETC) is a considerable thermo-physical property in design, manufactu...
Metal foams are being widely adopted in a number of applications relevant to heat transfer, in which...
Nowadays, the need for developing more effective heat exchange technologies and innovative materials...
Among different promising solutions, coupling closed-cell aluminium foam composite panels prepared b...
Nowadays, the need for developing more effective heat exchange technologies and innovative materials...
The Lattice Monte Carlo method is a computationally intensive approach towards the study of thermal ...
This paper addresses the thermal properties of syntactic metal foam made by embedding expanded perli...
The effective thermal conductivity of open-and closed-cell aluminium foams with stochastic pore morp...
This work addresses the effective thermal conductivity of cellular metals. Analytical relations for ...
Advanced pore morphology (APM) foam elements have a spherical outer skin and a porous inner structur...
International audienceX-ray tomography is used to produce three-dimensional images of an aluminium a...
This work addresses the thermal finite element analysis (FE) of cellular aluminium with irregular po...
Aluminum foam is a type of cellular materials generally characterized by high porosity; it contains ...
Foams made of aluminum or aluminum alloys are used in many application areas, e.g. as heat exchanger...
In this paper, anisotropy and RVE for the effective thermal conductivity of open-cell metal foams ar...
Effective thermal conductivity (ETC) is a considerable thermo-physical property in design, manufactu...
Metal foams are being widely adopted in a number of applications relevant to heat transfer, in which...
Nowadays, the need for developing more effective heat exchange technologies and innovative materials...
Among different promising solutions, coupling closed-cell aluminium foam composite panels prepared b...
Nowadays, the need for developing more effective heat exchange technologies and innovative materials...
The Lattice Monte Carlo method is a computationally intensive approach towards the study of thermal ...
This paper addresses the thermal properties of syntactic metal foam made by embedding expanded perli...