Cooling supply with a new type of evacuated solar collectors: a techno-economic optimization and analysis

Renewable cooling via absorption chillers being supplied by various green heat technologies such as solar collectors has been widely studied in the literature, but it is still challenging to get positive economic outcomes from such systems due to the large expenses of solar thermal systems. This stu...

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Veröffentlicht in:	Environmental science and pollution research international Jg. 31; H. 12; S. 18171 - 18187
Hauptverfasser:	Teles, Mavd P. R., Sadi, Meisam, Ismail, Kamal A. R., Arabkoohsar, Ahmad, Silva, Brenda V. F., Kargarsharifabad, Hadi, Shoeibi, Shahin
Format:	Journal Article
Sprache:	Englisch
Veröffentlicht:	Berlin/Heidelberg Springer Berlin Heidelberg 01.03.2024 Springer Nature B.V
Schlagworte:	Absorption Applied Solar Energy Aquatic Pollution Atmospheric Protection/Air Quality Control/Air Pollution Brazil Case studies Chillers Cold Temperature Cooling cost effectiveness Design optimization Earth and Environmental Science Economic analysis economic performance Economics Ecotoxicology Environment Environmental Chemistry Environmental Health heat Hot Temperature Multiple objective analysis Optimization techniques Phase Transition Solar collectors Solar Energy Solar heating Storage units Sunlight Waste Water Technology Water Management Water Pollution Control Brazil Techno-economic analysis Solar cooling Multi-objective optimization methods Eccentric reflective solar collector Absorption chiller
ISSN:	1614-7499, 0944-1344, 1614-7499
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Abstract	Renewable cooling via absorption chillers being supplied by various green heat technologies such as solar collectors has been widely studied in the literature, but it is still challenging to get positive economic outcomes from such systems due to the large expenses of solar thermal systems. This study offers the use of a new generation of solar collectors, so-called eccentric reflective solar collectors, for driving single-effect absorption chillers and thereby reducing the levelized cost of cooling. This article develops the most optimal design of this system (based on several different scenarios) using multi-objective optimization techniques and employs them for a case study in Brazil to assess its proficiency compared to conventional solar-driven cooling methods. For making the benchmarking analyses fair, the conventional system is also rigorously optimized in terms of design and operation features. The results show that the eccentric solar collector would enhance the cost-effectiveness by 29%. In addition, using optimally sized storage units would be necessary to get acceptable economic performance from the system, no matter which collector type is used. For the case study, at the optimal sizing and operating conditions, the levelized cost of cooling will be 124 USD/MWh and an emission level of 18.97 kgCO 2 /MWh.
AbstractList	Renewable cooling via absorption chillers being supplied by various green heat technologies such as solar collectors has been widely studied in the literature, but it is still challenging to get positive economic outcomes from such systems due to the large expenses of solar thermal systems. This study offers the use of a new generation of solar collectors, so-called eccentric reflective solar collectors, for driving single-effect absorption chillers and thereby reducing the levelized cost of cooling. This article develops the most optimal design of this system (based on several different scenarios) using multi-objective optimization techniques and employs them for a case study in Brazil to assess its proficiency compared to conventional solar-driven cooling methods. For making the benchmarking analyses fair, the conventional system is also rigorously optimized in terms of design and operation features. The results show that the eccentric solar collector would enhance the cost-effectiveness by 29%. In addition, using optimally sized storage units would be necessary to get acceptable economic performance from the system, no matter which collector type is used. For the case study, at the optimal sizing and operating conditions, the levelized cost of cooling will be 124 USD/MWh and an emission level of 18.97 kgCO /MWh. Renewable cooling via absorption chillers being supplied by various green heat technologies such as solar collectors has been widely studied in the literature, but it is still challenging to get positive economic outcomes from such systems due to the large expenses of solar thermal systems. This study offers the use of a new generation of solar collectors, so-called eccentric reflective solar collectors, for driving single-effect absorption chillers and thereby reducing the levelized cost of cooling. This article develops the most optimal design of this system (based on several different scenarios) using multi-objective optimization techniques and employs them for a case study in Brazil to assess its proficiency compared to conventional solar-driven cooling methods. For making the benchmarking analyses fair, the conventional system is also rigorously optimized in terms of design and operation features. The results show that the eccentric solar collector would enhance the cost-effectiveness by 29%. In addition, using optimally sized storage units would be necessary to get acceptable economic performance from the system, no matter which