1. Pourakhtarieh, Mohammad. (2001). Energy Saving in Building Energy Consumption and the Effect of Using Insulation in Building Construction. Conference on Optimization of Fuel Consumption in Buildings. [In Persian].
2. Parhizkar, Tayebeh & Raeis Ghasemi, Amir. (2001). Investigation and Evaluation of the Physical and Mechanical Properties of Lightweight Aggregate Concrete (LECA Concrete) Using Microsilica. First International Conference on Concrete and Development. [In Persian].
3. Fereydouni, F. & Mafi, M. (2015). Identification of Factors Affecting Energy Supply and Consumption in Iran with an Approach to Reforming the Consumption Pattern. First International Conference on Air Conditioning, Heating and Refrigeration Installations, IRIB Conference Center, Tehran, Iran. [In Persian].
4. Masandi, Maryam & Heidari, Shahin. (2010). Simulation with BAHA: An Approach for Detailed Investigation of Thermal Effects in a Virtual Environment. Honar-Ha-Ye-Ziba: Architecture and Urban Planning, No. 42, pp. 5–12. [In Persian].
5. Niazi, Mohammad. Improving the Quality of Design and Construction of Existing Building Roofs toward Lightweight Construction and Energy Consumption Optimization. [In Persian].
6. Mesghati, Ghazi Jahani, Hossein & Mofidi Shirazi. (2011). Embodied Energy Assessment Structure for Sustainable Buildings. National Conference on Civil Engineering, Architecture, Urban Planning and Energy Management. [In Persian].
7. Mahdizadeh, Seraj, Fatemeh & Mirzaei, Fahimeh. (2016). A Comparative Study of the Brick Production Process and Common Building Materials with Similar Performance in Terms of Sustainability. Conference on Brick and Brickwork in Iranian Art and Architecture. [In Persian].
8. Aluminium Journal. (2002). Scientific-Specialized Issue of the Building Exhibition, November 2002. [In Persian].
9. Wilson, A. & Morrill, J. (2001). Consumer Guide to Home Energy Savings. Iran Fuel Conservation Organization, Technical Publications. [Persian translation].
10. Tyllesen, Holger Kani. (2010). Climate-Compatible Architecture: Principles of Environmental Architectural Design in Hot Regions. Translated by Farzaneh Soflaei. Center for Urban Planning and Architecture Studies and Research, 1st ed. [In Persian].
11. Shakeri, Eghbal. (2012). Reducing Energy Consumption in Iran’s Building Sector Using Building Information Modeling Technology. Second International Conference on New Approaches in Energy Conservation, Tehran. [In Persian].
12. Alizadeh Khazaei, Bahareh; Alvanchi, Amin & Taghaddos, Hossein. (2017). Investigation of Energy Consumption of Exterior Wall Construction Materials Using Building Information Modeling. Second National Conference on Applied Research in Structural Engineering and Construction Management, Sharif University of Technology. [In Persian].
13. Soflaei, Farzaneh. (2003). Sustainability of Climatic Elements in Traditional Iranian Architecture (Hot and Dry Climate). Proceedings of the Third International Conference on Optimization of Fuel Consumption in Buildings. [In Persian].
14. Watson, Donald & Labs, Kenneth. (1993). Climatic Design. Translated by Vahid Ghobadian et al. Tehran: University of Tehran Press. [In Persian].
15. Ghobadigolu, Zahra. (2006). Fundamentals of Building Physics 2. ACECR, Amirkabir University of Technology Branch. [In Persian].
16. Arjmandi, Roshanandeh, Ali. (2003). Building–Energy–Optimization. Proceedings of the Third Conference on Optimization of Fuel Consumption in Buildings, pp. 475–489. [In Persian].
17. Daghigh, Ronak & Moshtagh. (2008). Optimal Selection of Glazing and Window Systems for Energy Saving. Proceedings of the Third Conference on Optimization of Fuel Consumption in Buildings, pp. 943–955. [In Persian].
18. Fares, Amina. (2012). The Effect of Changing Trombe Wall Component on the Thermal Load. Energy Procedia, 19, pp. 47–54.
19. Daghigh, Rezaei, S.; Shanmugam, S. & Ramakrishna, S. (2017). A Review of Conventional, Advanced, and Smart Glazing Technologies and Materials for Improving Indoor Environment. Solar Energy Materials & Solar Cells, Vol. 159.
