مطالعه عددی گسترش گازهای سمی و داغ حریق در مجتمع مسکونی چندطبقه با و بدون سیستم اطفای حریق اسپرینکلر

[1] M. McNamee, B. Meacham, P. van Hees, L. Bisby, W. Chow, A. Coppalle, R. Dobashi, B. Dlugogorski, R. Fahy, C. Fleischmann, IAFSS agenda 2030 for a fire safe world, Fire Safety Journal, 110 (2019) 102889.

[2] I. Ioannou, W. Aspinall, D. Rush, L. Bisby, T. Rossetto, Expert judgment-based fragility assessment of reinforced concrete buildings exposed to fire, Reliability Engineering & System Safety, 167 (2017) 105-127.

[3] M. Altın, M.F. Kılıçarslan, Two real room fire and the evaluation of its consequences in terms of fire safety, Case Studies in Thermal Engineering, 44 (2023) 102876.

[4] M. Mapar, G. Heidarinejad, H. Pasdarshahri, Numerical Investigation of Two Simultaneous Fires in a Tunnel and Evaluation of the Obstructive Influence of Vehicles by Large Eddy Simulation, Modares Mechanical Engineering, 13(15) (2014) 10-22, (in Persian).

[5] M. Safarzadeh, G. Heidarinejad, H. Pasdarshahri, Air curtain to control smoke and fire spread in a ventilated multi-floor building, International Journal of Thermal Sciences, 159 (2021) 106612.

[6] M. Safarzadeh, G. Heidarinejad, H. Pasdarshahri, The effect of vertical and horizontal air curtain on smoke and heat control in the multi-storey building, Journal of Building Engineering, 40 (2021) 102347.

[7] D.J. Pesic, D.N. Zigar, I. Anghel, S.M. Glisovic, Large Eddy Simulation of wind flow impact on fire-induced indoor and outdoor air pollution in an idealized street canyon, Journal of Wind Engineering and Industrial Aerodynamics, 155 (2016) 89-99.

[8] R.K. Janardhan, S. Hostikka, Experiments and numerical simulations of pressure effects in apartment fires, Fire technology, 53(3) (2017) 1353-1377.

[9] D. Cortés, D. Gil, J. Azorín, F. Vandecasteele, S. Verstockt, A review of modelling and simulation methods for flashover prediction in confined space fires, Applied Sciences, 10(16) (2020) 5609.

[10] G. Heidarinejad, H. Tajaddod, M. Safarzadeh, Numerical study of the effect of the water mist nozzle location on fire extinguishing system in shielded fire, Fuel and Combustion, 15(4) (2023) 1-19, (in Persian).

[11] G. Heidarinejad, E. Mousavi, Numerical simulatoin of poolfire suppression using water mist system investigating nozzle parameter effects, Modares Mechanical Engineering, 17(2) (2017) 350-358, (in Persian).

[12] X. Ye, J. Ma, Y.-x. Shen, L.-y. Lin, Suppression effect of sprinkler system on fire spread in large commercial buildings, Procedia Engineering, 135 (2016) 455-462.

[13] C. Fan, R. Bu, X. Xie, Y. Zhou, Full-scale experimental study on water mist fire suppression in a railway tunnel rescue station: Temperature distribution characteristics, Process Safety and Environmental Protection, 146 (2021) 396-411.

[14] R. Bellas, M.A. Gómez, A. González-Gil, J. Porteiro, J.L. Míguez, Assessment of the fire dynamics simulator for modeling fire suppression in engine rooms of ships with low-pressure water mist, Fire Technology, 56(3) (2020) 1315-1352.

[15] Y. Yuan, S. Wu, B. Shen, A numerical simulation of the suppression of hydrogen jet fires on hydrogen fuel cell ships using a fine water mist, International Journal of Hydrogen Energy, 46(24) (2021) 13353-13364.

[16] P. Nonsawat, S. Patvichaichod, Performance analysis of automatic sprinkler systems in warehouses using fire dynamic simulation, in:  IOP Conference Series: Materials Science and Engineering, IOP Publishing, 2020, pp. 012005.

[17] L. Yinshui, J. Zhuo, W. Dan, L. Xiaohui, Experimental research on the water mist fire suppression performance in an enclosed space by changing the characteristics of nozzles, Experimental thermal and fluid science, 52 (2014) 174-181.

[18] Y. Liu, X. Wang, T. Liu, J. Ma, G. Li, Z. Zhao, Preliminary study on extinguishing shielded fire with water mist, Process Safety and Environmental Protection, 141 (2020) 344-354.

[19] M. Bromann, The Design and Layout of Fire Sprinkler Systems, CRC Press, 2001.

