Content
Number of images - 1
Tables and charts - 6
The Effects of Luminaire Glass Type on Road Parameters in Road Lighting L&E, Vol.31, No.1, 2023

Light & Engineering 31 (1)

Volume 31
Date of publication 02/17/2023
Pages 100–104

Purchase PDF - ₽450

The Effects of Luminaire Glass Type on Road Parameters in Road Lighting L&E, Vol.31, No.1, 2023
Articles authors:
Sakir Parlakyıldız

Sakir Parlakyıldız, M. Sc. He is a Ph.D. student in Firat University, faculty of engineering, department of electrical and electronics engineering. He currently works as a lecturer at Bitlis Eren University, Vocational school of technical sciences, department of biomedical device technologies

Abstract:
The aim of this study is to draw attention to the light transmittance level of special glasses with low light transmission. Although it is known that the light transmittance of these special glasses is low, this study is important in terms of knowing the light transmission rate in question and what kind of light problems it causes in practice, because these special glasses can be used for road lighting in some special climatic conditions, for some experiments, or for the use of light in architectural designs. For this reason, it is important to know these special glasses light transmittance properties. As the light transmittance of the luminaire glasses increases, the amount of light on the road also increases. In other words, the light source or glass type affects the lighting performance of the road. The luminaire affects the light emitted from glass-type luminaires and reduces the luminous flux falling from the lamp to the road surface. For this reason, the lamp’s luminous flux with the appropriate power should be increased according to the light transmittance factor of the glasses. Otherwise, the conditions, specified in the CIE road lighting standards, cannot be met. For this purpose, luminaire glasses with different properties that can be used in road lighting were analysed according to their light transmittance of single glass (4 mm), double glass (4 mm), electrochromic glass (reflective), electrochromic glass (absorbent), and thermochromics glass. As a result, it has been determined that when the luminaires used in road lighting are without glass or the luminaire glasses are made of different materials, the lamps luminous fluxes should be increased according to the transmittance coefficient of the glasses.
References:
1. Cengiz, M.S. Effects of Luminaire Angle and Illumination Topology On Illumination Parameters In Road Lighting // Light & Engineering, 2020, V28, #4, pp. 47–56.
2. Cengiz, M.S. Simulation and Design Study for Interior Zone Luminance in Tunnel Lighting // Light and Engineering, 2019, V27, #2, pp. 42–51.
3. Cengiz, M.S., Cengiz, C. Numerical Analysis of Tunnel LED Lighting Maintenance Factor // IIUM Engineering Journal, 2018, V19, #2, pp. 154–163.
4. Boos, G.V., Matveeva, E. Yu. Application of Private Public Partnership Schemes for Infrastructural Projects in the Sphere of Lighting, 4th issue, Moscow: Handbook – Svetotekhnika, 2019, pp. 802–808.
5. Cengiz, C., Cengiz, M.S. Choosing Urban Building Direction for Maximum Daylight // Latin America 3rd International Conference On Scientific Researches August 6–7, 2022- New York, USA. 2022, pp. 222–225.
6. Efe, S.B., Varhan, D. Interior Lighting of a Historical Building by Using LED Luminaires A Case Study of Fatih Paşa Mosque // Light and Engineering, 2020, V28, #4, pp. 77–83.
7. Cengiz, M.S. The Relationship between Maintenance Factor and Lighting Level in Tunnel Lighting // Light and Engineering, 2019, V27, #3, pp. 75–88.
8. Cengiz, C., Cengiz, M.S. 2021. The Relationship Between Shadow and Visional Comfort in Indoor Areas // I. International Halich Congress on Multıdıscıplınary Scientific Research, 29–30 October 2021, Istanbul.
9. Cengiz, M.S. The Interaction of Daylight with Design and Place in Religious Buildings According to Modern Architecture // European Journal of Science and Technology-Avrupa Bilim ve Teknoloji Dergisi, 2022, V35, pp. 195–202.
10. Cengiz, M.S. Use of Daylight in Houses and Villas from Modern Architectural Buildings // European Journal of Science and Technology-Avrupa Bilim ve Teknoloji Dergisi, 2022, V38, pp. 247–258.
11. Cengiz, C., Cengiz, M.S. Daylight as a Design Parameter in Architecture // Seljuk 6th International Conference On Applied Sciences July 16–17, 2022 Konya. 2022, pp. 168–175.
12. Zorer Gedik G. Determination of Suitable Glass Types for Transparent Areas of Building Shell // Lecture Notes, 2016.
13. Fernandes, L.L., Lee, E.S., Ward, G. Lighting Energy Savings Potential of Split-Pane Electrochromic Windows Controlled for Daylighting with Visual Comfort // Energy and Building, 2013, V61, pp. 8–20.
14. Design Builder, https://designbuilder.co.uk/helpv6.0, (Date of Access: 11.12.2021).
15. Cengiz, C., Cengiz, M.S. Daylight as a Design Parameter In Architecture // Seljuk 6th International Conference On Applied Sciences July 16–17, 2022 Konya. 2022, pp. 168–175.
16. Cengiz, M.S. Role of Functional Illumınation Urban Beautification: Qatar-Doha Road Illumınation Case // Light & Engineering, 2022, V30, #3, pp. 34–42.
17. Cengiz, M.S. Human-Centered Architectural Lighting Design in Prisons // Light & Engineering, 2022, V30, #2, pp. 46–54.
18. Cengiz, C., Cengiz, M.S. Volumetric Lighting In Architectural Design // Ege 6th International Conf. on Applied Sciences, September 10–11, 2022- Izmir. 2022, pp. 224–233.
19. Maghe, L. Characterization of Road Surfaces using a Mobile Gonio-reflectometer // CIE International Symposium on Road Surface Photometric Characteristics, 2008, 16 p.
20. Parlakyıldız, S. Visual Comfort at the Road Lighting on the Border Line // Light & Engineering, in press
21. International Commission on Illumination, Road lightings as an Accident Countermeasure, CIE93, Vienna-Austria, 92 (1992).
22. CIE140:2000 – Road Lighting Calculations. CIE140, International Commission on Illumination, Road Lighting Calculations, Vienna-Austria, 33 (2000).
23. CIE140:2019 Road Lighting Calculations. CIE140, International Commission on Illumination, 2nd Edition ISBN:978–3–902842–56–5.
24. CIE194–2011 On-site measurement of the photometric properties of road and tunnel lighting, 2011.
25. CIE115–2010, International Commission on Illumination, Recommendations far the Lighting of Roads for Motor and Pedestrian Traffic, Vienna-Austria, 1995, 25.
26. CIE136–2000, Guide to the lighting of urban areas, 3 August 2000.
27. Iacomussi, Rossi, G., Soardo, P., Energy Saving and Environmental Compatibility in Road Lighting, Light & Engineering // 2012, V20, #4, pp. 55–63.
28. Van Bommel, W., Van Den Beld, G.,. Van Ooyen M., 2003. Industrial Light and Productivity // Light & Engineering, 2003, Vol. 11, #1, pp. 14–21.
Keywords

Buy

Recommended articles