Ahmadnejad Karimi, M. (1392). M. A. Thesis: Pool design with opening and closing structures. Faculty of Architecture and Urbanism, Tabriz Islamic Art University. [in Persian].
Ahmadnejad Karimi, M., Haghparast, F. (1391). Membrane opening and closing and expandable roofs: An adaptable approach to a sustainable and flexible architecture. First national conference on sustainable construction. Mashhad Municipality press. Mashhad. [in Persian].
Ahmadpour, N., Pourjafar, M., Mahdavinejad, M., Yousefian, S. (1396). The Role and Impact of Design Elements on the Quality of Thermal Comfort in Urban Open Spaces Case Study: Design of Pedestrian Way in Tamghachiha Pathway in the City of Kashan. Journal of Art University, 9(18). [in Persian].
Asefi, M., Farokhi, Sh., Nesarnobari, M. (1396). Methods of Creating Architectural Flexibility in Small-scale Residential Buildings. Journal of Iranian Architecture & Urbanism, No. 13. [in Persian].
Azizmohammadi, M. (1396). M. A. Thesis: Design based on moving architecture adapted to the exploration system strategy to achieve an optimal structural system. Pars Higher Education Institute of Art and Architecture. [in Persian].
Belda, E.F. (2003). Constructive problems in deployable structure of Emilio Perez pinero. Transactions on the Built Environment, 21, 141-142.
Berger, H. (2005). Light structure- structures of light. AuthorHouse publisher. Bloomington, USA.
Elnokaly, A., Chilton,
J.C and Wilson,
R . (2002). Environmental behaviour of tensile membrane structures. Conference: The World Conference on Technology Advances for Sustainable Development (Energy, Water, and Environment).
Forester, Brian and Mollaert, Marijke. (2004). European Design Guide for Tensile Surface structures. Brussels: Tensinet publisher.
Ghiabaklou, Z. (1394). Fundamentals of Building Physics 2. Amirkabir University Jihad press. Tehran. [in Persian].
Golabchi M., Taghi zadeh K., Golabchi M. (1394). Building systems. Pars University Press, Tehran. [in Persian].
He, J. and Hoyano, A. (2009). Measurement and simulation of the thermal environment in the built space under a membrane structure. Building and environment, 44.
He, J. and Hoyano, A. (2010). Measurement and evaluation of the summer microclimate in the semi-enclosed space under a membrane structure. Building and environment, 45.
Hebbelinck, S., Mollaent, M. and Hasse, J. (2004). From small parts of large structures. Beven mit texhlien heft.
Heidari, Sh. (1391). Interaction of air flow, temperature and comfort in urban open spaces, Case study: Hot and dry climate of Iran. Journal of Fine Arts, 47, pp. 37-42. [in Persian].
Hu, J., Chen, W., Zhang, S., Yin, Y., Li, Y., Yang, D. (2018). Thermal characteristics and comfort assessment of enclosed large-span membrane stadiums. Applied energy, 220, 728-735
Ishii, K. (2000). Structural Design of Retractable Roof Structures, WIT Press.
Jafari M., Taban M. (1396). Evaluation of thermal comfort in open space (case study: Nobahar Park, Kermanshah). The first international conference on civil engineering, architecture and sustainable green city. Hamedan. [in Persian].
Jafarian, S. (1399). M. A. Thesis: The Flexible Lightweight Membrane Canopy Design in Order to Provide Thermal Comfort in Hot and Dry Climate. Faculty of architecture and urbanism, Shahrood university of technology. [in Persian].
Kasmaie, M. (1391). Climate and architecture. Khak press. Isfahan. [in Persian].
Keshavarzpour, F. (1395). M. A. Thesis: Organizing Noor city beach space with spatial development approach (light-flexible structures). Rasam Institute of Higher Education. [in Persian].
Khaki Qasr, A. (1395). Cover patterns Strategies for Exposed Spaces in the Historic Districts of Yazd Journal of Architecture in Hot and Dry Climate, 4(4). [in Persian].
Kostic, D., Milosevic, Vuk., Bogdanovic, V., Vasov and Miomir. Vucur, A. (2018). Influence of Single and Double Membrane Roofs on Thermal Behaviour of Enclosed Space. Technical Gazette. No. 25.