[20] M. Ahrens, US Experiences with Sprinklers. National Fire Protection Association, in, NFPA Research, Data and Analytics Division, 2017.

[21] S.A. Abdulrahman, K. Chetehouna, A. Cablé, Ø. Skreiberg, M. Kadoche, A review on fire suppression by fire sprinklers, Journal of Fire Sciences, 39(6) (2021) 512-551.

[22] H. Liu, C. Wang, I.M.D.C. Cordeiro, A.C.Y. Yuen, Q. Chen, Q.N. Chan, S. Kook, G.H. Yeoh, Critical assessment on operating water droplet sizes for fire sprinkler and water mist systems, Journal of Building Engineering, 28 (2020) 100999.

[23] Y. Wang, K.V. Meredith, X. Zhou, P. Chatterjee, Y. Xin, M. Chaos, N. Ren, S.B. Dorofeev, Numerical simulation of sprinkler suppression of rack storage fires, Fire Safety Science, 11 (2014) 1170-1183.

[24] M. Safarzadeh, G. Heidarinejad, H. PasdarShahri, Numerical investigation of compartment fire under maximum and minimum of natural ventilation using flamelet generated manifold combustion model, Amirkabir Journal of Mechanical Engineering, 53(5 (Special Issue)) (2021) 3335-3350, (in Persian).

[25] S.B. Pope, PDF methods for turbulent reactive flows, Progress in energy and combustion science, 11(2) (1985) 119-192, (in Persian).

[26] S. Subramaniam, Lagrangian–Eulerian methods for multiphase flows, Progress in Energy and Combustion Science, 39(2-3) (2013) 215-245.

[27] G. Maragkos, B. Merci, Large eddy simulations of CH 4 fire plumes, Flow, Turbulence and Combustion, 99 (2017) 239-278.

[28] H. Pasdarshahri, G. Heidarinejad, K. Mazaheri, Development of Compatible Subgrid Scale Model of LES in Numerical Simulation of Compartment Fires, Ph. D. Thesis, Tehran, Tarbiat Modares University, 2013, (in Persian).

[29] K. McGrattan, S. Hostikka, J. Floyd, R. McDermott, Fire dynamics simulator (version 5) technical reference guide, validation, vol. 3, NIST, Spec. Publ,  (2010) 1018-1015.

[30] T. Myers, A. Trouvé, A. Marshall, Predicting sprinkler spray dispersion in FireFOAM, Fire safety journal, 100 (2018) 93-102.

[31] R.L. Alpert, Numerical modeling of the interaction between automatic sprinkler sprays and fire plumes, Fire Safety Journal, 9(2) (1985) 157-163.

[32] P. Valdes, T. Beji, B. Merci, CFD Study on the Interaction between Water Sprays and Longitudinal Ventilation in Tunnel Fires, Master's Thesis, Belgium, Ghent University, 2018.

[33] Z.Q. Yang, S.H. Chen, X.J. Zhu, Simulation Research of the Suppressing Performance of Mist to Pool Fire in Room with Blocks, Advanced Materials Research, 518 (2012) 937-941.

[34] K. McGrattan, S. Hostikka, R. McDermott, J. Floyd, C. Weinschenk, K. Overholt, Fire dynamics simulator technical reference guide volume 1: mathematical model, NIST special publication, 1018(1) (2013) 175.

[35] T.-S. Shen, Y.-H. Huang, S.-W. Chien, Using fire dynamic simulation (FDS) to reconstruct an arson fire scene, Building and environment, 43(6) (2008) 1036-1045.

[36] J. Zhang, Y. Tao, X. Liu, H. Zhao, Fire simulation research on a bus based on Pyrosim, in:  Journal of Physics: Conference Series, IOP Publishing, 2020, pp. 012100.

[37] J. Lee, Numerical analysis of how ventilation conditions impact compartment fire suppression by water mist, Annals of Nuclear Energy, 136 (2020) 107021.

[38] J. Lee, Numerical analysis on the rapid fire suppression using a water mist nozzle in a fire compartment with a door opening, Nuclear Engineering and Technology, 51(2) (2019) 410-423.

[39] K.B. McGrattan, H.R. Baum, R.G. Rehm, A. Hamins, G.P. Forney, J.E. Floyd, S. Hostikka, K. Prasad, Fire dynamics simulator (version 4) technical reference guide, NIST special publication, 1018 (2004) 94.

[40] Dreisbach and K. Hill, Verification and Validation of Selected Fire Models for Nuclear Power Plant Applications Volume 3 Fire Dynamics Tools (FDT), (2007) no. C.

[41] https://nj.gov/health/workplacehealthandsafety/right-to-know/, official site of the state of new jersey, 2023.