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Impact of Selected Technical Soil Parameters on the Greenhouse Energy Management

Treść / Zawartość
Identyfikatory
Warianty tytułu
Języki publikacji
EN
Abstrakty
EN
The paper is an attempt to determine the impact of soil type and its selected technical parameters on the heat exchange with soil. The test results were based on the all-year-round experimental measurements of soil temperature and indoor and outdoor air in a greenhouse located in southern Poland. The field tests results were used to validate the calculation model using the WUFIplus software. The validation showed a high degree of conformity between the experiments and calculations. Five variants were used in the calculations, differentiated by technical parameters of the soil underneath the greenhouse. The results showed a significant impact of the soil type on the greenhouse energy management.
Słowa kluczowe
Rocznik
Strony
245--252
Opis fizyczny
Bibliogr. 27 poz., rys., tab.
Twórcy
  • University of Agriculture in Krakow, Faculty of Environmental Engineering, Department of Rural Building, Al. Mickiewicza 24/28, 30-059 Kraków, Poland
  • University of Agriculture in Krakow, Faculty of Environmental Engineering, Department of Rural Building, Al. Mickiewicza 24/28, 30-059 Kraków, Poland
Bibliografia
  • 1. Al-Kayssi A.W. 2002. Spatial variability of soil temperature under greenhouse conditions. Renewable Energy, 27, 453–462.
  • 2. Bibbiani C., Fantozzi F., Gargari C., Campiotti C.A., Vox G. 2016. Wood biomass as sustainable energy for greenhouse heating in Italy. Agruculture and Agricultural Science Procedia, 8, 637–645.
  • 3. Boughanmi H., Lazaar M., Guizani A. 2018. A performance of heat pump system connected a new conic heliocoidal geothermal heat exchanger for a greenhouse heating in the north of Tunisia. Solar Energy, 171, 343–353.
  • 4. Canadas J., Sanchez-Molina J.A., Rodriguez F., Aguila I.M. 2017. Improving automatic climate control with decision support techniques to minimize disease effects in greenhouse tomatoes. Information Processing in Agriculture, 4, 50–63.
  • 5. Deru M., Judkoff R., Neymark J. 2003. Whole Building Energy Simulation with a Three-Dimensional Ground-Coupled Heat Transfer Model. ASHRAE Transactions, 557–565.
  • 6. Esen M., Yuksel T. 2013. Experimental evaluation of using various renewable energy sources for heating a greenhouse. Energy and Buildings, 65, 340–351.
  • 7. Fabrizio E. 2012. Energy reduction measures in agricultural greenhouses heating: Envelope, systems and solar energy collection. Energy and Buildings, 53, 57–63.
  • 8. Fox J.A., Adriaanse P., Stacey N.T. 2019. greenhouse energy management: The thermal interaction of greenhouses with the ground. Journal of Cleaner Production, 235, 288–296.
  • 9. Hassanien R.H.E., Li M., Dong Lin W. 2016 Advanced applications of solar energy in agricultural greenhouses. Renewable Sustainable Energy, 54, 989–1001.
  • 10. Hassanien R.H.E., Li M., Tang Y. 2018. The evacuated tube solar collector assisted heat pump for heating greenhouses. Energy and Buildings, 169, 305–318.
  • 11. Kittas C., Karamanis M., Katsoulas N. 2005. Air temperature regime in a forced ventilated greenhouse with rose crop. Energy and Buildings, 37, 807–812.
  • 12. Kurpaska S. 2008. Wymiary geometryczne oraz rodzaj pokrycia a zapotrzebowanie ciepła w szklarni. Inżynieria Rolnicza, 6, 89–96.
  • 13. Kurpaska S., Latała H., Rutkowski K., Hołownicki R., Konopacki P., Nowak J., Treder W. 2012. Magazynowanie nadwyżki ciepła z tunelu foliowego w akumulatorze ze złożem kamiennym. Inżynieria Rolnicza, 2, 157–167.
  • 14. Liang M.H., He Y.F., Chen L.J., Du S.F. 2018. Greenhouse environment dynamic monitoring system based on WIFI. IFAC-PapersOnLine, 51, 736–740.
  • 15. Nawalany G., Bieda W., Radoń J., Herbut, P. 2014. Experimental study on development of thermal conditions in ground beneath a greenhouse. Energy Building, 69, 103–111.
  • 16. Nawalany G., Sokołowski P. 2016. Analysis of hygrothermal conditions of external partitions in an underground fruit store. Journal of Ecological Engineering, 17(4), 75–82.
  • 17. Nawalany G., Sokołowski P. 2019. Building–Soil Thermal Interaction: A Case Study. Energies, 12, Iss. 15, Article number 2922.
  • 18. Nawalany G., Sokołowski P., Herbut P., Angrecka S. 2017b. Development of selected parameters of microclimate in a stand alone cellar plunged into soil. Journal of Ecological Engineering, 18(3), 156–161.
  • 19. Nawalany G., Radon J., Bieda W., Sokolowski P. 2017a. Influence of selected factors on heat exchange with the ground in a greenhouse. Transactions of the ASABE, 60(2), 479–487.
  • 20. Papadopoulos A.P., Hao X. 1997. Effects of greenhouse covers on seedless cucumber growth, productivity and energy use. Science Horticulturae, 68, 113–123.
  • 21. Raczek A., Wachowicz E. 2014. Model procesu wymiany ciepła i masy w powietrzu wewnątrz szklarni. Inżynieria Rolnicza, 1, 185–195.
  • 22. Sagrado J., Sanchez J.A., Rodriguez F., Berenguel M. 2016. Byesian networks for greenhouse temperature control. Journal of Applied Logic, 17, 25–35.
  • 23. Sethi V.P., Sharma S.K. 2007. Survey of cooling technologies for worldwide agricultural greenhouse applications. Solar Energy, 81, 1447–1459.
  • 24. Taki M., Rohani A., Rahmati-Joneidabad M. 2018. Solar thermal simulation and applications in greenhouse. Information Processing in Agriculture, 5, 83–113.
  • 25. Tong G., Christopher D.M., Li B. 2009. Numerical modelling of temperature variations in a Chinese solar greenhouse. Computers and Electronics in Agriculture, 68, 129–139.
  • 26. Vadiee A., Martin V. 2013. Thermal energy storage strategies for effective closed greenhouse design. Applied Energy, 109, 337–343.
  • 27. Wang J., Zhou J., Gu R., Chen M., Li P. 2018. Manage system for internet of things of greenhouse based on GWT. Information Processing in Agriculture, 5, 269–278.
Typ dokumentu
Bibliografia
Identyfikator YADDA
bwmeta1.element.baztech-bbd8301c-ad56-4f9f-a836-2b87f7d74c08
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