AbstractFurther understanding the building occupantsТ needs and behaviors can reduce lighting energy consumption. This research explores how the occupancy and interior architectural aspects become effective in manual lighting control in offices. It involves a multiple sectioned questionnaire focusing on the possible architectural factors such as the desk position, the surface colors, the distance to window, the distance between desk and lighting switch, and inquiring participantsТ manual lighting control behavior through the photographs of modified interior layouts, surface colors and time intervals. Statistical methods are used to determine the significant aspects, which may reduce the use of lighting control. Interior layout, distance to window, time of the day, and number of occupants in the offices are the most significant contributions to the manual lighting control behavior. To pay attention in these contributions, it would be possible to reduce the use of electricity for lighting while user satisfaction increases.
References1. Hoes, P., Hensen, J.L.M., Loomans, M.G.L.C., de Vries, B., Bourgeois, D. User Behaviour in Whole Building Simulation. Energy and Buildings 41(3): 295Ц302.2 2. Mahdavi, A., Proglhof C. User Behaviour and Energy Performance in Buildings. In 6. Internationalen Energiewirtschaftstagung IEWT 2009, TU Wien, 2009, pp. 1Ц13. 3. Tetlow, R.M., Beaman, C.P., Elmualim, A.A., Couling. K. Simple Prompts Reduce Inadvertent Energy Consumption from Lighting in Office Buildings. Building & Environment, 2014. V81, pp. 234Ц242. 4. Yang, L., Yan, H., Lam. J. Thermal Comfort and Building Energy Consumption Implications ЦA Review. Applied Energy, 2014. V115, pp. 164Ц173. 5. Yun, G.Y., Kim, H.,. Kim, J.T, Kong. H. J. 2012. Effects of Occupancy and Lighting Use Patterns on Lighting Energy Consumption. Energy and Buildings, 2012. V46, pp. 58Ц152. 6. Bourgeois, D., Reinhart, C., Macdonald. I.A. Assessing the Total Energy Impact of Occupant Behavioural Response to Manual and Automated Lighting Systems. In Ninth International IBPSA Conference, Montreal, Canada, 2005, pp. 99Ц106. 7. Reinhart, C.F. Lightswitch?2002: A Model for Manual and Automated Control of Electric Lighting and Blinds A Versio. Solar Energy, 2004. V77, pp. 15Ц28. 8. Hunt, D.R.G. The Use of Artificial Lighting in Relation to Daylight Levels and Occupancy. Building and Environment, 1979. V14, pp. 21Ц33. 9. Pigg, S., Eilers, M., Reed. J. Behavioural Aspects of Lighting and Occupancy Sensors in Privates Offices: A Case Study of a University Office Building. ACEEE1996 Summer Study on Energy Efficiency in Buildings, 1996, pp. 161Ц70. 10. Love, J.A. Manual Switching Patterns in Private Offices. Lighting Research & Technology, 1998. V30, pp. 45Ц50. 11. Bourgeois, D., Reinhart, C., Macdonald, I. Adding advanced behavioural models in whole building energy simulation: A study on the total energy impact of manual and automated lighting control, Energy and Buildings, 2006. V38, pp. 814Ц823. 12. Hellinga, H. Daylight and View; The Influence of Windows on the Visual Quality of Indoor Spaces. Technische Universiteit Delft, 2013. 13. Gu, Y. The Impacts of Real-Time Knowledge Based Personal Lighting Control on Energy Consumption, User Satisfaction and Task Performance in Offices. Carnegie Mellon University, 2011. 14. PrEN15193Ц1, Energy performance of buildings; Energy requirements for lighting, 2007. 15. Toth, N., Little, L., Read, J.C., Fitton, D., Horton M. Understanding Teen Attitudes towards Energy Consumption. Journal of Environmental Psychology, 2013. V34, pp. 36Ц44. 16. Thorndike, A.N., Sonnenberg, L., Riis, J., Barraclough, S., Levy, D.E. A 2-Phase Labeling and Choice Architecture Intervention to Improve Healthy Food and Beverage Choices. American Journal of Public Health, 2012. V102, pp. 527Ц33.
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