Air Leakage Tests for the requirements of the LEED in two high-rise residential buildings

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Air Leakage Tests for the requirements of the LEED in two high-rise residential buildings Hyun Kook Shin 1, Hyun Cho 2, Kwan Woo Kim 2, Hoi Soo Seo 2, Jae Hun Jo 1 1 Chungbuk National University, Dept. of Architectural Engineering, Cheongju, Korea 2 POSCO E&C Corp., Incheon, Korea Abstract Air leakage test was carried out according to ASTM E779-03, Standard Test Method for Determining Air Leakage Rate by Fan Pressurization to meet the requirements of the LEED- NC v2.2(eqp2). Air leakage tests for quality assurance can be performed once all work on the air barrier has been completed and all windows and doors have been installed in two high-rise residential buildings. Test units selection was carried out in accordance with the following guidance, California s 2001 Energy Efficiency Standards. That is, 1 in 7 dwelling units was sampled, and dwelling units were grouped for testing according to unit size and type. Finally, we completed pressurization and de-pressurization tests for 240 residential units and the final readings were a level of 0.87 square cm per square meter of surface area or less. Keywords: Airtightness, Blower door, LEED, Residential Building Test building descriptions Two high-rise residential buildings in Korea are selected as the test buildings for airtightness measurements. Both buildings are now constructed and have similar types of inter-walls and 1259

slabs. But there is a quite difference in the exterior walls; one is a curtain wall system, the other is a punched window. These residential buildings are similar to tower shaped-office buildings in various aspects; they generally have a central core, elevator shafts and stairwells, are surrounded by corridors, and have 4 to 5 residential units on each floor. General information regarding these two buildings is given in Table 1. Table 1 Test building summaries Classification A B Building address Yeonsu-gu, Incheon, SOUTH KOREA Number of stories 2 basements, 47 stories 2 basements, 11~33 stories Test date Feb. 2010 ~ Jun. 2010 Apr. 2010 ~ Sep. 2010 The estimated year of construction Nov. 2010 Dec. 2010 Ventilation system balanced ventilation Air view Test method and conditions Dwelling unit air infiltration performance shall be tested to required standards as outlined in LEED-NC Reference Guide under EQp2 Option 3. Dwelling units must be constructed to a level of air infiltration performance such that blower door testing carried out in accordance with ASTM E779-03 results in readings of air infiltration at a level of 1.25 square inches of leakage area per 100 sq. ft. of surface area or less (0.87 square cm per square meter of surface 1260

area). Both Preliminary and Final Blower Door Testing shall be performed to full test requirements as described in ASTM E779-03 Standard Test Method for Determining Air Leakage Rate By Fan Pressurization Should any units fail the Blower Door Test procedure to exceed allowable air leakage parameters as outlined herein (excluding preliminary Blower Door Testing) the re-testing procedure for failed units shall adhere to the requirements as outlined in the Residential Manual for Compliance with California s 2001 Energy Efficiency Standards, Chapter 4 Compliance Through Quality Construction. Pressure differential testing shall be required where entry doors into dwelling units from common corridors are not weather-stripped. Pressure differential testing shall be required to demonstrate a pressure differential of an average of 5Pa and at all times at least 1Pa as measured at 10 second intervals for a 15 minute period of time. Testing shall be performed as per test conditions outlined in the LEED-NC v2.2 Reference Guide (Second or Third Editions). Test shall be based on worst case conditions of transport of air from dwelling unit to adjacent spaces, with all entry doors and windows closed. Testing shall be performed as per previously described sampling methodology, and can be performed on same units identified for Final Blower Door Testing. The envelope air tightness test was carried out in accordance with the following standards: ASTM E779-03 "Standard Test Method for Determining Air Leakage Rate by Fan Pressurization" The building was pressurized and depressurized using a blower door system. The blower door system comprises of a portable fan capable of supplying 40,776/hr at 50 Pascal's. The fan was set up in the entrance door of the test residential unit. Pressure differences across the fan and the building were measured using a digital manometer (Retrotec DM-2A) at the start, during and the end of the test. Air temperatures were measured using a Data Logger TH-101. Measurements were taken at the start and end of test. Wind 1261

