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Title: Mechanical ventilation & cooling energy versus thermal comfort: A study of mixed mode office building performance in Abu Dhabi
Authors: Brittle, John P.
Eftekhari, Mahroo
Firth, Steven K.
Keywords: Natural ventilation
Mixed mode
Mechanical cooling
Thermal comfort
Openable windows
Issue Date: 2016
Publisher: Network for Comfort and Energy Use in Buildings (NCEUB) / © The authors
Citation: BRITTLE, J.P., EFTEKHARI, M. and FIRTH, S.K., 2016. Mechanical ventilation & cooling energy versus thermal comfort: A study of mixed mode office building performance in Abu Dhabi. IN: Brotas, L. ...(eds.) Proceedings of the 9th Windsor Conference. NCEUB: Making Comfort Relevant, 7-10th. April 2016, Windsor, UK
Abstract: In hot climates, office building ventilation and cooling dual operation can cause high energy consumption in order to maintain thermal comfort limits. Using mixed mode ventilation and cooling operation, incorporation of natural ventilation strategies can offer significant reductions in annual energy consumption. Natural ventilation operation can be used with an external air temperature ranging from 24 to 28oC. Within this paper, a literature on thermal comfort is completed to understand temperature limits for hot climates. This work details theoretical model analysis of a simple mixed mode office building located in a hot climate, Abu Dhabi, United Arab Emirates. This is completed using dynamic thermal simulation. The aim of this work is to evaluate the impacts on mechanical ventilation and cooling energy when raising internal comfort temperatures beyond 24oC; to a maximum of 28oC. Time/temperature analysis is completed for different months of the year to ascertain when thermal comfort temperatures are exceeded and full mechanical operation is required. Results from this analysis show yearly ventilation and cooling energy savings ranging between 21‐39% and demonstrate that higher mechanical cooling set point operations can be achieved when human occupants have access to openable windows.
Description: This is a conference paper.
Version: Accepted for publication
URI: https://dspace.lboro.ac.uk/2134/21269
Publisher Link: http://nceub.org.uk/W2016/pdfs/proceedings/Proceedings_Windsor_Conference_2016.pdf
Appears in Collections:Conference Papers (Civil and Building Engineering)

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