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E. Keighley (1973)
Visual requirements and reduced fenestration in offices — a study of multiple apertures and window areaBuilding Science, 8
A. Zain-Ahmed, K. Sopian, Zulkhairi Abidin, M. Othman (2002)
The availability of daylight from tropical skies: a case study of MalaysiaRenewable Energy, 25
Jae Lee, H. Jung, JiYoung Park, Jung-Woong Lee, Yoonjin Yoon (2013)
Optimization of building window system in Asian regions by analyzing solar heat gain and daylighting elementsRenewable Energy, 50
M. Ho, C. Chiang, Po-Cheng Chou, Kuei-Feng Chang, Chia-Yen Lee (2008)
Optimal sun-shading design for enhanced daylight illumination of subtropical classroomsEnergy and Buildings, 40
BS 8206‐2
British Standard
J. Mardaljevic, L. Heschong, Eleanor Lee (2009)
Daylight metrics and energy savingsLighting Research & Technology, 41
D. Enarun, P. Littlefair (1995)
Luminance models for overcast skies: Assessment using measured dataLighting Research & Technology, 27
M. Singh, S. Garg (2010)
Illuminance estimation and daylighting energy savings for Indian regionsRenewable Energy, 35
M. Fontoynont, V. Berrutto
Daylighting performance of buildings: monitoring procedure
Illuminating Engineering Society (IES) of North America
Lighting Handbook: Reference and Application
E. Ne'eman, R. Hopkinson (1970)
Critical minimum acceptable window size: a study of window design and provision of a viewLighting Research & Technology, 2
A. Nabil, J. Mardaljevic (2005)
Useful daylight illuminance: a new paradigm for assessing daylight in buildingsLighting Research & Technology, 37
Greici Ramos, E. Ghisi (2010)
Analysis of daylight calculated using the EnergyPlus programmeRenewable & Sustainable Energy Reviews, 14
D. Li (2010)
A review of daylight illuminance determinations and energy implicationsApplied Energy, 87
H. Manz, Urs-Peter Menti (2012)
Energy performance of glazings in European climatesRenewable Energy, 37
H. Cheung, T. Chung (2008)
A study on subjective preference to daylit residential indoor environment using conjoint analysisBuilding and Environment, 43
L. Doulos, A. Tsangrassoulis, F. Topalis (2008)
Quantifying energy savings in daylight responsive systems : The role of dimming electronic ballastsEnergy and Buildings, 40
Uğurtan Aybar (2003)
ANKARA MESA YONCA EVLER SİTESİ’NİN DOĞAL AYDINLATMA AÇISINDAN İNCELENMESİ, 18
M.G. Figueiro, R.G. Stevens, A.C. Rea
Daylight and productivity
A. Freewan (2011)
Improving Thermal Performance of Offices in JUST Using Fixed Shading Devices
A. Galasiu, J. Veitch (2006)
Occupant preferences and satisfaction with the luminous environment and control systems in daylit offices: a literature reviewEnergy and Buildings, 38
B. Duval (2001)
Commission internationale de l’éclairage (CIE)Optique Photonique
P. Loutzenhiser, G. Maxwell, H. Manz (2007)
An empirical validation of the daylighting algorithms and associated interactions in building energy simulation programs using various shading devices and windowsEnergy, 32
C. Gueymard, W. Dupont (2009)
Spectral effects on the transmittance, solar heat gain, and performance rating of glazing systemsSolar Energy, 83
B. Collins (1975)
Windows and people : a literature survey : psychological reaction to environments with and without windows
LEED‐NC USGBC
Leadership in energy and environmental design version 3.0
British Standards Institution (BSI)
BSI Standards Catalogue
C. Balocco, Rachele Calzolari (2008)
Natural light design for an ancient building: A case study
US Department of Energy
Guide to EnergyEfficient Lighting
C. Reinhart, J. Mardaljevic, Z. Rogers (2006)
Dynamic Daylight Performance Metrics for Sustainable Building DesignLEUKOS, 3
Eleanor Lee, S. Selkowitz (2006)
The New York Times headquarters daylighting mockup: Monitored performance of the daylighting control systemEnergy and Buildings, 38
HKSAR Buildings Department
Lighting and Ventilation Requirements Performance‐Based Approach, Practice Note for Authorized Persons and Registered Structural Engineers PNAP278
R.G. Hopkinson, P. Petherbridge, J. Longmore
Daylighting
D. Li, Chris Lau, J. Lam (2004)
Overcast sky conditions and luminance distribution in Hong KongBuilding and Environment, 39
Illuminating Engineering Society of North America (IESNA)
Lighting Measurement e Spatial Daylight Autonomy
D. Jenkins, A. Peacock, P. Banfill (2009)
Will future low-carbon schools in the UK have an overheating problem?Building and Environment, 44
