Model-Scale Reproduction of Fan Pressurization Measurements in a Wind Tunnel: Design and Characterization of a New Experimental Facility

Author:

Mélois Adeline1ORCID,Tran Anh Dung12ORCID,Moujalled Bassam1ORCID,El Mankibi Mohamed2ORCID,Guyot Gaëlle1ORCID,Kölsch Benedikt13ORCID,Leprince Valérie3

Affiliation:

1. BPE Research Team—Cerema, 46 rue Saint Théobald, 38080 L’Isle d’Abeau, France

2. ENTPE LTDS, 3 rue Maurice Audin, 69518 Vaulx-en-Velin, France

3. Direction Territoire et Ville—Cerema, 2 rue Antoine Charial, 69426 Lyon, France

Abstract

In many countries, building airtightness is mandated by national regulations or energy efficiency programs, necessitating accurate measurements using the fan pressurization method. Given the significant influence of wind on measurement uncertainty and the need for reliable regulatory tests, experimental studies in a controlled environment are needed. This paper presents a novel experimental facility designed to replicate fan pressurization measurements on a model scale under controlled laboratory conditions. The key features of the facility include the ability to (1) conduct fan pressurization measurements, (2) generate steady wind conditions across varying wind speeds, and (3) accurately measure parameters like the pressure difference, wind speed, and airflow rate. The experimental facility includes a pressurization device, a wind tunnel, and a model representing a two-story house with nine distinct leakage distributions. A total of 96 fan pressurization measurements were executed using this setup, adhering to the similarity conditions specifically defined for assessing airflow errors due to wind. These tests followed the ISO 9972 standard, with the pressure differences ranging from 10 Pa to 100 Pa and steady wind speeds from 1 m·s−1 to 7.5 m·s−1. This experimental facility marks a significant advancement in understanding the effect of wind on building airtightness measurements.

Publisher

MDPI AG

Reference40 articles.

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