Computational analysis of natural ventilation in a large semi-enclosed stadium

Research output: Chapter in Book/Report/Conference proceedingConference contributionAcademicpeer-review

1 Citation (Scopus)

Abstract

The last decades, newly built large sports stadia are also increasingly being used for other events such as concerts, conferences and other activities. An example of such a modern multifunctional stadium is the Amsterdam ‘ArenA’ in the Netherlands. This stadium is equipped with a roof that can be opened and closed depending on the weather conditions and the type of event. No HVAC systems are present to control the conditions of the relatively large indoor air volume (~106 m3). When the roof is closed, the large number of spectators and insufficient natural ventilation can lead to problems concerning the indoor air quality, while overheating can be an additional problem in summer. Full-scale measurements were performed to assess the current indoor climate and air exchange rate. In addition, CFD simulations were performed to analyse the air exchange rate in the current configuration and the air exchange rates of four alternative ventilation configurations. CFD was preferred for this study for the detailed simulation of air flow through the relatively small ventilation openings, the discharge coefficients of which are unknown. The CFD simulations showed that the air exchange rate can be increased with up to 43% by creating additional openings in the upper part of the stadium.
Original languageEnglish
Title of host publicationProceeings of the 5th European and African Conference on Wind Engineering, 19-23 July 2009, Florence, Italy
EditorsC. Borri, G. Augusti, G. Bartoli, L. Facchini
Place of PublicationFirenze, Italy
PublisherFirenze University Press
Pages1-11
ISBN (Print)978-88-6453-041-3
Publication statusPublished - 2009
Eventconference; 5EACWE; 2009-07-19; 2009-07-23 -
Duration: 19 Jul 200923 Jul 2009

Conference

Conferenceconference; 5EACWE; 2009-07-19; 2009-07-23
Period19/07/0923/07/09
Other5EACWE

Fingerprint

Stadiums
Ventilation
Air
Computational fluid dynamics
Roofs
Sports
Air quality
Discharge (fluid mechanics)

Cite this

van Hooff, T., & Blocken, B. J. E. (2009). Computational analysis of natural ventilation in a large semi-enclosed stadium. In C. Borri, G. Augusti, G. Bartoli, & L. Facchini (Eds.), Proceeings of the 5th European and African Conference on Wind Engineering, 19-23 July 2009, Florence, Italy (pp. 1-11). Firenze, Italy: Firenze University Press.
van Hooff, T. ; Blocken, B.J.E. / Computational analysis of natural ventilation in a large semi-enclosed stadium. Proceeings of the 5th European and African Conference on Wind Engineering, 19-23 July 2009, Florence, Italy. editor / C. Borri ; G. Augusti ; G. Bartoli ; L. Facchini. Firenze, Italy : Firenze University Press, 2009. pp. 1-11
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title = "Computational analysis of natural ventilation in a large semi-enclosed stadium",
abstract = "The last decades, newly built large sports stadia are also increasingly being used for other events such as concerts, conferences and other activities. An example of such a modern multifunctional stadium is the Amsterdam ‘ArenA’ in the Netherlands. This stadium is equipped with a roof that can be opened and closed depending on the weather conditions and the type of event. No HVAC systems are present to control the conditions of the relatively large indoor air volume (~106 m3). When the roof is closed, the large number of spectators and insufficient natural ventilation can lead to problems concerning the indoor air quality, while overheating can be an additional problem in summer. Full-scale measurements were performed to assess the current indoor climate and air exchange rate. In addition, CFD simulations were performed to analyse the air exchange rate in the current configuration and the air exchange rates of four alternative ventilation configurations. CFD was preferred for this study for the detailed simulation of air flow through the relatively small ventilation openings, the discharge coefficients of which are unknown. The CFD simulations showed that the air exchange rate can be increased with up to 43{\%} by creating additional openings in the upper part of the stadium.",
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van Hooff, T & Blocken, BJE 2009, Computational analysis of natural ventilation in a large semi-enclosed stadium. in C Borri, G Augusti, G Bartoli & L Facchini (eds), Proceeings of the 5th European and African Conference on Wind Engineering, 19-23 July 2009, Florence, Italy. Firenze University Press, Firenze, Italy, pp. 1-11, conference; 5EACWE; 2009-07-19; 2009-07-23, 19/07/09.

Computational analysis of natural ventilation in a large semi-enclosed stadium. / van Hooff, T.; Blocken, B.J.E.

Proceeings of the 5th European and African Conference on Wind Engineering, 19-23 July 2009, Florence, Italy. ed. / C. Borri; G. Augusti; G. Bartoli; L. Facchini. Firenze, Italy : Firenze University Press, 2009. p. 1-11.

Research output: Chapter in Book/Report/Conference proceedingConference contributionAcademicpeer-review

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AB - The last decades, newly built large sports stadia are also increasingly being used for other events such as concerts, conferences and other activities. An example of such a modern multifunctional stadium is the Amsterdam ‘ArenA’ in the Netherlands. This stadium is equipped with a roof that can be opened and closed depending on the weather conditions and the type of event. No HVAC systems are present to control the conditions of the relatively large indoor air volume (~106 m3). When the roof is closed, the large number of spectators and insufficient natural ventilation can lead to problems concerning the indoor air quality, while overheating can be an additional problem in summer. Full-scale measurements were performed to assess the current indoor climate and air exchange rate. In addition, CFD simulations were performed to analyse the air exchange rate in the current configuration and the air exchange rates of four alternative ventilation configurations. CFD was preferred for this study for the detailed simulation of air flow through the relatively small ventilation openings, the discharge coefficients of which are unknown. The CFD simulations showed that the air exchange rate can be increased with up to 43% by creating additional openings in the upper part of the stadium.

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van Hooff T, Blocken BJE. Computational analysis of natural ventilation in a large semi-enclosed stadium. In Borri C, Augusti G, Bartoli G, Facchini L, editors, Proceeings of the 5th European and African Conference on Wind Engineering, 19-23 July 2009, Florence, Italy. Firenze, Italy: Firenze University Press. 2009. p. 1-11