20. Newton, J.Westaway, N. & Crane. (2010). Embodied Energy in Residential Property.

Fares,Amina, "The Effect of Changing Trombe Wall Component on the Thermal Load", Energy .22
Procedia 22 , 1121, p 20 – 22.
Daghigh Rezaei. S, Shannigrahi S., Ramakrishna S., A review of oventional, advanced, and smart 83
glazing technologies and materials or improving indoor environment, Solar Energy Materials &
Solar , vol. 222: 12-22, 1120.
Newton, J., Westaway, N., crane., Embodied energy in residential property 21, 1121. .11
Rogers, M., The use of a multi-criteria decision model to choose between different structural .12
forms within modern office construction, Dublin Institute of Technology, 1121.
Xing Y, Hewitt N, Griffiths P. Zero carbon buildings refurbishment—a hierarchical pathway. .11
Renewable Sustainable Energy Rev 1122;2212112–22.
Ibn-Mohammed T, Greenough R, Taylor S, Ozawa-Meida L, Acquaye A. Operational vs. .12
embodied emissions in buildings—a review of current trends. Energy Build 1122;221121–22.
Lechtenböhmer S, Schüring A. The potential for large-scale savings from insulating residential .12
buildings in the EU. Energy Effic 1121;21120–01.
Cabeza LF, Rincón L, Vilariño V, Pérez G, Castell A. Life cycle assessment (LCA) and life cycle .12
energy analysis (LCEA) of buildings and the building sector: a review. Renewable Sustainable
Energy Rev 1122;121222–222.
Zuo J, Zhao Z-Y. Green building research—current status and future agenda: a review. .12
Renewable Sustainable Energy Rev 1122;211102–22.
www.cpjournals.com
سال 8931 ، شماره 18
111
IEA. Transition to sustainable buildings: strategies and opportunities to 1121. International .10
Energy Agency (IEA); 1122.
IEA. Clean energy progress report. International Energy Agency (IEA); 1122101. .12
IEA. World Energy Outlook 1122. International Energy Agency (IEA); 1122. .12
Robert A, Kummert M. Designing net-zero energy buildings for the future climate, not for the .21
past. Build Environ 1121;221221–2.
Nataly Echevarria Huaman R, Xiu Jun T. Energy related CO1 emissions and the progress on .22
CCS projects: a review. Renewable Sustainable Energy Rev 1122;221222–22.
Theodosiou, T.G. (1112). Summer period analysis of the performance of a planted roof as a .21
passive cooling technique. Energy Build, (22), 212–220.
M.S. Soylemez, Thermoeconomical optimization of number of panes for windows, Journal of .22
Energy Engineering, ASCE 222, 12-12, 1112.
Zhao, M., P.C. Tabares Velasco, J. Srebric, S. Komarneni, and R. Berghage. (1122). Effects of .22
plant and substrate selection on thermal performance of green roofs duringthe summer. Build.
Environ,(02), 222–122.
Daghigh Rezaei. S, Shannigrahi S., Ramakrishna S., A review of oventional, advanced, and smart 90
glazing technologies and materials or improving indoor environment, Solar Energy Materials &
Solar , vol. 222: 12-22, 1120.
N.N. Shcherbakova, V.I. Kondrashov, I.A. Kupriyanova, V.A. Gorokhovskii, Regression 96
equationa for determining light transmission a tinted float, glass Ceram, vol. 22: 222-222, 1112.
Jalaei, F., & Jrade, A. (1122). Integrating BIM with green building certification system, energy .20
analysis, and cost estimating tools to conceptually design sustainable buildings. In Construction
Research Congress 1122: Construction in a Global Network (pp. 221-222).
Cho, C-S and Gibson, G. E. , “Building Project Scope Definition Using Project Definition Rating .22
Index”, Journal of Architectural Engineering, Vol. 0(2),pp.222-21221112
Allen, E., & Iano, J. (1122). Fundamentals of building construction: materials and methods. John .22
Wiley & Sons.
Lin, Y. H., Tsai, K. T., Lin, M. D., & Yang, M. D. (1122). Design optimization of office building .21
envelope configurations for energy conservation. Applied Energy, 202, 222-222.
Sadineni, S. B., Madala, S., & Boehm, R. F. (1122). Passive building energy savings: A review .22
of building envelope components. Renewable and Sustainable Energy Reviews, 22(2),
www.cpjournals.com
سال 8931 ، شماره 18
112
22202222.