collector type is used. For the case study, at the optimal sizing and operating conditions, the levelized cost of cooling will be 124 USD/MWh and an emission level of 18.97 kgCO 2 /MWh. Renewable cooling via absorption chillers being supplied by various green heat technologies such as solar collectors has been widely studied in the literature, but it is still challenging to get positive economic outcomes from such systems due to the large expenses of solar thermal systems. This study offers the use of a new generation of solar collectors, so-called eccentric reflective solar collectors, for driving single-effect absorption chillers and thereby reducing the levelized cost of cooling. This article develops the most optimal design of this system (based on several different scenarios) using multi-objective optimization techniques and employs them for a case study in Brazil to assess its proficiency compared to conventional solar-driven cooling methods. For making the benchmarking analyses fair, the conventional system is also rigorously optimized in terms of design and operation features. The results show that the eccentric solar collector would enhance the cost-effectiveness by 29%. In addition, using optimally sized storage units would be necessary to get acceptable economic performance from the system, no matter which collector type is used. For the case study, at the optimal sizing and operating conditions, the levelized cost of cooling will be 124 USD/MWh and an emission level of 18.97 kgCO₂/MWh. Renewable cooling via absorption chillers being supplied by various green heat technologies such as solar collectors has been widely studied in the literature, but it is still challenging to get positive economic outcomes from such systems due to the large expenses of solar thermal systems. This study offers the use of a new generation of solar collectors, so-called eccentric reflective solar collectors, for driving single-effect absorption chillers and thereby reducing the levelized cost of cooling. This article develops the most optimal design of this system (based on several different scenarios) using multi-objective optimization techniques and employs them for a case study in Brazil to assess its proficiency compared to conventional solar-driven cooling methods. For making the benchmarking analyses fair, the conventional system is also rigorously optimized in terms of design and operation features. The results show that the eccentric solar collector would enhance the cost-effectiveness by 29%. In addition, using optimally sized storage units would be necessary to get acceptable economic performance from the system, no matter which collector type is used. For the case study, at the optimal sizing and operating conditions, the levelized cost of cooling will be 124 USD/MWh and an emission level of 18.97 kgCO2/MWh. Renewable cooling via absorption chillers being supplied by various green heat technologies such as solar collectors has been widely studied in the literature, but it is still challenging to get positive economic outcomes from such systems due to the large expenses of solar thermal systems. This study offers the use of a new generation of solar collectors, so-called eccentric reflective solar collectors, for driving single-effect absorption chillers and thereby reducing the levelized cost of cooling. This article develops the most optimal design of this system (based on several different scenarios) using multi-objective optimization techniques and employs them for a case study in Brazil to assess its proficiency compared to conventional solar-driven cooling methods. For making the benchmarking analyses fair, the conventional system is also rigorously optimized in terms of design and operation features. The results show that the eccentric solar collector would enhance the cost-effectiveness by 29%. In addition, using optimally sized storage units would be necessary to get acceptable economic performance from the system, no matter which collector type is used. For the case study, at the optimal sizing and operating conditions, the levelized cost of cooling will be 124 USD/MWh and an emission level of 18.97 kgCO2/MWh.Renewable cooling via absorption chillers being supplied by various green heat technologies such as solar collectors has been widely studied in the literature, but it is still challenging to get positive economic outcomes from such systems due to the large expenses of solar thermal systems. This study offers the use of a new generation of solar collectors, so-called eccentric reflective solar collectors, for driving single-effect absorption chillers and thereby reducing the levelized cost of cooling. This article develops the most optimal design of this system (based on several different scenarios) using multi-objective optimization techniques and employs them for a case study in Brazil to assess its proficiency compared to conventional solar-driven cooling methods. For making the benchmarking analyses fair, the conventional system is also rigorously optimized in terms of design and operation features. The results show that the eccentric solar collector would enhance the cost-effectiveness by 29%. In addition, using optimally sized storage units would be necessary to get acceptable economic performance from the system, no matter which collector type is used. For the case study, at the optimal sizing and operating conditions, the levelized cost of cooling will be 124 USD/MWh and an emission level of 18.97 kgCO2/MWh.