Lenzholzer, S. (2012). Research and design for thermal comfort in Dutch urban squares. Resources, Conservation and Recycling, Vol. 64, pp. 39-48.
Lin, Tzu-ping., Matzarakis, Andreas and Hwang, Ruey-lung. (2010). Shading effect on long-term outdoor thermal comfort. Building and Environment 45.
Mahmoudi, S., Ghazizadeh, N., Monam A. (1389). The effect of design on the outdoor thermal comfort of residential complexes (Sample: Ekbatan residential complex, Phase 3). Journal of Fine Arts, 42, pp. 59-70. [in Persian].
Makaremi, N., Salleh, E., Zaky Jaafar, M., GhaffarianHoseini, A. (2012). Thermal comfort conditions of shaded outdoor spaces in hot and humid climate of Malaysia. Building and Environment, 48, 7-14.
Mashayekh faridani, S. (1392). Art of Engineering Inspired by Nature. Housing and rural environment, 32 (143). P 7. [in Persian].
Metje, N., Sterling, M. and Baker, C.J. (2008). Pedestrian comfort using clothing values and body temperatures. Journal of Wind Engineering and Industrial Aerodynamics 96(4):412-435.
Middel, A., Selover, N., Hagen, B., Chhetri, N. (2016). Impact of shade on outdoor thermal comfort—a seasonal field study in Tempe, Arizona, International Journal Biometeorol, Vol. 60, pp. 1849–1861.
Moore, F. (1392). Understanding the behavior of structures. Golabchi, Mahmoud. University of Tehran Press, Tehran. P 50. [in Persian].
Norberg-Schultz, Ch. (1980). Meaning in western architecture. Rizzoli International Publications. New York, USA.
Ranjbaran, H. (1393). M.A Thesis: Investigating the role of moisture and shade in thermal comfort Case study: Goftegou park redesign. Faculty of Art and Architecture, Tarbiat Modares University. [in Persian].
Razjouian, M. (1388). Comfort under the protection of climate-friendly architecture. Shahid Beheshti University, Printing and Publishing Center. [in Persian].
Setaih, Kh., Hamza, N., Townshend, T. (2013). Assessment of outdoor thermal comfort in urban microclimate in hot arid areas. 13th Conference of International Building Performance Simulation Association, Chambéry, France, August 26-28.
Sultana, L. and Bari, N. (2019). A Study on the Impact of Tensile Fabric Structure in Semi-Outdoor Spaces of Tropical Cities. International Journal of New Innovations in Engineering and Technology.
Taban, Z., Majidi, M. (1397). Evaluation the effect of thermal comfort on people's behavior in the urban environment (case study of Bushehr). International Conference on Civil Engineering, Architecture and Urban Development Management in Iran. Tehran: University of Tehran. [in Persian].
Taghizade, K., Sanaee, N. (1391). An Investigation on Structural Systems of Mobile and Temporary Shelters. Naqshejahan; 2 (2). [in Persian].
Tahbaz, M. (1386). Outdoor shade design. Journal of Fine Arts, 31, p. 28. [in Persian].
Tahbaz, M., Nozari Ferdowsieh, A., Amin Eslami, M. (1393). Climate Design Solutions for Outdoor Passages (Case Study: Kashan University Sidewalks). Journal of Hoviatshahr, 10(26). [in Persian].
Taleb, H., Taleb, D. (2014). "Enhancing the thermal comfort on urban level in a desert area: Case study of Dubai, United Arab Emirates". Urban Foresty and Urban Greening, 13.
Walter, Matthias. (2006). Convertible Roofs. Ferienakademie.
Walton, Darton Kenneth, Donn, Michael. (2007). The relative influence of wind, sunlight and temperature on user comfort in urban outdoor spaces. Building and Environment 42.
Wilson, Robin. Devulder, Thaibault and Chilton, John. (2007). The thermal behaviour of buildings incorporating single skin tensile membrane structures. International Journal of Low-Carbon Technologies 2(20).
Zabetian, E., Kheirodin, R. (1397). The role of comfort perception, especially thermal comfort in the pattern of citizen’s behavior in urban spaces (Case Study of Imam Khomeini square and Imam Hussein in the City of Tehran). Urban Management, No. 50, pp 5-20. [in Persian].
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