Abdulkareem, M., Al-Maiyah, S., & Cook, M. (2018).
Remodelling façade design for improving daylighting
and the thermal environment in Abuja’s low-income
housing. Renewable and Sustainable Energy Reviews,
82, 2820-2833.
Alemi, B., & Tafreshi, F. (2023). Studying the importance
of thermal control of walls and transparent walls
in hot and dry climate of Kashan.. Journal of Urban
Management and Energy Sustainability, 5(1), 92-103.
doi: 10.22034/jumes.2023.1988401.1115
Al-Khatatbeh, B. J., & Ma’bdeh, S. N. (2017). Improving
visual comfort and energy efficiency in existing
classrooms using passive daylighting techniques.
Energy Procedia, 136, 102-108.
Amini, M., Mahdavinejad, M., & Bemanian, M. (2019).
Future of interactive architecture in developing
countries: challenges and opportunities in case
of Tehran. Journal of Construction in Developing
Countries, 24(1), 163-184.
Bayram, G. (2015). A proposal for a retrofitting model
for educational buildings in terms of energey efficient
lighting criteria.
Berardi, U., & Anaraki, H. K. (2018). The benefits of
light shelves over the daylight illuminance in office
buildings in Toronto. Indoor and Built Environment,
27(2), 244-262.
Buratti, C., Belloni, E., Merli, F., & Ricciardi, P. (2018). A
new index combining thermal, acoustic, and visual
comfort of moderate environments in temperate
climates. Building and Environment, 139, 27-37.
Freidooni, F., Freidooni, S., & Gandomkar, A. (2022).
Climatic compatible future cities locating approach
to less non-renewable energy consumption. Journal
of Urban Management and Energy Sustainability, 4(2),
178-190. doi: 10.22034/jumes.2022.1982956.1101
Giannelli, D., León-Sánchez, C., & Agugiaro, G. (2022).
COMPARISON AND EVALUATION OF DIFFERENT GIS
SOFTWARE TOOLS TO ESTIMATE SOLAR IRRADIATION.
ISPRS Annals of the Photogrammetry, Remote Sensing
and Spatial Information Sciences, 4, 275-282.
Gim, S., Kim, Y., Lee, H., & Seo, J. (2014). A Study on Light-
Shelf System using Location-Awareness Technology for
Energy Saving in Residential Space. Korean Journal of
Air-Conditioning and Refrigeration Engineering, 26(6),
275-286.
Grobe, L. O., Gecit, B. H., Sevinç, Z., ALTINKAYA, G.,
Aksakarya, G., Ergin, M., & Kazanasmaz, T. (2018). Scalemodel
and simulation-based assessments for design
alternatives of daylight redirecting systems in a sidelighting
educational room. METU Journal of the Faculty
of Architecture, 34(2).
Hiranipour, Milad, Fayaz, Rima, & Mahdavinia, Mojtabi.
(2021). Optimizing window dimensions according
to light and heat factors in cold climate residential
buildings; Study case: Ilam city. Arman Shahr architecture
and urban planning, 14(35), 91-101.
Ibrahim, Y., Kershaw, T., & Shepherd, P. (2020).
Improvement of the Ladybug-tools microclimate
workflow: A verification study. Building Simulation and
Optimization.
Kontadakis, A., Tsangrassoulis, A., Doulos, L., & Topalis, F.
(2017). An active sunlight redirection system for daylight
enhancement beyond the perimeter zone. Building and
Environment, 113, 267-279.
Korsavi, S. S., Zomorodian, Z. S., & Tahsildoost, M. (2016).
Visual comfort assessment of daylit and sunlit areas: A
longitudinal field survey in classrooms in Kashan, Iran.
Energy and Buildings, 128, 305-318.
Kwon, S. H., Lee, H. W., & Kim, Y. S. (2014). Proposal of a
Light Shelf System Design According to the Separation
Distance between Window and Light Shelf Reflector.
Advanced Science and Technology Letters, 47, 1-5.
Lee, H., Kim, Y., Seo, J., & Kim, D. S. (2014). Simulation Study
on the Performance Evaluation of Light-shelf According
to Geometric Shape of Ceiling. Korean Journal of Air-
Conditioning and Refrigeration Engineering, 26(4), 181-
192.
Lee, Heangwoo, Suktae Kim, and Janghoo Seo.
(2018). “Evaluation of a Light Shelf Based on Energy
Consumption for Lighting and Air Conditioning.” Indoor
and Built Environment 27(10): 1405–14.
Lim, Y. W., & Ahmad, M. H. (2015). The effects of direct
sunlight on light shelf performance under tropical sky.
Indoor and Built Environment, 24(6), 788-802.
Mangkuto, R. A., Feradi, F., Putra, R. E., Atmodipoero, R. T.,
& Favero, F. (2018). Optimisation of daylight admission
based on modifications of light shelf design parameters.
Journal of Building Engineering, 18, 195-209.
Meresi, A. (2016). Evaluating daylight performance of
light shelves combined with external blinds in south-facing classrooms in Athens, Greece. Energy and
Buildings, 116, 190-205.
Ochoa, C. E., & Capeluto, I. G. (2006). Evaluating visual
comfort and performance of three natural lighting
systems for deep office buildings in highly luminous
climates. Building and environment, 41(8), 1128-1135.
Ricciardi, P., & Buratti, C. (2018). Environmental quality
of university classrooms: Subjective and objective
evaluation of the thermal, acoustic, and lighting comfort
conditions. Building and Environment, 127, 23-36.
Roudsari, M. S., Pak, M., & Smith, A. (2013, August).
Ladybug: a parametric environmental plugin
for grasshopper to help designers create an
environmentally-conscious design. In Proceedings of
the 13th international IBPSA conference held in Lyon,
France Aug (pp. 3128-3135).
Soler, A., & Oteiza, P. (1996). Dependence on solar
elevation of the performance of a light shelf as a
potential daylighting device. Renewable energy, 8(1-4),
198-201.
Vighnesh, R. (2021, May). Use of Parametric Software for
Selecting Building Materials Based on Embodied Energy.
In International Conference on Structural Engineering
and Construction Management (pp. 25-36). Springer,
Cham.
)