Gas-wall interactions under rarefied conditions

A.J.H. Frijns; S.V. Nedea; J. Stafford; P. Perrier; I. Graur

Gas-wall interactions under rarefied conditions

A.J.H. Frijns, S.V. Nedea, J. Stafford, P. Perrier, I. Graur

Energy Technology

Research output: Chapter in Book/Report/Conference proceeding › Conference contribution › Academic › peer-review

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Abstract

The past decade has seen a considerable growth in portable devices with mobile connectivity. This growth has been enabled by the development of high capacity telecommunication networks globally. Individuals require high data transfer capabilities to remotely stream large information sets (i.e. HD video) and this is leading to greater demands for next generation networks (i.e. 5G). To ensure this growth continues, hardware devices must be smaller, more energy-efficient and provide greater functionality. This requirement poses a thermal management challenge, increasing heat transfer density significantly. Novel materials and cooling methods, which are engineered at the micro- and nanoscale, are necessary to address this. In this paper the focus is on the numerical modelling of the gas-wall interactions that determine the heat transfer.

Original language	English
Title of host publication	Proceedings of the 1st MIGRATE Workshop, June 30-July 1st, 2016 – Strasbourg, France
Editors	L. Baldas, S. Colin, S. Le Calvé
Place of Publication	Strasbourg
Publication status	Published - 30 Jun 2016

Cite this

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title = "Gas-wall interactions under rarefied conditions",

abstract = "The past decade has seen a considerable growth in portable devices with mobile connectivity. This growth has been enabled by the development of high capacity telecommunication networks globally. Individuals require high data transfer capabilities to remotely stream large information sets (i.e. HD video) and this is leading to greater demands for next generation networks (i.e. 5G). To ensure this growth continues, hardware devices must be smaller, more energy-efficient and provide greater functionality. This requirement poses a thermal management challenge, increasing heat transfer density significantly. Novel materials and cooling methods, which are engineered at the micro- and nanoscale, are necessary to address this. In this paper the focus is on the numerical modelling of the gas-wall interactions that determine the heat transfer.",

author = "A.J.H. Frijns and S.V. Nedea and J. Stafford and P. Perrier and I. Graur",

year = "2016",

month = jun,

day = "30",

language = "English",

editor = "L. Baldas and S. Colin and {Le Calv{\'e}}, S.",

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Gas-wall interactions under rarefied conditions. / Frijns, A.J.H.; Nedea, S.V.; Stafford, J. et al.
Proceedings of the 1st MIGRATE Workshop, June 30-July 1st, 2016 – Strasbourg, France . ed. / L. Baldas; S. Colin; S. Le Calvé. Strasbourg, 2016. MIGRATEWS2016-23.

Research output: Chapter in Book/Report/Conference proceeding › Conference contribution › Academic › peer-review

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T1 - Gas-wall interactions under rarefied conditions

AU - Frijns, A.J.H.

AU - Nedea, S.V.

AU - Stafford, J.

AU - Perrier, P.

AU - Graur, I.

PY - 2016/6/30

Y1 - 2016/6/30

N2 - The past decade has seen a considerable growth in portable devices with mobile connectivity. This growth has been enabled by the development of high capacity telecommunication networks globally. Individuals require high data transfer capabilities to remotely stream large information sets (i.e. HD video) and this is leading to greater demands for next generation networks (i.e. 5G). To ensure this growth continues, hardware devices must be smaller, more energy-efficient and provide greater functionality. This requirement poses a thermal management challenge, increasing heat transfer density significantly. Novel materials and cooling methods, which are engineered at the micro- and nanoscale, are necessary to address this. In this paper the focus is on the numerical modelling of the gas-wall interactions that determine the heat transfer.

AB - The past decade has seen a considerable growth in portable devices with mobile connectivity. This growth has been enabled by the development of high capacity telecommunication networks globally. Individuals require high data transfer capabilities to remotely stream large information sets (i.e. HD video) and this is leading to greater demands for next generation networks (i.e. 5G). To ensure this growth continues, hardware devices must be smaller, more energy-efficient and provide greater functionality. This requirement poses a thermal management challenge, increasing heat transfer density significantly. Novel materials and cooling methods, which are engineered at the micro- and nanoscale, are necessary to address this. In this paper the focus is on the numerical modelling of the gas-wall interactions that determine the heat transfer.

M3 - Conference contribution

BT - Proceedings of the 1st MIGRATE Workshop, June 30-July 1st, 2016 – Strasbourg, France

A2 - Baldas, L.

A2 - Colin, S.

A2 - Le Calvé, S.

CY - Strasbourg

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