Krygiel, E., & Nies, B. (1112). Green BIM: successful sustainable design with building .21
information modeling. John Wiley & Sons.
Hosseini, M. Reza & Azari, Ehsan & Tivendale, Linda & Banihashemi, Saeed & Chileshe, .22
Nicholas. (1122). Building information modelling (BIM) in Iran: An exploratory study. Journal
of Engineering, Project, and Production Management. 2. 02-22.
Crawley DB, Hand JW, Kummert M, Griffith BT. Contrasting the capabilities of building energy .22
performance simulation programs. Build Environ 1110;221222–02.
Attia S, Beltrán L, De Herde A, Hensen J. Architect friendly: A comparison of ten diff erent .22
building performance simulation tools. In: Proceedings of the 22th international building
performance simulation association conference and exhibition. International Building
Performance Simulation Association (IBPSA); 1112.
Krygiel, E.; Nies, B. Green BIM: Successful Sustainable Design with Building Information .22
Modeling; Wiley: New York, NY, USA, 1112; pp. 2–122.
Liu S, Meng X, Tam C. Building information modeling based building design optimization for .20
sustainability. Energy Build 1122;2121222–22.
Spiegelhalter, Thomas. (1121). Achieving the European and North American ‘1111–1121 .22
Targets’ of Net-Zero-Energy-Buildings with Parametric 2D/2D-BIM Design Tools. 1121 ACSA
International Conference .22-20
Aksamija A. BIM-based building performance analysis: evaluation and simulation of design .22
decisions. In: Proceedings of the 1121 ACEEE summer study on energy efficiency in buildings;
1121.
Maile T, Fischer M, Bazjanac V. Building energy performance simulation tools-a life-cycle and .21
interoperable perspective [Working Paper]. Cent Integr Facil Eng (CIFE) 1110;21012–22.
AbandaF,ByersL.Aninvestigation of the impact of building orientation onenergy consumption in .22
a domestic building using emerging BIM (Building Information Modelling). Energy
1122;201220–10.
Nasyrov V, Stratbücker S, Ritter F, Borrmann A, Hua S, Lindauer M. Building information .21
models as input forbuilding energy performance simulation–the current state of industrial
implementations. eWork eBus Archit Eng Constr: ECPPM 1122;202.
Dong B, Lam K, Huang Y, Dobbs G. A comparative study of the IFC and gbXML informational .22
www.cpjournals.com
سال 8931 ، شماره 18
113
infrastructures for data exchange in computational design support environments. Tenth Int
IBPSA Conf 111012221–0.
Moon HJ, Choi MS, Kim SK, Ryu SH. Case studies for the evaluation of interoperability .22
between a bim based architectural model and building performance analysis programs.In:
Proceedings of the 21th conference of international building performance simulation association;
1122.
Kim JB, Jeong W, Clayton MJ, Haberl JS, Yan W. Developing a physical BIM library for .22
building thermal energy simulation. Autom Constr 1122;21122–12.
Kumar S. Interoperability between building information models (BIM) and energy analysis .22
programs. University of Southern California; 1112.
Jeong W, Kim JB, Clayton MJ, Haberl JS, Yan W. A framework to integrate objectoriented .20
physical modelling with building information modelling for building thermal simulation. J Build
Perform Simul 1122;2121–22.
Dubois M, Horvat M. State-of-the-art of digital tools used by architects for solar design (Report .22
No. T. 22. B. 2). International Energy Agency; 1121.
Maile T, Fischer M, Bazjanac V. Building energy performance simulation tools-a life-cycle and .22
interoperable perspective [Working Paper]. Cent Integr Facil Eng (CIFE) 1110;21012–22.
Wen L, Hiyama K. A review: simple tools for evaluating the energy performance in early design .21
stages. Procedia Eng 1122;222121–2.
Stundon D, Spillane J, Lim JP, Tansey P, Tracey M. Building information modelling energy .22
performance assessment on domestic dwellings: a comparative study. In: Proceedings of the 22st
annual ARCOM conference: ARCOM; 1122. p. 202–2.
Kurul E, Abanda H, Tah JH, Cheung F. Rethinking the build process for BIM adoption. CIB .21
World Build Congr Constr Soc Aust 1122.
Lagüela S, Díaz-Vilariño L, Martínez J, Armesto J. Automatic thermographic and RGB texture .22
of as-built BIM for energy rehabilitation purposes. Autom Constr 1122;221121–21.