speeds at the start and end of the test were measured using a TESTO 445. Barometric pressure readings were taken using a PTB220 Class A. Table 2 Test equipments Equipment Type No. Blower door set: Retrotec 2200 Fan 2 Blower door set: Retrotec 3300SR Fan 3 Retrotec DM 2A Manometer 3 Digital thermometer: Data Logger TH-101 3 Multi-function meter: TESTO445 1 Digital barometer: PTB220 Class A 3 Smoke generator 1 Notebook 3 2-way radios 6 Table 3 Openings and temporary sealing conditions Detail All external door and windows All internal doors All extracts (check kitchen and bathroom(s) extracts and the oven hood) All drainage traps (check all toilet sinks) Combustion appliances Ventilation openings Dryer Response Closed Open Sealed Sealed Off Sealed No 1262

Fig. 1 Supporting photos of the air leakage test Fig. 2 Supporting photos of the temporary sealing Checking test limits Section 8.4 of the ASTM E779-03: The product of indoor-outdoor temperature difference and building height must be less than 200m. In this case, the building is a dwelling house with a floor to ceiling height of 3.1m (4.8m for penthouse). The indoor-outdoor temperature 1263

difference during the test is 1~7. Multiplied together, these temperature difference give 3.1m (1~7 ) = 3.1~21.7m (4.8m (1~7 ) = 4.8~33.65m for penthouse), therefore, this test passed. The average wind speed is 1m/s or less, and the average outdoor temperature is 15, thus meeting the specifications of 8.5 of the ASTM E779-03. Ten pressure difference and flow measurements are made between 10 and 60 Pa, thus meeting the requirements of 8.10 of the ASTM E779-03. Test units selection Test units selection was carried out in accordance with the following guidances: 'Reference Guide - Blower Door Test' and 'California s 2001 Energy Efficiency Standards, Chapter 4, Compliance Through Quality Construction'. That is, 1 in 7 dwelling units was sampled, and dwelling units were grouped for testing according to unit size and type. Fig. 3 Airtightness results 1264

Conclusions Air leakage tests of two high-rise residential buildings were carried out according to ASTM E779-03 "Standard Test Method for Determining Air Leakage Rate by Fan Pressurization" to meet the requirements of the LEED-NC v2.2(eqp2). Air leakage tests for quality assurance can be performed once all work on the air barrier has been completed and all windows and doors have been installed. Finally, we completed pressurization and de-pressurization tests for 240 residential units and the final readings were a level of 0.87 square cm per square meter of surface area or less which are the 'pass'. Acknowledgments This research is supported by a grant from High-Tech Urban Development Program, Super- Tall Building R&D Project (VC-10), funded by the Ministry of land, transport and maritime affairs. References 1. ASHRAE, 1997 ASHRAE Handbook-Fundamentals. Atlanta: American Society of Heating, Refrigerating and Air-Conditioning Engineers, Inc., 1997. 1265

3. ASTM, ASTM E779-03 "Standard Test Method for Determining Air Leakage Rate by Fan Pressurization" American Society for Testing and Materials, U.S.A., 2004. 4. ATTMA, ATTMA TS1-Measuring Air Permeability of Building Envelopes, 2007. 5. ISO, ISO 9972:2006 Thermal performance of buildings -Determination of air permeability of buildings-fan pressurization method, 2006. 6. CMHC, Energy Audits of High-rise Residential Buildings, Technical Series 97-100, 1996. 7. Max H. Sherman, The Use of Blower Door Data, LBL Report No. 35173, 1998, 03. 8. Max H. Sherman, & Darryl J. Dickerhoff, Airtightness of U.S. Dwellings, ASHRAE Transaction, Vol. 104, 1998. 9. The Energy Conservatory, Operational Manual for Minneapolis Blower Doors, The Energy Conservatory, 1993. 1266