J. Mardaljevic, M. Andersen, N. Roy, J. Christoffersen (2011)
Daylighting Metrics for Residential Buildings
R. Perez, P. Ineichen, R. Seals, J. Michalsky, R. Stewart (1990)
Modeling daylight availability and irradiance components from direct and global irradianceSolar Energy, 44
E. Ghisi, J. Tinker (2005)
An Ideal Window Area concept for energy efficient integration of daylight and artificial light in buildingsBuilding and Environment, 40
CLEAR
Comfortable low energy ARchitecture”
Building Bulletin 90
Lighting Design for Schools, Architects and Building Branch
Chartered Institution of Building Services Engineers (CIBSE)
Code for Lighting, Guide A
Donghui Li, H. Tang (2008)
Standard skies classification in Hong KongJournal of Atmospheric and Solar-Terrestrial Physics, 70
Pyonchan Ihm, Abderrezek Nemri, M. Krarti (2009)
Estimation of lighting energy savings from daylightingBuilding and Environment, 44
Dhw Li, G. Cheung (2006)
Average daylight factor for the 15 CIE standard skiesLighting Research & Technology, 38
Hong Kong Government
Laws of Hong Kong Chapter 123 Building (Planning) Regulations – Lighting and Ventilation
C. Reinhart, Dan Weissman (2012)
The daylit area – Correlating architectural student assessments with current and emerging daylight availability metricsBuilding and Environment, 50
A. Nabil, J. Mardaljevic
Useful daylight illuminance: a new paradigm to access daylight in buildings
A. Stegou-Sagia, K. Antonopoulos, C. Angelopoulou, G. Kotsiovelos (2007)
The impact of glazing on energy consumption and comfortEnergy Conversion and Management, 48
Commission Internationale de l’Eclairage (CIE)
Daylight
C. Tiba, S. Leal (2012)
Measuring and modelling illuminance in the semi-arid Northeast of BrazilRenewable Energy, 48
K. Mansfield (2008)
British Standard BS 8206-2 (2008) Lighting for Buildings - Part 2: Code of Practice for Daylighting
D. Li, Gary Cheung, Chris Lau (2006)
A simplified procedure for determining indoor daylight illuminance using daylight coefficient conceptBuilding and Environment, 41
Yalk Lim, M. Kandar, M. Ahmad, D. Ossen, A. Abdullah (2012)
Building façade design for daylighting quality in typical government office buildingBuilding and Environment, 57
J. Longmore
Daylighting: a current view
Gon Kim, Hong-Soo Lim, T. Lim, L. Schaefer, Jeong Kim (2012)
Comparative advantage of an exterior shading device in thermal performance for residential buildingsEnergy and Buildings, 46
BREEAM
BRE Environmental & Sustainability Standard, BES 5056, issue 2.0
Purpose – The purpose of this research is to investigate natural illumination properties of one of the classrooms in the School of Architecture at Izmir Institute of Technology, located in Turkey, which is the northern hemisphere. Design/methodology/approach – In this study, the definitions of the basic terms in daylighting, such as daylight factor, illuminance, glazing ratio, are given first. Then, a luxmeter and a lighting simulation software, Velux, are used in order to calculate variable lighting factors during daytime, at different storeys, at different directions, for the classes. Velux is a proprietary software and it enables natural lighting analysis practically. Findings – Chosen classrooms are examined regarding their having sufficient natural illumination. The height of windows from the floor is changed, and the resultant effects on natural lighting in the classrooms are determined by using the lighting simulation program, Velux. The study shows that daylight factor and illumination near the window decreases as the height of the window above the floor increases. However, the illumination increases away from the window, giving greater uniformity to the lighting. At the same time, the usable depth of the classroom increases. The tall and narrow windows bring the daylight near themselves. Social implications – Practical window design decisions can help architects to provide effective and healthy natural lighting for interiors. Originality/value – Adjustment of the dimensions of the windows is important in order to balance the energy consumption of buildings. This study investigates natural lighting depending on both experimental measurements and simulation software, Velux.
Structural Survey – Emerald Publishing
Published: May 24, 2013
Keywords: Daylight; Daylight factor; Illumination; Window size; Light; Light distribution; Lighting systems; Windows; Classrooms; Educational institutions
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