شبیه سازی و بررسی پارامتری سیستم تولید سه گانه توان، گرما و تبرید با استفاده از سلول‌های خورشیدی متمرکز و خنک کننده ترموالکتریک

[1]           Gholizadeh T., M. Vajdi and Rostamzadeh H., A new trigeneration system for power, cooling, and freshwater production driven by a flash-binary geothermal heat source. Renewable Energy,. 148: p. 31-43. 2020

[2]           Li Z., et al., Comprehensive evaluation of low-grade solar trigeneration system by photovoltaic-thermal collectors. Energy Conversion and Management,. 215: p. 112895. 2020

[3]           Rostami S., Rostamzadeh H. and Fatehi R., A new wind turbine driven trigeneration system applicable for humid and windy areas, working with various nanofluids. Journal of Cleaner Production,. 296: p. 126579. 2021

[4]           Bellos E. and Tzivanidis C., Parametric analysis of a solar-driven trigeneration system with an organic Rankine cycle and a vapor compression cycle. Energy and Built Environment,. 2(3): p. 278-289. 2021

[5]           Chen H., Li Z. and Xu Y., Assessment and parametric analysis of solar trigeneration system integrating photovoltaic thermal collectors with thermal energy storage under time-of-use electricity pricing. Solar Energy,. 206: p. 875-899. 2020

[6]           Sebastián, A., et al., Modular micro-trigeneration system for a novel rotatory solar Fresnel collector: A design space analysis. Energy Conversion and Management,. 227: p. 113599. 2021

[7]           Dabwan, Y.N. and G. Pei, A novel integrated solar gas turbine trigeneration system for production of power, heat and cooling: Thermodynamic-economic-environmental analysis. Renewable Energy,. 152: p. 925-941. 2020

[8]           Adhami H., Designing and analysis of the micro-trigeneration systems based on combined proton exchange membrane fuel cell with photovoltaic and photovoltaic/thermal prime movers in portable applications. Applied Thermal Engineering,. 180: p. 115779. 2020

[9]           Chen H., Li Z. and Xu Y., Evaluation and comparison of solar trigeneration systems based on photovoltaic thermal collectors for subtropical climates. Energy Conversion and Management,. 199: p. 111959. 2019

[10]         Maka, A.O.M. and T.S. O'Donovan, Transient thermal-electrical performance modelling of solar concentrating photovoltaic (CPV) receiver. Solar Energy,. 211: p. 897-907. 2020

[11]         AZURSPACE. CPV Solar Cells. 2021; Available from: http://www.azurspace.com/index.php/en/products/products-cpv/cpv-solar-cells.

[12]         Ben Youssef, W., et al., Assessment viability of a concentrating photovoltaic/thermal-energy cogeneration system (CPV/T) with storage for a textile industry application. Solar Energy,. 159: p. 841-851. 2018

[13]         Khan, S.A., Y. Bicer, and M. Koç, Design and analysis of a multigeneration system with concentrating photovoltaic thermal (CPV/T) and hydrogen storage. International Journal of Hydrogen Energy,. 45(5): p. 3484-3498. 2020

[14]         Ji Y., et al., A transmissive concentrator photovoltaic module with cells directly cooled by silicone oil for solar cogeneration systems. Applied Energy,. 288: p. 116622. 2021

[15]         Codd D.S., et al., Solar Cogeneration of Electricity with High-Temperature Process Heat. Cell Reports Physical Science,. 1(8): p. 100135. 2020

[16]         Dimri, N., A. Tiwari, and G.N. Tiwari, Effect of thermoelectric cooler (TEC) integrated at the base of opaque photovoltaic (PV) module to enhance an overall electrical efficiency. Solar Energy,. 166: p. 159-170. 2018

[17]         Jaber H., et al., Domestic thermoelectric cogeneration system optimization analysis, energy consumption and CO2 emissions reduction. Applied Thermal Engineering,. 130: p. 279-295. 2018

[18]         Jamali S. and Yari M., Recovery of liquefied natural gas cold energy in a clean cogeneration system utilizing concentrated photovoltaics. Journal of Cleaner Production,. 350: p. 131517. 2022

[19]         Dimri N., A. Tiwari, and G.N. Tiwari, Thermal modelling of semitransparent photovoltaic thermal (PVT) with thermoelectric cooler (TEC) collector. Energy Conversion and Management,. 146: p. 68-77. 2017

[20]         Sarkar J., Performance optimization of transcritical CO2 refrigeration cycle with thermoelectric subcooler. International Journal of Energy Research,. 37(2): p. 121-128. 2013

[21]         Sarkar J. and Bhattacharyya S., Optimization of recompression S-CO2 power cycle with reheating. Energy Conversion and Management,. 50(8): p. 1939-1945. 2009

[22]         Shah M.M. and MM S., A new correlation for heat transfer during boiling flow through pipes. 1976.