Journals / Research on Engineering Structures and Materials / 2020 / Cilt: 6 - Sayı: 4

Evaluation of annual performance of a photovoltaic thermal system integrated with natural zeolites

Pages
363–374
DOI
—
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AI Summary & Key Takeaways

AI Insight
⚡ TL;DR(Too Long; Didn't Read)

Average overall energy efficiency values were found as 0.56; 0.54; 0.49; 0.49; 0.48; 0.46; 0.45; 0.46; 0.50; 0.53; 0.54 and 0.56 from January to December, respectively.

📌 3 Key Takeaways

🎯
Objective & Hypothesis:Photovoltaic thermal systems (PVT) produces both electricity and thermal energy by the same module.
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Key Findings & Data:There are no studies in the literature regarding evaluation of the annual performance of PVT systems integrated with natural zeolites.
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Conclusion & Impact:Average overall energy efficiency values were found as 0.56; 0.54; 0.49; 0.49; 0.48; 0.46; 0.45; 0.46; 0.50; 0.53; 0.54 and 0.56 from January to December, respectively.
🔬Design:Research Article
📍Scope:Comprehensive Sample
⚙️Variables:Domain Parameters

Özet

Photovoltaic thermal systems (PVT) produces both electricity and thermal energy by the same module. However, solar energy exhibits non-continuous character, and causes some problems for obtaining stabile energy due to its unsteady regime. Thermal energy storage systems could be employed as a solution the mentioned problems. There are no studies in the literature regarding evaluation of the annual performance of PVT systems integrated with natural zeolites. It is the motivation behind of the present study. Natural zeolites could be utilized for thermal storage and management with PVT systems. In this study, it is aimed to performed annual performance of the PVT system integrated with natural zeolite as a thermal storage material to manage the excessive heat on PV. Average overall energy efficiency values were found as 0.56; 0.54; 0.49; 0.49; 0.48; 0.46; 0.45; 0.46; 0.50; 0.53; 0.54 and 0.56 from January to December, respectively. Annual total overall energy produced by the PVT system integrated with natural zeolite was found as 1294.88 kWh/year per module. Annual saving per module is reached as 117.83 € per module. With the acceptance of the system cost of 942.8 €, simple payback period is approximately 8 years. This payback time, which is found on a single module, will surely decrease at higher installed powers.

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Cite This Article

KANDİLLİ, C., ÜZEL, M. (2020). Evaluation of annual performance of a photovoltaic thermal system integrated with natural zeolites. Research on Engineering Structures and Materials, Cilt: 6 - Sayı: 4, 363–374. https://ajindex.com/articles/302625

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References (11)

  1. Huang BJ, Yang PE, Lin YP, Lin BY, Chen HJ, Lai RC. Solar cell junction temperature measurement of PV module. Solar Energy, 2011; 85:388-92.
  2. Kandilli C. A comparative study on the energetic- exergetic and economical performance of a photovoltaic thermal system (PVT), Research on Engineering Structures and Materials, 2019; 5:1, 75-89.
  3. Huang MJ, Eames PC. Norton B. Phase change materials for limiting temperature rise in building-integrated photovoltaics. Solar Energy, 2006; 80, 1121-1130.
  4. Huang MJ, Eames PC. Norton B., Hewitt NJ. Natural convection in an internally finned phase change material heat sink for the thermal management of photovoltaics. Solar Energy Materials and Solar Cells, 2011; 95, 1598-1603.
  5. Park J, Kim T, Leigh SB. Application of a phase-change material to improve the electrical performance of vertical-building-added photovoltaics considering the annual weather conditions. Solar Energy, 2014, 105, 561-574.
  6. Ho CJ, Chou WL, Lai CM. Application of a water-saturated MEPCM-PV for reducing winter chilling damage on aqua farms. Solar Energy, 2014; 108:135-145.
  7. Hasan A, McCormack SJ, Huang MJ, Norton B. Characterization of phase change materials for thermal control of photovoltaics using Differential Scanning Calorimetry and Temperature History Method. Energy Conversion and Managemant;2014, 81, 322- 329.
  8. Ho CJ, Tanuwijava AO, Lai CM. Thermal and electrical performance of a BIPV integrated with a microencapsulated phase change material layer. Energy and Buildings, 2012; 50:331-8.
  9. Lin W, Ma Z, Sohel MI, Cooper P. Development and evaluation of a ceiling ventilation system enhanced by solar photovoltaic thermal collectors and phase change materials. Energy Conversion and Managemant, 2014; 88, 218-230.
  10. Gurmen Ozcelik T. Investigation of glycerol-Ni(NO3)26H2O /perlite composites as form stable phase change materials. Research on Engineering Structures and Materials, 2020; 6(2): 141-151.
  11. Kandilli C. Energy, exergy, and economical analyses of a photovoltaic thermal