بهینه سازی سیستم ترکیبی خورشیدی با استفاده از سیستم های فوتوولتائیک-گرمایی و روش مونت کارلو در منطقه گرم و خشک

[1]    Karami, M., Raisee, M., and Delfani, S., 2014. Numerical investigation of nanofluid-based solar collectors.  IOP Conf. Ser.: Mater. Sci. Eng., 64 (1), 012044.

[2]    Amin, Z., Nematollahi, O., and Alemrajabi, A.A, 2021. Disinfection process with solar drying system. Journal of Heat and Mass Transfer Research, 8 (1), pp. 23-28.

[3]    Alamdari, P., Salihoglu, N.K., and Amin, Z., 2013. Solar energy potentials in Iran: A review. Renewable and Sustainable Energy Reviews, 21, pp. 778-788.

[4]    Hormozi Moghaddam, M. and Karami, M., 2022. Heat transfer and pressure drop through mono and hybrid nanofluid‐based photovoltaic‐thermal systems. Energy Science & Engineering, 10 (3), pp. 918-931.

[5]    Karami, M., Delfani, S., and Noroozi, A., 2020. Performance characteristics of a solar desiccant/M-cycle air-conditioning system for the buildings in hot and humid areas. Asian Journal of Civil Engineering, 21, pp. 189-199.

[6]    Leckner, M., Zmeureanu, R., 2011. Life cycle cost and energy analysis of a Net Zero Energy House with solar combisystem. Applied Energy, 88 (1), pp. 232-241.

[7]    Rasoul Asaee, S., IsmetUgursal, V., Beausoleil-Morrison, I., Ben-Abdallah, N., 2014. Preliminary study for solar combisystem potential in Canadian houses. Applied Energy, 130, pp. 510-518.

[8]    Sustar, J. L., Burch, J., Krarti, M., 2015. Performance Modeling Comparison of a Solar Combisystem and Solar Water Heater. J. Sol. Energy Eng., 137 (6), 061001.

[9]    Mehdaoui, F., Hazami, M., Messaouda, A., and Guizani, A.A., 2020. Performance analysis of two types of Solar Heating Systems used in buildings under typical North African climate (Tunisia). Applied Thermal Engineering, 165, 114203.

[10] Hazami, M., Mehdaoui, F., Naili, N., Noro, M., Lazzarin, R., and Guizani, A. A., 2017. Energetic, exergetic and economic analysis of an innovative Solar CombiSystem (SCS) producing thermal and electric energies: Application in residential and tertiary households. Energy Convers. Manag., 140, pp. 36–50.

[11] Katsaprakakis, D. A. and Zidianakis, G., 2019. Optimized Dimensioning and Operation Automation for a Solar-Combi System for Indoor Space Heating: A Case Study for a School Building in Crete. Energies, 12 (1).

[12] Karami, M. and Javanmardi, F., 2020. Performance assessment of a solar thermal combisystem in different climate zones. Asian Journal of Civil Engineering, 21, pp.751–762.

[13] Karami, M. and Nasiri Gahraz, S.S., 2022. Improving thermal performance of a solar thermal/desalination combisystem using nanofluid-based direct absorption solar collector. Sientia Iranica, 29 (3), Transactions on Mechanical Engineering (B), pp. 1288-1300.

[14] Esmaeili, M., Karami, M. and Delfani, S., 2020. Performance enhancement of a direct absorption solar collector using copper oxide porous foam and nanofluid. International Journal of Energy Research, 44 (7), pp. 5527-5544.

[15] Delfani, S., Karami, M., Akhavan-Behabadi, M.A., 2016. Experimental investigation on performance comparison of nanofluidbased direct absorption and flat plate solar collectors. International Journal of Nano Dimension (IJND), 7 (1), pp. 85-96.

[16] Karami, M. and Nasiri Gahraz, S.S., 2021. Transient simulation and life cycle cost analysis of a solar polygeneration system using photovoltaic-thermal collectors and hybrid desalination unit. Journal of Heat and Mass Transfer Research, 8 (2), pp. 243-256.

[17] Kannan, A., Prakash, J., Roan, D., 2021.Design and performance of an off-grid solar combisystem using phase change materials.  International Journal of Heat and Mass Transfer, 164, 120574.

[18] Bornatico, R., Pfeiffer, M., Witzig, A. and Guzzella, L., 2012. Optimal sizing of a solar thermal building installation using particle swarm optimization. Energy, 41(1), pp. 31-37.

[19] Hin, J.N.C. and Zmeureane, R., 2014. Optimization of a residential solar combisystem for minimum life cycle cost, energy use and exergy destroyed. Solar Energy, 100, pp. 102-113.

[20] Rey, A. and Zmeureanu, R., 2016. Multi-objective optimization of a residential solar thermal combisystem. Solar Energy, 139, pp. 622-632.

[21] Rey, A. and Zmeureanu, R., 2017. Micro-time variant multi-objective particle swarm optimization (micro-TVMOPSO) of a solar thermal combisystem. Swarm and Evolutionary Computation, 36, pp. 76-90.

[22] Rey, A. and Zmeureanu, R., 2018. Multi-objective optimization framework for the selection of configuration and equipment sizing of solar thermal combisystems. Energy, 145, pp. 182-194.

[23] Li, Y.H., Kao, W.C., 2018. Taguchi optimization of solar thermal and heat pump combisystems under five distinct climatic conditions. Applied Thermal Engineering, 133, pp. 283-297.

[24] Thapa, B. and Wang, W., Williams, W., 2021. Life-cycle cost optimization of a solar combisystem for residential buildings in Nepal. Journal of Asian Architecture and Building Engineering, 21 (3), pp. 1137-1148.

[25] Jalalizadeh, M., Fayaz, Rima, Delfani, S., Jafari Mosleh, H. and Karami, M., 2021. Dynamic simulation of a trigeneration system using an absorption cooling system and building integrated photovoltaic thermal solar collectors. Journal of Building Engineering, 43, 102482.

[26] Goldsim. 2022. Monte Carlo Simulation. Monte Carlo Simulation and Methods Introduction - GoldSim.

[27] Mun, J., 2006. Modeling risk: Applying Monte Carlo simulation, real options analysis, forecasting, and optimization techniques 347. John Wiley & Sons.

[28] Fuller, S., 2010. Life-cycle cost analysis (LCCA). National Institute of Building Sciences, An Authoritative Source of Innovative Solutions for the Built Environment 1090.

[29] Gu, Y., Zhang, X., Myhren, J. A., Han, M., Chen, X. and Yuan, Y., 2018. Techno-economic analysis of a solar photovoltaic/thermal (PV/T) concentrator for building application in Sweden using Monte Carlo method. Energy Convers. Manag. 165, pp. 8-24.

[30] Kalogirou, S., 2014. Solar Energy Engineering: Processes and Systems, Academic Press, second edition.