Author	Teles, Mavd P. R. Kargarsharifabad, Hadi Ismail, Kamal A. R. Sadi, Meisam Arabkoohsar, Ahmad Silva, Brenda V. F. Shoeibi, Shahin
Author_xml	– sequence: 1 givenname: Mavd P. R. surname: Teles fullname: Teles, Mavd P. R. organization: Energy Department, Faculty of Mechanical Engineering, State University of Campinas, Energy Department, Aalborg University – sequence: 2 givenname: Meisam orcidid: 0000-0002-1068-7606 surname: Sadi fullname: Sadi, Meisam email: meisam.sadi@gmail.com organization: Department of Engineering, Shahrood Branch, Islamic Azad University – sequence: 3 givenname: Kamal A. R. surname: Ismail fullname: Ismail, Kamal A. R. organization: Energy Department, Faculty of Mechanical Engineering, State University of Campinas – sequence: 4 givenname: Ahmad surname: Arabkoohsar fullname: Arabkoohsar, Ahmad organization: Department of Civil and Mechanical Engineering, Technical University of Denmark – sequence: 5 givenname: Brenda V. F. surname: Silva fullname: Silva, Brenda V. F. organization: Energy Department, Aalborg University – sequence: 6 givenname: Hadi surname: Kargarsharifabad fullname: Kargarsharifabad, Hadi organization: Production and Recycling of Materials and Energy Research Center, Qom Branch, Islamic Azad University – sequence: 7 givenname: Shahin surname: Shoeibi fullname: Shoeibi, Shahin organization: Energy and Sustainable Development Research Center, Semnan Branch, Islamic Azad University
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Keywords	Techno-economic analysis Solar cooling Multi-objective optimization methods Eccentric reflective solar collector Absorption chiller
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Accessed 5 Jan 2022 GustavssonLSvenningssonPSubstituting fossil fuels with biomassEnergy Convers Manag1996371211121610.1016/0196-8904(95)00322-3 Cornetet MC (2009) Recomendações Para Especificação De Vidros Em Edificações Comerciais Na Região Climática De Porto Alegre-Rs. Dissertation, Universidade Federal de Santa Maria SadiMArabkoohsarATechno-economic analysis of off-grid solar-driven cold storage systems for preventing the waste of agricultural products in hot and humid climatesJ Clean Prod202027512414310.1016/j.jclepro.2020.124143 SwinbankWCLong-wave radiation from clear skiesQ J R Meteorol Soc19638933934810.1002/QJ.49708938105 MarcOPraeneJ-PBastideALucasFModeling and experimental validation of the solar loop for absorption solar cooling system using double-glazed collectorsAppl Therm Eng20113126827710.1016/j.applthermaleng.2010.09.006 AssilzadehFKalogirouSAAliYSopianKSimulation and optimization of a LiBr solar absorption cooling system with evacuated tube collectorsRenew Energy200530114311591:CAS:528:DC%2BD2MXht1ejtrk%3D10.1016/j.renene.2004.09.017 SadiMArabkoohsarAJoshiAKTechno-economic optimization and improvement of combined solar-powered cooling system for storage of agricultural productsSustain Energy Technol Assess20214510105710.1016/j.seta.2021.101057 Miranda, MM (2012) Fator de emissão de gases de efeito estufa da geração de energia elétrica no Brasil. 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International Energy Agency 10.02(2010):618 A Behzadi (25715_CR9) 2021; 218 M Sadi (25715_CR36) 2020; 275 E Bellos (25715_CR10) 2016; 102 F Assilzadeh (25715_CR8) 2005; 30 BV Karlekar (25715_CR25) 1977 M Sadi (25715_CR37) 2021; 45 25715_CR40 25715_CR42 M Hammad (25715_CR18) 1998; 62 25715_CR21 F Ascione (25715_CR5) 2017; 154 25715_CR22 M Sadi (25715_CR38) 2021; 219 25715_CR23 25715_CR24 D Ürge-Vorsatz (25715_CR43) 2015; 41 O Marc (25715_CR28) 2011; 31 25715_CR29 CR Maliska (25715_CR27) 2004 E Assareh (25715_CR7) 2022; 5 GA Florides (25715_CR16) 2002; 72 WC Swinbank (25715_CR41) 1963; 89 H Li (25715_CR26) 2018; 176 AS Alsagri (25715_CR3) 2020; 223 G Chen (25715_CR12) 2017; 185 E Assareh (25715_CR6) 2021; 92 SV Patankar (25715_CR33) 1980 R Asadi (25715_CR4) 2022; 43 25715_CR30 25715_CR31 25715_CR32 AR Razmi (25715_CR34) 2022; 47 25715_CR11 25715_CR13 L Gustavsson (25715_CR17) 1996; 37 K Hara Chakravarty (25715_CR20) 2022; 50 25715_CR35 25715_CR14 25715_CR15 25715_CR2 25715_CR1 25715_CR39 25715_CR19
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Snippet	Renewable cooling via absorption chillers being supplied by various green heat technologies such as solar collectors has been widely studied in the literature,...
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SubjectTerms	Absorption Applied Solar Energy Aquatic Pollution Atmospheric Protection/Air Quality Control/Air Pollution Brazil Case studies Chillers Cold Temperature Cooling cost effectiveness Design optimization Earth and Environmental Science Economic analysis economic performance Economics Ecotoxicology Environment Environmental Chemistry Environmental Health heat Hot Temperature Multiple objective analysis Optimization techniques Phase Transition Solar collectors Solar Energy Solar heating Storage units Sunlight Waste Water Technology Water Management Water Pollution Control
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Title	Cooling supply with a new type of evacuated solar collectors: a techno-economic optimization and analysis
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